Page last updated: 2024-12-05

kainic acid

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Description

Kainic Acid: (2S-(2 alpha,3 beta,4 beta))-2-Carboxy-4-(1-methylethenyl)-3-pyrrolidineacetic acid. Ascaricide obtained from the red alga Digenea simplex. It is a potent excitatory amino acid agonist at some types of excitatory amino acid receptors and has been used to discriminate among receptor types. Like many excitatory amino acid agonists it can cause neurotoxicity and has been used experimentally for that purpose. [Medical Subject Headings (MeSH), National Library of Medicine, extracted Dec-2023]

Cross-References

ID SourceID
PubMed CID10255
CHEMBL ID275040
CHEBI ID31746
SCHEMBL ID15777
MeSH IDM0011891

Synonyms (107)

Synonym
MLS001074661
smr000471885
3-pyrrolidineacetic acid, 2-carboxy-4-(1-methylethenyl)-, (2s-(2alpha,3beta,4beta))-
acide kainique [inn-french]
brn 0086660
kainic acid [inn:jan]
acidum kainicum [inn-latin]
acido kainico [inn-spanish]
nsc 136038
c10h15no4
2-carboxy-4-isopropenyl-3-pyrrolidineacetic acid
3-pyrrolidineacetic acid, 2-carboxy-4-(1-methylethenyl)-, (2s-(2-alpha,3-beta,4-beta))-
HMS3266C11
kainic acid
3-pyrrolidineacetic acid, 2-carboxy-4-isopropenyl-
nsc136038 ,
nsc-136038
acidum kainicum
digensaeure
acide kainique
digenic acid
(3s,4r)-3-(carboxymethyl)-4-(prop-1-en-2-yl)-l-proline
digenin
l-alpha-kainic acid
(2s-(2alpha,3beta,4beta))-2-carboxy-4-(1-methylethenyl)-3-pyrrolidineacetic acid
helminal
CHEBI:31746 ,
alpha-kainic acid
kainsaeure
acido kainico
EU-0100656
(2s,3s,4s)-3-(carboxymethyl)-4-(prop-1-en-2-yl)pyrrolidine-2-carboxylic acid
487-79-6
alpha- kainic acid
kainate
BPBIO1_001306
BIOMOL-NT_000217
l-proline, 3-(carboxymethyl)-4-(1-methylethenyl)-, (3s,4s)-
inchi=1/c10h15no4/c1-5(2)7-4-11-9(10(14)15)6(7)3-8(12)13/h6-7,9,11h,1,3-4h2,2h3,(h,12,13)(h,14,15)/t6-,7+,9-/m0/s
rel-(3r,4r)-3-(carboxymethyl)-4-isopropenyl-d-proline
3-(carboxymethyl)-4-isopropenylproline
KAI ,
UPCMLD-DP146:001
1P1N
UPCMLD-DP146
NCGC00024504-06
UPCMLD-DP146:002
NCGC00024504-03
NCGC00024504-05
LOPAC0_000656
NCGC00024504-04
NCGC00024504-02
(3s,4s)-3-(carboxymethyl)-4-prop-1-en-2-yl-l-proline
K 0250
NCGC00024504-07
(2s,3s,4s)-3-(carboxymethyl)-4-prop-1-en-2-ylpyrrolidine-2-carboxylic acid
nsc-759587
CHEMBL275040 ,
bdbm50002369
NCGC00024504-08
HMS3262C13
unii-siv03811uc
4-22-00-01523 (beilstein handbook reference)
siv03811uc ,
3-pyrrolidineacetic acid, 2-carboxy-4-(1-methylethenyl)-, (2s,3s,4s)-
cas-487-79-6
dtxsid7040526 ,
dtxcid5020526
tox21_110905
CCG-204742
HMS2233K05
rac kainic acid
LP00656
(2s-(2.alpha.,3.beta.,4.beta.))-2-carboxy-4-(1-methylethenyl)-3-pyrrolidineacetic acid
kainic acid [inn]
kainic acid [who-dd]
kainic acid [mi]
SCHEMBL15777
NCGC00024504-09
tox21_110905_1
NCGC00261341-01
tox21_500656
(2s,3s,4s)-carboxy-4-(1-methylethenyl)-3-pyrrolidineacetic acid
(-)-(.alpha.)-kainic acid
2s-carboxy-4s-(1-methylethenyl)-3s-pyrroldineacetic acid
HB0355
AKOS024456995
sr-01000597728
SR-01000597728-1
SR-01000075454-6
SR-01000075454-7
sr-01000075454
SR-01000075454-5
SR-01000075454-1
HY-N2309
CS-0020451
Q390239
kainic acid - cas 487-79-6
HMS3675A21
4071-38-9
HMS3411A21
kainic acid (synthetic)
SDCCGSBI-0050635.P002
NCGC00024504-15
kainic-acid
(2s,3s,4s)-3-(carboxymethyl)-4-prop-1-en-2-yl-pyrrolidine-2-carboxylicacid
EX-A8001

Research Excerpts

Overview

Kainic acid (KA) is a potent agonist at non-N-methyl-D-aspartate (non-NMDA) ionotropic glutamate receptors. It is commonly used to induce seizures and excitotoxicity in animal models of human temporal lobe epilepsy.

ExcerptReferenceRelevance
"Kainic acid (KA) is an excitotoxic glutamate analogue produced by a marine seaweed. "( Kainic Acid Activates TRPV1 via a Phospholipase C/PIP2-Dependent Mechanism in Vitro.
Baskaran, P; Covington, K; Lehmann, T; Mohandass, A; Surenkhuu, B; Thyagarajan, B, 2020
)
3.44
"Kainic acid (KA) is a potent agonist at non-N-methyl-D-aspartate (non-NMDA) ionotropic glutamate receptors and commonly used to induce seizures and excitotoxicity in animal models of human temporal lobe epilepsy. "( Reciprocal modulation of Ca
Akhtar-Schäfer, I; Dibué-Adjei, M; Hescheler, J; Lüke, JN; Neumaier, F; Schneider, T, 2018
)
1.92
"Kainic acid (KA) is an excitatory and neurotoxic substance. "( Role of α-CGRP in the regulation of neurotoxic responses induced by kainic acid in mice.
Kim, CH; Lee, JH; Lee, JK; Park, SH; Sim, YB; Suh, HW, 2013
)
2.07
"Kainic acid (KA) is a potent neurotoxic substance valuable in research of temporal lobe epilepsy. "( Subconvulsive dose of kainic acid transiently increases the locomotor activity of adult Wistar rats.
Jandová, K; Marešová, D; Pokorný, J; Riljak, V, 2015
)
2.17
"Kainic acid (KA) is an excitotoxic agent commonly used to induce epilepsy in rodents."( Kainic Acid-Induced Golgi Complex Fragmentation/Dispersal Shifts the Proteolysis of Reelin in Primary Rat Neuronal Cells: An In Vitro Model of Early Stage Epilepsy.
Borlongan, CV; Dailey, T; Kaneko, Y; Sullivan, R; Tajiri, N; Vale, FL, 2016
)
2.6
"Kainic acid (KA) is an analog of the neurotransmitter glutamate and is widely used as an excitotoxic agent to lesion spinal cord networks, thus, providing an interesting model to learn basic mechanisms of spinal cord injury. "( Functional and histopathological changes induced by intraparenchymal injection of kainic acid in the rat cervical spinal cord.
Barbeito, CG; Martínez, A; Nishida, F; Portiansky, EL; Zanuzzi, CN, 2015
)
2.09
"Kainic acid (KA) is a glutamate agonist widely used in studies of neurodegeneration due to its ability to induce excitotoxic damage in the rodent brain. "( Post-treatment with prolactin protects hippocampal CA1 neurons of the ovariectomized female rat against kainic acid-induced neurodegeneration.
Morales, T; Reyes-Mendoza, J, 2016
)
2.09
"Kainic acid (KA) is a well-known excitatory neurotoxic substance. "( Regulation of blood glucose level by kainic acid in mice: involvement of glucocorticoid system and non-NMDA receptors.
Jung, JS; Kim, CH; Kim, SS; Park, SH; Sharma, N; Sim, YB; Suh, HW, 2017
)
2.17
"Kainic acid (KA) is a potent glutamate analog that is used to induce neurodegeneration and model temporal lobe epilepsy (TLE) in rodents. "( A novel animal model of acquired human temporal lobe epilepsy based on the simultaneous administration of kainic acid and lorazepam.
Bauer, S; Costard, L; Kienzler-Norwood, F; Müller, P; Neubert, V; Norwood, BA; Rosenow, F; Sadangi, C, 2017
)
2.11
"Kainic acid (KA) is an excitotoxic reagent commonly used to induce epilepsy in rodents."( Extracellular HMGB1 Modulates Glutamate Metabolism Associated with Kainic Acid-Induced Epilepsy-Like Hyperactivity in Primary Rat Neural Cells.
Borlongan, CV; Kaneko, Y; Malapira, T; Pappas, C; Tajiri, N; Vale, FĹ, 2017
)
1.41
"Kainic acid (KA) is an epileptogenic and neuroexcitotoxic agent by acting on specific kainate receptors (KARs) in the CNS."( Kainic acid-induced neurodegenerative model: potentials and limitations.
Luo, Q; Zhang, HL; Zheng, XY; Zhu, J, 2011
)
2.53
"Kainic acid (KA) is an excitotoxic substance and the administration of it to rodents induces seizure activity (status epilepticus, SE) and leads to neurodegeneration."( Kainic acid-induced changes in the opioid/nociceptin system and the stress/toxicity pathways in the rat hippocampus.
Armagan, G; Benyhe, S; Bojnik, E; Borsodi, A; Gündüz Çinar, O; Kanit, L; Turunc, E; Yalcin, A, 2012
)
2.54
"Kainic acid (KA) is an analog of the excitatory amino acid transmitter glutamate and the systemic administration of KA induces status epilepticus (SE) in rodents."( Kainic acid-induced seizure activity alters the mRNA expression and G-protein activation of the opioid/nociceptin receptors in the rat brain cortex.
Armagan, G; Benyhe, S; Bojnik, E; Borsodi, A; Kanit, L; Turunc Bayrakdar, E; Yalcin, A, 2013
)
2.55
"Kainic acid is an endogenous excitotoxin acting on glutamate receptors, that leads to neurotoxic damage resembling the alterations observed in some neurological disorders. "( 7-nitroindazole reduces nitrite concentration in rat brain after intrahippocampal kainate-induced seizure.
Jovanovic, M; Radenovic, L; Selakovic, V; Vasiljevic, I, 2003
)
1.76
"Kainic acid (KA) is a well-known excitatory and neurotoxic substance. "( Roles of adenosine receptors in the regulation of kainic acid-induced neurotoxic responses in mice.
Choi, SS; Han, EJ; Han, KJ; Lee, HK; Suh, HW, 2004
)
2.02
"Kainic acid (KA) is a well-known excitatory, neurotoxic substance. "( Role of nicotinic acetylcholine receptors in the regulation of kainic acid-induced hippocampal cell death in mice.
Choi, SS; Han, EJ; Kwon, MS; Lee, HK; Lee, JY; Seo, YJ; Shim, EJ; Suh, HW, 2004
)
2.01
"Kainic acid (KA) is an agonist for a subtype of ionotropic glutamate receptor, and administration of KA has been shown to increase production of reactive oxygen species, mitochondrial dysfunction, and apoptosis in neurons in many regions of the brain, particularly in the hippocampal subregions of CA1 and CA3, and in the hilus of dentate gyrus (DG)."( Kainic acid-mediated excitotoxicity as a model for neurodegeneration.
Simonyi, A; Sun, AY; Sun, GY; Wang, Q; Yu, S, 2005
)
2.49
"Kainic acid was found to be a potent photoreceptor transmitter agonist on all three types of second-order neurons, and it was a powerful excitant of amacrine and ganglion cells."( The role of excitatory amino acid transmitters in the mudpuppy retina: an analysis with kainic acid and N-methyl aspartate.
Miller, RF; Slaughter, MM, 1983
)
1.21
"Kainic acid (KA) is a potent neuronal excitant."( Kainic acid stimulation of the lateral septum elicits tachycardia.
Clark, LS; Deutch, AY; Peacock, LJ, 1984
)
2.43
"Kainic acid (KA) is a potent convulsant which, when administered subcutaneously, induces sustained limbic seizures and a pattern of limbic brain damage that is thought to be seizure-mediated. "( Naloxone blocks morphine enhancement of kainic acid neurotoxicity.
Conboy, VT; Fuller, TA; Olney, JW, 1982
)
1.97
"Kainic acid is an analog of glutamate. "( Hippocampal involvement in the pharmacologic induction of withdrawal-like behaviors.
Isaacson, RL; Lanthorn, TH, 1981
)
1.71
"Kainic acid has proved to be a potent neurotoxin with a pronounced necrotizing effect upon neurons in the pigeon brain."( Necrotizing effects of kainic acid on neurons in the pigeon brain: histological observations.
Bowers, DE; Rieke, GK, 1981
)
1.29
"Kainic acid is a potent neurotoxin, and induces selective neuronal loss in the rat hippocampus."( Kainic acid induction of heme oxygenase in vivo and in vitro.
Kakimura, J; Kimura, H; Kitamura, Y; Matsuoka, Y; Okazaki, M; Taniguchi, T; Tooyama, I, 1998
)
2.46
"Kainic acid (KA) is a potent glutamate analog that can temporarily or permanently damage glutamatergic neurons. "( Excitotoxic effect of kainic acid on chicken otoacoustic emissions and cochlear potentials.
Ding, DL; Hashino, DE; Salvi, RJ; Shero, M; Sun, H; Zheng, XY, 2000
)
2.06
"Kainic acid (KA) is a potent central nervous system excitotoxin."( Intracellular glutathione levels determine cerebellar granule neuron sensitivity to excitotoxic injury by kainic acid.
Borin, G; Ceccon, M; Facci, L; Floreani, M; Giusti, P; Imbesi, M; Skaper, SD, 2000
)
1.24
"[3H]Kainic acid ([3H]KA) is a widely used tool for studying the KA class of excitatory amino acid receptors. "( High-affinity [3H] kainic acid binding to brain membranes: a re-evaluation of ligand potency and selectivity.
Crawford, N; de Vries, DJ; Kerr, DS; Lang, TK, 1999
)
1.19
"Kainic acid (KA) is a known potent neuroexcitotoxin, although the biochemical mechanism producing its underlying neurotoxic effect is not quite clear. "( The biochemical mechanisms of the excitotoxicity of kainic acid. Free radical formation.
Bu, Q; Cheng, Y; Oldfield, F; Sun, AY, 1992
)
1.98
"Kainic acid is supposed to be a specific agonist for a subclass of excitatory glutamate receptors in the vertebrate CNS. "( Glutamic acid-insensitive [3H]kainic acid binding in goldfish brain.
Cha, JH; Davis, RE; Wilmot, GR, 1992
)
2.01
"Kainic acid is a potent neurotoxin for certain neurons. "( Cloning of a putative high-affinity kainate receptor expressed predominantly in hippocampal CA3 cells.
Keinänen, K; Seeburg, PH; Voigt, M; Werner, P; Wisden, W, 1991
)
1.72
"Kainic acid (KA) is a potent neuroexcitatory drug widely used in the experimental study of seizure activity. "( Some mechanisms of brain edema studied in a kainic acid model.
Hornykiewicz, O; Lassmann, H; Seitelberger, F, 1990
)
1.98
"Kainic acid (KA) is a powerful convulsant and neurotoxic agent. "( Effects of intrahippocampal injection of kainic acid on estrous cycle in rats.
Amado, D; Berzaghi, MP; Cavalheiro, EA; Verreschi, IT, 1987
)
1.98
"Kainic acid is a structural analogue of glutamic acid possessing neurotoxic property. "( Morphological changes of rat neurosecretory neurones after stereotaxic injection of kainic acid into the supraoptic nucleus or the supraoptico-hypophyseal tract.
Bock, R; Jurna, I; Rheinert, C, 1986
)
1.94

Effects

Kainic acid has been used to produce an experimental model of limbic epilepsy characterized by two different phases (KA1 and KA2) The neurotoxicity has been studied in the optic tectum of the goldfish 4 weeks after eye enucleation.

ExcerptReferenceRelevance
"Kainic acid toxicity has been previously suggested to involve the microtubule cytoskeleton and NAP is a microtubule-interacting drug candidate."( The microtubule interacting drug candidate NAP protects against kainic acid toxicity in a rat model of epilepsy.
Cutler, AB; Gozes, I; Graber, K; Manley, N; Sapolsky, RM; Vulih-Shultzman, I; Zemlyak, I, 2009
)
1.31
"Kainic acid (KA) has become an important tool for studying functions related to excitatory amino acid transmission in mammals."( Kainic acid does not affect CA3 hippocampal region pyramidal cells in hypothyroid rats.
Alva-Sánchez, C; Ortiz-Butrón, R; Pacheco-Rosado, J, 2004
)
2.49
"Kainic acid has been used as a model agent for the study of neurotoxicity of various excitatory amino acids, since it induces neuronal damage through excessive production of reactive oxygen species."( Neuroprotection by extract of Petasites japonicus leaves, a traditional vegetable, against oxidative stress in brain of mice challenged with kainic acid.
Kang, HG; Kim, MR; Kim, YB; Oh, SH; Sok, DE, 2006
)
1.26
"Kainic acid has been used to produce an experimental model of limbic epilepsy characterized by two different phases (KA1 and KA2)."( [Effects of systemic administration of kainic acid on GABAergic and glutaminergic transmission in various areas of the brain].
Caruso, G; De Simone, D; Giammona, G; Marano, P; Nicoletti, F; Patti, F; Raffaele, R, 1984
)
1.26
"Kainic acid neurotoxicity has been studied in the optic tectum of the goldfish 4 weeks after eye enucleation. "( Kainic acid neurotoxicity does not depend on intact retinal input in the goldfish optic tectum.
Bissoli, R; Contestabile, A; Cristini, G; Migani, P; Poli, A, 1981
)
3.15
"Kainic acid has been described as a highly specific neurotoxin that when injected locally into the nervous system destroys neuronal perikarya but spares axons of passage and terminals in the vicinity of the injection site. "( Studies of effects of kainic acid lesions in the dorsal lateral geniculate nucleus of rat.
Coull, BM; Woodward, WR, 1982
)
2.02
"Kainic acid has proved to be a potent neurotoxin with a pronounced necrotizing effect upon neurons in the pigeon brain."( Necrotizing effects of kainic acid on neurons in the pigeon brain: histological observations.
Bowers, DE; Rieke, GK, 1981
)
1.29
"Kainic acid has been reported to destroy cell bodies while leaving fibers of passage intact while NMDA excites the cell bodies but not the axons of neurons."( Lateral tegmental field involvement in the central sympathoinhibitory action of 8-OH-DPAT.
Clement, ME; McCall, RB, 1993
)
1.01
"Kainic acid (KA) has long been used in experimental animals to induce status epilepticus (SE). "( [31P]/[1H] nuclear magnetic resonance study of mitigating effects of GYKI 52466 on kainate-induced metabolic impairment in perfused rat cerebrocortical slices.
Liachenko, S; Melick, JA; Tang, P; Xu, Y, 1998
)
1.74
"Kainic acid has been used extensively to produce lesions of neuronal cell bodies within the central nervous system."( Selectivity of kainic acid as a neurotoxin within the dorsal lateral geniculate nucleus of the cat: a model for transneuronal retrograde degeneration.
Pearson, HE; Sonstein, WJ; Stoffler, DJ, 1991
)
1.36
"beta-Kainic acid has been reported to have anticonvulsant properties. "( beta-Kainic acid is not an amino acid antagonist.
Collins, JF; Stone, TW, 1985
)
1.3
"Kainic acid (KA) has been largely used as a neurotoxin, and its axon-sparing effect being repeatedly emphasized, on the basis of anatomical and biochemical data. "( Electrophysiological properties of lemniscal afferents in rat after kainic acid lesions in the ventrobasal thalamus.
Briand, A; Guilbaud, G; Peschanski, M; Poingt, JP, 1985
)
1.95

Actions

Kainic acid causes an increase in metallothionein-I and heme oxygenase-I mRNAs. It also increases c-fos, heat shock protein-70, and interleukin-1 beta mRNas. Kainic Acid lesions produce a 65-70% decrease in high affinity [3H]GABA uptake.

ExcerptReferenceRelevance
"Kainic acid produced an increase in 5-hydroxyindoleacetic acid levels in frontal cortex (212%; 180%), striatum (177%; 116%), amygdala (202%; 337%) and hippocampus (43%; 70 %) at 2 and 24 hr as compared with controls, respectively."( Changes in brain serotonin turnover, body and head shakes in kainic acid-treated rats.
Mancera-Flores, M; Osorio-Rico, L; Ríos, C, 2003
)
1.28
"Kainic acid did not inhibit glutamine synthetase directly."( Alteration in neuronal-glial metabolism of glutamate by the neurotoxin kainic acid.
Berl, S; Krespan, B; Nicklas, WJ, 1982
)
1.22
"Kainic acid did not cause any changes in the hyperthermic effect of low doses of morphine (10.0 mg.kg-1)."( Effects of morphine and nalorphine on kainic acid-induced hypothermia in rats.
Czuczwar, SJ; Kleinrok, Z; Turski, L; Turski, W, 1981
)
1.26
"Kainic acid was shown to produce a local destruction of neuronal cell bodies and their dendrites and to spare the afferent fibers that pass through or terminate in the injected area."( [Study of interneuronal cortical connections using kainic acid injections].
Dem'ianenko, GP, 1980
)
1.23
"Kainic acid causes an increase in metallothionein-I and heme oxygenase-I mRNAs, as well as an increase in c-fos, heat shock protein-70, and interleukin-1 beta mRNAs."( Temporalspatial patterns of expression of metallothionein-I and -III and other stress related genes in rat brain after kainic acid-induced seizures.
Andrews, GK; Dalton, T; Pazdernik, TL; Samson, F; Wagner, J, 1995
)
1.22
"Kainic acid was able to lower markedly (P < 0.05) the glutathione (GSH) levels in hippocampus, cerebellum and amygdala/piriform cortex (maximal reduction at 24 h)."( Selective vulnerability to kainate-induced oxidative damage in different rat brain regions.
Al-Dalain, SM; Candelario-Jalil, E; Castillo, R; Fernández, OS; Martínez, G,
)
0.85
"Kainic acid lesions produce a 65-70% decrease in high affinity [3H]GABA uptake into synaptosomal fractions and a similar decrease in glutamic acid decarboxylase with a 50% reduction in endogenous GABA."( Amino acid neurotransmitter candidates in rat cerebellum: selective effects of kainic acid lesions.
Snyder, SH, 1979
)
1.21

Treatment

Kainic acid (KA) treatment causes neuronal degeneration, which is a feature of Alzheimer's disease (AD) symptoms such as amyloid β-protein production and memory deficits. Kainic Acid treatment significantly increases the expression of MHC-I in cultured hippocampal neurons in vitro.

ExcerptReferenceRelevance
"Kainic acid-treated FVB/NJ and C57BL/6NJ strains of mice had a robust seizure response, which resulted in hyperactivity."( Genetic backgrounds have unique seizure response profiles and behavioral outcomes following convulsant administration.
Adhikari, A; Copping, NA; Petkova, SP; Silverman, JL, 2019
)
1.24
"Kainic acid (KA) treatment causes neuronal degeneration, which is a feature of Alzheimer's disease (AD) symptoms such as amyloid β-protein production and memory deficits. "( Kainic acid Induces production and aggregation of amyloid β-protein and memory deficits by activating inflammasomes in NLRP3- and NF-κB-stimulated pathways.
Dong, D; Lv, YD; Qiu, X; Ruan, Y; Wu, XJ; Zheng, XY; Zhu, J, 2019
)
3.4
"Kainic acid (KA) treatment significantly increases the expression of MHC-I in cultured hippocampal neurons in vitro, suggesting that MHC-I expression is regulated by neuronal activity."( Neuronal MHC Class I Expression Is Regulated by Activity Driven Calcium Signaling.
Liu, J; Lv, D; Miao, F; Peng, Y; Shen, Y; Zhang, J, 2015
)
1.14
"Kainic acid or egg white treatment weakly activated Fos expression in the PVH of lactating in comparison to diestrus or ovariectomized (OVX) rats."( Changes in c-Fos and NOS expression in the PVH of lactating rats in response to excitotoxicity and stress.
Monasterio, N; Morales, T; Ramos, E, 2008
)
1.07
"Kainic acid treatment significiantly upregulated the expression of c-fos mRNA in the hippocampus and cortex when compared to the control group. "( Effect of gamma-glutamylcysteine ethylester on the levels of c-fos mRNA expression, glutathione and reactive oxygen species formation in kainic acid excitotoxicity.
Kanit, L; Turunc, E; Yalcin, A, 2010
)
2.01
"Kainic acid (KA) treatment induced neuronal death and apoptosis in murine cerebellar granule cells (CGNs) cultures from both wild-type and knockout p21(-/-) mice. "( p21(WAF1/Cip1) is not involved in kainic acid-induced apoptosis in murine cerebellar granule cells.
Camins, A; Canudas, AM; Folch, J; Jiménez, A; Jordà, EG; Pallàs, M; Rimbau, V; Verdaguer, E, 2004
)
2.05
"The kainic acid-treated rats used in our array experiments demonstrated severe seizure behavior that was also accompanied by neuronal degeneration which is suggested by fluoro-jade B staining and anti-caspase-3 immunohistochemistry."( Gene profiling the response to kainic acid induced seizures.
Bennett, AH; Duman, RS; Hunsberger, JG; Newton, SS; Selvanayagam, E, 2005
)
1.1
"Kainic acid (KA) treatment is a well-established model of hippocampal neuron death mediated in large part by KA receptor-induced excitotoxicity. "( Kainic acid induces early and transient autophagic stress in mouse hippocampus.
Lu, J; Roth, KA; Shacka, JJ; Uchiyama, Y; Xie, ZL; Zhang, J, 2007
)
3.23
"Both kainic acid treatment and mechanical injury cause extensive glial proliferation in the injured and/or deafferented area."( Injury-induced neuronotrophic activity in adult rat brain: correlation with survival of delayed implants in the wound cavity.
Barbin, G; Cotman, CW; Manthrope, M; Nieto-Sampedro, M; Varon, S, 1983
)
0.72
"Kainic acid treatment in rats, showing severe limbic convulsions, caused intense expression of hsp-70 mRNA and protein (HSP-70)."( Regional expression of inducible heat shock protein-70 mRNA in the rat brain following administration of convulsant drugs.
Ferrer, I; Planas, AM; Rodríguez Farré, E; Soriano, MA, 1994
)
1.01
"Kainic acid treatment significantly increased the release of trophic activity from hippocampal sites."( Monitoring release of neurotrophic activity in the brains of awake rats.
Ebendal, T; Humpel, C; Kylberg, A; Lindqvist, E; Olson, L; Söderström, S, 1995
)
1.01
"Kainic acid treatment (a model of temporal lobe epilepsy) induces Ammon's horn sclerosis, which is characterized by degeneration of CA3 pyramidal neurons and reactive gliosis. "( Glial reaction after seizure induced hippocampal lesion: immunohistochemical characterization of proliferating glial cells.
Ben-Ari, Y; Niquet, J; Represa, A, 1994
)
1.73
"Kainic acid treatment, a model of temporal lobe epilepsy, induces in CA3-CA4 fields of hippocampal complex a neuronal degeneration associated with glial hypertrophy and proliferation. "( Proliferative astrocytes may express fibronectin-like protein in the hippocampus of epileptic rats.
Ben-Ari, Y; Jorquera, I; Niquet, J; Represa, A, 1994
)
1.73
"Post-kainic acid treatment with the non-competitive NMDA receptor antagonist MK-801 (0.5 mg/kg and 1.0 mg/kg), 30 and 60 min."( Kainic acid-induced seizures and brain damage in the rat: different effects of NMDA- and AMPA receptor antagonists.
Berg, M; Bruhn, T; Diemer, NH; Johansen, FF, 1993
)
2.18
"Kainic acid treatment, a model of temporal lobe epilepsy, induces Ammon's horn sclerosis characterized by degeneration of CA3 pyramidal neurons and reactive gliosis. "( Reactive astrocytes in the kainic acid-damage hippocampus have the phenotypic features of type-2 astrocytes.
Ben-Ari, Y; Charriaut-Marlangue, C; Niquet, J; Represa, A, 1993
)
2.03
"Kainic acid-treated tissue exhibits a thinning of granule cell and molecular layers of the dentate gyrus as well as cell loss in CA3 and part of CA1."( The neurotoxins colchicine and kainic acid block odor-induced fast waves and olfactory-evoked potentials in the dentate gyrus of the behaving rat.
Heale, VR; Leung, LS; Vanderwolf, CH, 1995
)
1.3
"Kainic acid (KA) treatment induced MSR and MAMA mRNA levels on different schedules in brain regions that are susceptible to KA, including hippocampal areas CA1 and CA3."( Scavenger receptor mRNAs in rat brain microglia are induced by kainic acid lesioning and by cytokines.
Finch, CE; Grewal, RP; Morgan, TE; Yoshida, T, 1997
)
1.26
"Kainic acid or NMDA treatment increased COX-2 immunoreactivity in the cortex, hippocampus, and amygdala."( Induction of cyclooxygenase-2 in brain during acute and chronic ethanol treatment and ethanol withdrawal.
Crews, FT; Knapp, DJ, 1999
)
1.02
"Kainic acid treatment induced robust increases in GIF messenger RNA in several brain regions, including cerebral cortex, hippocampus, caudate-putamen, nucleus accumbens, and several nuclei of the amygdala and hypothalamus."( In vivo regulation of glial cell line-derived neurotrophic factor-inducible transcription factor by kainic acid.
Eisch, AJ; Lammers, CH; Mouradian, MM; Nestler, EJ; Yajima, S, 1999
)
1.24
"Kainic acid-treated transgenic mice showed no significant loss of hippocampal pyramidal neurons or expression of heat shock protein 70, whereas wild-type mice lost 68-79% of pyramidal neurons in the CA1-3 subfields and expressed high levels of heat shock protein 70 after kainate administration."( Mice transgenically overexpressing sulfonylurea receptor 1 in forebrain resist seizure induction and excitotoxic neuron death.
Arima, H; Basile, AS; Fedorova, I; Fernandez, AM; Hernández-Sánchez, C; Ito, Y; LeRoith, D; Stannard, B, 2001
)
1.03
"In kainic acid (KA)-treated rat brain, the immunoreactivity of heat-shock protein 27 (HSP27) was markedly increased in glia cells of the limbic system."( Delayed induction of alpha B-crystallin in activated glia cells of hippocampus in kainic acid-treated mouse brain.
Che, Y; Han, PL; Lee, JK; Piao, CS, 2001
)
1.05
"Kainic acid treatment induced changes, which mimicked those observed in the hippocampal region of epileptic animals."( Changes in neurofilament protein-immunoreactivity after kainic acid treatment of organotypic hippocampal slice cultures.
Holopainen, IE; Lauren, HB; Lopez-Picon, FR; Romppanen, A, 2001
)
1.28
"Kainic acid treatment, which induces seizures, transiently up-regulated RIAP-2 mRNA levels in cerebral cortex, in the CA1 and dentate gyrus regions of hippocampus, which returned to normal levels at 24 h."( Neuronal expression and regulation of rat inhibitor of apoptosis protein-2 by kainic acid in the rat brain.
Belluardo, N; Korhonen, L; Lindholm, D; Mudo, G, 2002
)
1.26
"kainic acid. Kainic acid treatment of prepubescent rats resulted in the adult brain in decreased numbers of the total population of muscarinic acetylcholine receptors in frontal (by 27%, P < 0.05, two-tailed Student's t-test), temporal (22%, P < 0.05), and piriform cortex (31%, P < 0.05), in amygdala (24%, P < 0.05), and nucleus basalis of Meynert (39%, P < 0.02)."( Effect of kainic acid administration to prepubescent rats on cholinergic markers in selected brain regions of adult rats.
Guzmán-Godínez, G; Schliebs, R, 1992
)
1.41
"Kainic acid treatment did not alter resting mean arterial pressure or heart rate."( Excitotoxin-induced degeneration of rat vagal afferent neurons.
Beart, PM; Jarrott, B; Lewis, SJ; Louis, CJ; Louis, WJ; Verberne, AJ, 1990
)
1
"In kainic acid-treated rats the peptide progressively accumulated in the hilus and the stratum lucidum of CA3, 5-60 days after injection of the toxin and, at the later intervals, extended to the supragranular molecular layer of the dentate gyrus indicating sprouting of these neurons."( Neuropeptide Y biosynthesis is markedly induced in mossy fibers during temporal lobe epilepsy of the rat.
Bellmann, R; Marksteiner, J; Ortler, M; Sperk, G, 1990
)
0.79
"Kainic acid treatment resulted in a significant reduction of choline acetyltransferase activity in the piriform cortex (by 20%), amygdala (by 19%), and nucleus basalis (by 31%) in comparison with vehicle-injected control rats."( Changes in cholinergic but not in GABAergic markers in amygdala, piriform cortex, and nucleus basalis of the rat brain following systemic administration of kainic acid.
Rothe, T; Schliebs, R; Steinbach, J; Zivin, M, 1989
)
1.2
"Treatment with kainic acid produced death of 40-50% of hippocampal neurons and this effect was not ameliorated by prior cholinergic depletion."( Partial depletion of septohippocampal cholinergic cells reduces seizure susceptibility, but does not mitigate hippocampal neurodegeneration in the kainate model of epilepsy.
Andrade, PA; Da Costa, C; Ferreira, MH; Lukoyanov, NV; Maia, GH; Soares, JI, 2019
)
0.85
"Treatment with kainic acid resulted in marked Notch2 induction in pyramidal neurons of CA1 and in a subpopulation of CA3 neurons surviving the lesion and protein expression was still detectable 6 weeks after drug treatment."( Long-lasting induction of Notch2 in the hippocampus of kainate-treated adult mice.
Bernardi, C; Ferrari Toninelli, G; Grilli, M; Lozza, G; Memo, M; Quarto, M, 2003
)
0.66
"Treatment with kainic acid resulted in a significant loss of hilar neurons."( Neuroprotective and neurotoxic effects of estrogens.
Azcoitia, I; Garcia-Segura, LM; Picazo, O, 2003
)
0.66
"Treatment with kainic acid (KA) resulted in more pronounced seizures, less GPx activity, and lower GSH/GSSG ratios in GEPR-9s than in controls, but KA did not significantly affect SOD-1 or SOD-2 activity, suggesting that GEPR-9s do not compensate for reduced GPx activity by increasing SOD."( Role of glutathione peroxidase in the ontogeny of hippocampal oxidative stress and kainate seizure sensitivity in the genetically epilepsy-prone rats.
Chae, JS; Kim, HC; Kim, HJ; Kim, WK; Ko, KH; Shin, EJ; Wie, MB; Yen, TP, 2008
)
0.69
"Treatment with kainic acid at pH 4.1 (50 nmol) caused a significant increase in the sampled concentration of MDA but no significant changes in the antioxidants."( Detection of the lipid peroxidation product malonaldehyde in rat brain in vivo.
Fry, JR; Marsden, CA; Singh, G; Waterfall, AH, 1995
)
0.63
"Rats treated with kainic acid develop limbic seizures and have elevated levels of circulating catecholamines resulting from an extensive stimulation of the adrenal gland. "( Limbic seizures induce neuropeptide and chromogranin mRNA expression in rat adrenal medulla.
Fischer-Colbrie, R; Schwarzer, C; Sperk, G; Tsunashima, K; Wolkersdorfer, M, 1997
)
0.63
"Treatment with kainic acid (KA), a glutamate analog known to activate the AMPA/KA subtype of glutamate receptor, has been widely used as a model of epilepsy."( Temporal progression of kainic acid induced neuronal and myelin degeneration in the rat forebrain.
Hopkins, KJ; Schmued, LC; Wang, G, 2000
)
0.95
"Treatment of kainic acid (KA) induced marked increase in ARNT protein in both cytosolic and organellar fractions."( Aryl hydrocarbon receptor nuclear translocator is induced by kainic acid in rat hippocampal glial cells.
Azukawa, S; Kakimura, J; Kitamura, Y; Suzuki, S; Takata, K; Taniguchi, T; Umeki, M, 2000
)
0.9
"Treatment of kainic acid-injected animals with dexamethasone 30 min before and 2 h after the injection attenuated the increase in the granule cells of the dentate gyrus by 50%."( Kainic acid-mediated increase of preprotachykinin-A messenger RNA expression in the rat hippocampus and a region-selective attenuation by dexamethasone.
Ballarin, M; Brené, S; Lindefors, N; Persson, H, 1992
)
2.08
"Rats treated with kainic acid and placed in atmospheric pressure showed typical limbic seizures and regressive neuronal changes in CA3 and CA4 of the hippocampus, while those kept in a hypoxic chamber with 8.5% O2 and 91.5% N2 showed moderate hypoxia and a slight decline of mean arterial blood pressure."( Hypoxia prevents seizures and neuronal damages of the hippocampus induced by kainic acid in rats.
Amano, S; Hazama, F; Kashiro, N; Obata, T; Shimada, M, 1990
)
0.83
"Rats treated with kainic acid were hyperactive, executed clockwise rotatory movements and displayed epileptic seizures."( The effect of intrahippocampal injection of kainic acid on corticosterone release in rats.
Daniels, WM; Engelbrecht, AH; Jaffer, A; Russell, VA; Taljaard, JJ, 1990
)
0.86

Toxicity

Nalorphine (20 mg/kg) did not affect the toxic action of kainic acid. This suggests that neuronal toxic effects are not exclusively mediated by action on glutamate receptors, but involve other, less specific mechanisms as well.

ExcerptReferenceRelevance
" The combination of these observations suggests that neuronal toxic effects of kainic acid are not exclusively mediated by action on glutamate receptors, but involve other, less specific mechanisms as well."( Toxic effects of kainic acid on mouse cerebellum in tissue culture.
Blank, NK; Leiman, AL; Seil, FJ, 1979
)
0.83
"0 mg kg-1), but not higher doses, significantly antagonized the toxic response to a previously determined TD50 of domoic acid."( Morphine differentially affects domoic acid and kainic acid toxicity in vivo.
Strain, SM; Tasker, A, 1992
)
0.54
" The antagonistic properties of kynurenate were dose-dependent: equimolar kynurenate had no effect on quinolinate but attenuated the actions of ibotenate, kainate and NMDA; 2 x equimolar kynurenate had no effect on quinolinate or ibotenate but attenuated the toxicity of kainate and NMDA; and 3 x equimolar kynurenate had no effect on the toxicity of kainate or ibotenate, attenuated the actions of NMDA and abolished the toxic action of quinolinate."( A comparison of excitotoxic lesions of the basal forebrain by kainate, quinolinate, ibotenate, N-methyl-D-aspartate or quisqualate, and the effects on toxicity of 2-amino-5-phosphonovaleric acid and kynurenic acid in the rat.
Clark, AJ; Hastings, MH; Latimer, M; Stone, TW; Winn, P, 1991
)
0.28
" No toxic effect of quisqualate is observed."( Kainate and NMDA toxicity for cultured developing and adult rat spiral ganglion neurons: further evidence for a glutamatergic excitatory neurotransmission at the inner hair cell synapse.
Delrée, P; Lefebvre, PP; Leprince, P; Moonen, G; Rigo, JM; Rogister, B; Weber, T, 1991
)
0.28
"There is now convincing evidence that excessive accumulation of the excitatory amino acid glutamate (GLU) in the extracellular space is toxic to central mammalian neurons."( Glutamate neurotoxicity in vitro: antagonist pharmacology and intracellular calcium concentrations.
Michaels, RL; Rothman, SM, 1990
)
0.28
" The effects of EAA co-incubation with the N-methyl-D-aspartate (NMDA) receptor antagonist, 2-amino-5-phosphonovaleric acid, suggested that the toxic actions of quinolinate, but not kainate, were mediated largely by NMDA receptors."( Quinolinate and kainate neurotoxicity in neostriatal cultures is potentiated by co-culturing with neocortical neurons.
Galarraga, E; Kitai, ST; Surmeier, DJ, 1990
)
0.28
" An LD50 (i."( Relationship between domoic acid levels in the blue mussel (Mytilus edulis) and toxicity in mice.
Amend, JF; Brown, J; Grimmelt, B; Johnson, GR; Macnair, N; Nijjar, MS; Wagner, S, 1990
)
0.28
" The toxic effects were observed early during the development of the neuronal culture (from 4 days in vitro on) and seemed to be neuron-specific since astrocyte cultures were not affected."( Attenuation of neurotoxicity following anoxia or glutamate receptor activation in EGF- and hippocampal extract-treated neuronal cultures.
Leysen, JE; Pauwels, PJ; van Assouw, HP, 1989
)
0.28
"Destruction of the glutamatergic corticostriatal pathway potentiates the neurotoxic action of 1 mumol L-glutamate injected into the rat striatum, whereas the toxic effects of 10 nmol kainate are markedly attenuated."( Neurotoxicity of L-glutamate and DL-threo-3-hydroxyaspartate in the rat striatum.
McBean, GJ; Roberts, PJ, 1985
)
0.27
" PCP and MK-801 block neurotoxicity induced by glutamate doses 50 times higher than the LD50 (LD50 in Mg2+-free medium, 10 microM) but only partially block the kainate neurotoxicity (LD50 in presence of Mg2+, 100 microM)."( Gangliosides prevent glutamate and kainate neurotoxicity in primary neuronal cultures of neonatal rat cerebellum and cortex.
Alho, H; Bertolino, M; Costa, E; Favaron, M; Ferret, B; Guidotti, A; Manev, H, 1988
)
0.27
" DX also antagonized morphological and chemical (lactate dehydrogenase efflux) evidence of cortical neuronal cell injury produced by toxic bath exposure to NMDA, quinolinate or glutamate, but did not affect toxic exposure to quisqualate or kainate."( Dextrorphan and levorphanol selectively block N-methyl-D-aspartate receptor-mediated neurotoxicity on cortical neurons.
Choi, DW; Peters, S; Viseskul, V, 1987
)
0.27
"It has long been proposed that the excitatory and toxic properties of acidic amino acid receptor agonists are linked."( Amino acid neurotoxicity: relationship to neuronal depolarization in rat cerebellar slices.
Garthwaite, G; Garthwaite, J; Hajós, F, 1986
)
0.27
" In parallel experiments, the calcium ionophore A23187 was not toxic in the presence of calcium."( The neurotoxicity of excitatory amino acids is produced by passive chloride influx.
Rothman, SM, 1985
)
0.27
" Only ALA (10 microM) and glutamic acid (1 mM) were toxic towards neurons in culture, as measured by cell survival after 5 days' exposure."( [Mechanism of delta-aminolevulinic acid neurotoxicity].
Lamm, MC; McCarthy, BW; Neethling, AC; Percy, VA; Taljaard, JJ; Truter, L, 1981
)
0.26
" In an initial non-blinded study, L-glutamic acid (15 mM) exerted a significant toxic effect on HD fibroblasts, decreasing viability by approximately 60% after 48 h exposure."( Effects of L-glutamate on viabilities of cultured diploid skin fibroblasts and lymphocytes. Increased toxicity not observed in Huntington's disease.
Bird, TD; Casper, JB; Stahl, WL; Ward, CB,
)
0.13
" These findings suggest that the toxic effect of KA on OB neurons may be mediated by mechanisms other than by action on GLUreceptors."( Neurotoxicity of kainic acid: evidence against an interaction with excitatory glutamate receptors in rat olfactory bulbs.
Krammer, EB; Lischka, MF; Sigmund, R, 1980
)
0.6
" Nalorphine (20 mg/kg) did not affect the toxic action of kainic acid."( Effects of morphine, nalorphine and morphine withdrawal on lethal toxicity of intracerebroventricular kainic acid in mice.
Czuczwar, SJ; Kleinrok, Z; Turski, L, 1981
)
0.72
" Among various processes that have been thought to mediate the toxic effects of glutamate are activation of the Ca(2+)-dependent proteases calpain I and II and the activation of nitric oxide synthase."( Delayed antagonism of calpain reduces excitotoxicity in cultured neurons.
Brorson, JR; Marcuccilli, CJ; Miller, RJ, 1995
)
0.29
" This inhibitor also limited the toxicity, even when applied at times up to 1 hour after the onset of the toxic exposure."( Delayed antagonism of calpain reduces excitotoxicity in cultured neurons.
Brorson, JR; Marcuccilli, CJ; Miller, RJ, 1995
)
0.29
" KA and AMPA were found to be more toxic than either N-methyl-D-aspartate (NMDA), quinolinate, or glutamate, both under normal conditions and under states of energy deprivation."( Kainate toxicity in energy-compromised rat hippocampal slices: differences between oxygen and glucose deprivation.
Rigor, BM; Schurr, A, 1993
)
0.29
" Both Purkinje neurons and non-Purkinje cell types present in the cultures were similarly vulnerable to toxic KA exposure, but the population marked by KA-induced Co2+ uptake was selectively diminished by the excitotoxicity."( Ca2+ entry via AMPA/KA receptors and excitotoxicity in cultured cerebellar Purkinje cells.
Brorson, JR; Manzolillo, PA; Miller, RJ, 1994
)
0.29
" However, it is unclear whether the kainate receptor itself mediates any of the toxic responses."( Cytotoxic effects of kainate ligands on HEK cell lines expressing recombinant kainate receptors.
Carver, JM; Cortes-Burgos, L; Giordano, T; Howe, JR; Mansson, PE; Shu, J; Zhou, LM, 1996
)
0.29
" Few studies, however, have examined the toxic effects of EAAs on identified catecholamine neurons in vitro."( Neurotoxic effects of kainic acid on substantia nigra neurons in rat brain slices.
Bywood, PT; Johnson, SM; Luo, X, 1997
)
0.61
" In this study, we have investigated the potential protective effects of two well characterized growth factors, epidermal and basic fibroblast growth factor (EGF and bFGF respectively), and the monosialoganglioside GM1, on cultured rat retinal neurons submitted to toxic levels of excitatory amino acids."( Peptide growth factors but not ganglioside protect against excitotoxicity in rat retinal neurons in vitro.
Dreyfus, H; Heidinger, V; Hicks, D; Sahel, J, 1997
)
0.3
" Our results indicate that both strains of mice have comparable concentration-dependent toxic responses to domoic acid; however, differences exist in the magnitude of the response and in specific symptoms."( Repeated independent exposures to domoic acid do not enhance symptomatic toxicity in outbred or seizure-sensitive inbred mice.
Clayton, EC; Means, LW; Peng, YG; Ramsdell, JS, 1997
)
0.3
" Using a variation of this approach, and measuring the acute and delayed toxic effects of kainate (KA) in terms of lactate dehydrogenase release, we have shown that guanine nucleotides behave as effective neuroprotecting agents."( Guanine nucleotides protect against kainate toxicity in an ex vivo chick retinal preparation.
Barat, A; Burgos, JS; Ramírez, G; Souza, DO, 1998
)
0.3
" Kainate (60% maximal cell death at 1mM) was markedly more toxic than NMDA (40% maximal cell death at 1mM) and was shown to be the predominant cause of excitatory amino acid-induced toxicity in these cells as the neuronal death induced by KA was attenuated by the non-NMDA antagonist CNQX, but not the AMPA antagonist LY293558."( Investigations of non-NMDA receptor-induced toxicity in serum-free antioxidant-rich primary cultures of murine cerebellar granule cells.
Beart, PM; Carroll, FY; Cheung, NS, 1998
)
0.3
" The present study was designed to determine which of the compounds released at the lesion would be toxic for tanycytes."( Differential sensitivity of cultured tanycytes and astrocytes to hydrogen peroxide toxicity.
Alonso, G; Prieto, M, 1999
)
0.3
" A four step quantitative risk estimation approach was used: (1) determination of a dose-response model; (2) determination of the distribution of measurements (variability) about the model; (3) determination of an adverse or abnormal level with the use of the control data; and (4) estimation of the probability that a measure is beyond the abnormal level as a function of dose."( Biologically-based dose-response model for neurotoxicity risk assessment.
Gaylor, DW; Scallet, AC; Slikker, W, 1998
)
0.3
" In contrast, neither QA up to 5 mM nor trans-ACPD had a significant toxic effect in either KCl group."( NMDA and non-NMDA receptor-mediated excitotoxicity are potentiated in cultured striatal neurons by prior chronic depolarization.
Chen, Q; Reiner, A; Surmeier, DJ, 1999
)
0.3
" In particular, murine amacrine neurons have been known to show marked susceptibility to the toxic effects of kainate."( Involvement of NMDA-receptor in kainate-induced neurotoxicity in cultured fetal retinal neurons.
Akaike, A; Honda, Y; Kashii, S; Sasa, M; Tamura, Y; Ujihara, H; Yasuyoshi, H; Zhang, S, 2000
)
0.31
" The KA-induced toxic behavioral signs, oxidative stress (lipid peroxidation and protein oxidation), impairment of GSH status, and the loss of hippocampal neurons were dose-dependently attenuated by the phenidone, NS-398+esculetin, and ASP+esculetin."( Phenidone prevents kainate-induced neurotoxicity via antioxidant mechanisms.
Bing, G; Jhoo, WK; Kim, HC; Kim, WK; Ko, KH; Shin, EJ; Wie, MB, 2000
)
0.31
" The toxic effect of kainate may be associated with calcium influx, because toxicity was reduced by polyamines that suppress calcium influx and by an inhibitor of calcium phosphatase."( A non-excitatory paradigm of glutamate toxicity.
Shen, W; Slaughter, MM, 2002
)
0.31
" As GPx and GSH represent a major pathway in the cell for metabolizing hydrogen peroxide (H2O2), their depletion would be expected to allow H2O2 to accumulate to toxic levels."( Phenolic antioxidants attenuate hippocampal neuronal cell damage against kainic acid induced excitotoxicity.
Hemnani, T; Parihar, MS, 2003
)
0.55
" The aim of this study was, therefore, to determine whether intraocular injection of methamphetamine (MA) is toxic to the healthy adult rat retina and to analyse its effects on the compromised retina after an injection of the ionotropic glutamate receptor agonist, kainate, which is known to cause retinal neuropathology."( Methamphetamine exacerbates the toxic effect of kainic acid in the adult rat retina.
Osborne, NN; Rodrigues, LG; Schmidt, KG; Tavares, MA; Wood, JP, 2004
)
0.58
" We investigated how an electrophysiological parameter, the extracellularly-recorded compound action potential ("population spike", PS) could be used as a marker of in vitro neurotoxicity in the case of two well-known toxic compounds, kainic acid (KA) and trimethyltin (TMT)."( Changes in extracellular action potential detect kainic acid and trimethyltin toxicity in hippocampal slice preparations earlier than do MAP2 density measurements.
Balestrino, M; Melani, R; Noraberg, J; Rebaudo, R; Zimmer, J, 2005
)
0.77
" We show that leopard sharks possess the molecular target for DA but are resistant to doses of DA known to be toxic to other vertebrates."( Absence of neurotoxic effects in leopard sharks, Triakis semifasciata, following domoic acid exposure.
Casper, DR; Davis, CR; Reeves, C; Schaffer, P, 2006
)
0.33
"2 we found that acidosis promotes increased toxic [Zn(2+)](i) levels as a result of a lethal combination of both enhanced Zn(2+) influx through Zn(2+) permeable AMPA/kainate channels and impaired intracellular buffering of the cation."( Acidosis enhances toxicity induced by kainate and zinc exposure in aged cultured astrocytes.
Canzoniero, LM; Rockabrand, E; Sensi, SL,
)
0.13
" In order to evoke toxic effects, primary cultures were exposed to 150 munic acid (KA) for 24 h (hippocampus) or for 48 h (neocortex)."( Neuroprotective effects of MTEP, a selective mGluR5 antagonists and neuropeptide Y on the kainate-induced toxicity in primary neuronal cultures.
Domin, H; Kajta, M; Smiałowska, M,
)
0.13
"Seafood in many parts of the world may become contaminated with high levels of domoic acid and domoic acid isomers, and such seafood has been shown to cause toxic effects in humans and in marine animals."( Comparative toxicity to mice of domoic acid and isodomoic acids A, B and C.
Holland, PT; McNabb, P; Munday, R; Rhodes, LL; Selwood, AI, 2008
)
0.35
" The increased activities of AS and AL suggest the increased and effective recycling of citrulline to arginine in excitotoxicity, making NO production more effective and contributing to its toxic effects."( Nitric oxide (NO), citrulline-NO cycle enzymes, glutamine synthetase, and oxidative status in kainic acid-mediated excitotoxicity in rat brain.
Chandran, G; Sirajudeen, KN; Swamy, M, 2009
)
0.57
" The increased cholesterol might predispose to increased formation of cholesterol oxidation products which have been shown to be toxic to neurons."( Changes in cholesterol biosynthetic and transport pathways after excitotoxicity.
Farooqui, AA; Jenner, AM; Jittiwat, J; Kim, JH; Ong, WY, 2010
)
0.36
"In addition to supporting rapid nerve conduction, myelination nurtures and stabilizes axons and protects them from acute toxic insults."( Myelin-associated glycoprotein protects neurons from excitotoxicity.
Ahmad, AS; Doré, S; Lopez, PH; Mehta, NR; Rowland, EA; Schnaar, RL; Toner, M; Zhang, J, 2011
)
0.37
"01 mM kept for 3h) is not toxic to cultured cerebellar granule neurons (CGNs) while kainate (0."( Stimulation of kainate toxicity by zinc in cultured cerebellar granule neurons and the role of mitochondria in this process.
Alieva, IB; Arbeille, B; Isaev, NK; Lozier, ER; Novikova, SV; Stelmashook, EV; Uzbekov, RE; Zorov, DB; Zorov, SD, 2012
)
0.38
" Our results suggest that the current ecosystem and human health impacts of toxic Pseudo-nitzschia blooms could be greatly exacerbated by future ocean acidification and 'carbon fertilization' of the coastal ocean."( High CO2 and silicate limitation synergistically increase the toxicity of Pseudo-nitzschia fraudulenta.
Fu, FX; Hutchins, DA; Tatters, AO, 2012
)
0.38
" DA preferentially accumulated in the kidney and elicited marked renal vascular and tubular damage consistent with acute tubular necrosis, apoptosis, and renal tubular cell desquamation, with toxic vacuolization and mitochondrial swelling as hallmarks of the cellular damage."( Characterization of renal toxicity in mice administered the marine biotoxin domoic Acid.
Bell, PD; Bissler, JJ; Dillon, JC; Funk, JA; Janech, MG; Siroky, BJ, 2014
)
0.4
"Cultured cerebellar granule neurons (CGNs) are resistant to the toxic effect of ZnCl2 (0."( Acidosis and 5-(N-ethyl-N-isopropyl)amiloride (EIPA) Attenuate Zinc/Kainate Toxicity in Cultured Cerebellar Granule Neurons.
Amelkina, GA; Genrikhs, EE; Isaev, NK; Ivashkin, EG; Khaspekov, LG; Novikova, SV; Stelmashook, EV, 2015
)
0.42
"In multiple sclerosis (MS), a candidate downstream mechanism for neuronal injury is glutamate (Glu)-induced excitotoxicity, leading to toxic increases in intraneuronal Ca(2+) ."( In vivo and in vitro effects of multiple sclerosis immunomodulatory therapeutics on glutamatergic excitotoxicity.
Birkenstock, J; Ellwardt, E; Gollan, R; Luchtman, D; Robohm, K; Siffrin, V; Zipp, F, 2016
)
0.43
"Excitotoxicity was originally postulated to be a late stage side effect of Alzheimer׳s disease (AD)-related neurodegeneration, however more recent studies indicate that it may occur early in AD and contribute to the neurodegenerative process."( Mechanisms of tau and Aβ-induced excitotoxicity.
Cook, A; DiMaio, J; Johnson, GVW; Nilsson, B; Pallo, SP, 2016
)
0.43
" Neither ceftriaxone nor TBOA alone had adverse effects."( Ceftriaxone-mediated upregulation of the glutamate transporter GLT-1 contrasts neurotoxicity evoked by kainate in rat organotypic spinal cord cultures.
Bajrektarevic, D; Nistri, A, 2017
)
0.46
" In this study, we examined the effects of the toxic gliadin peptide 31-43 in in vivo and in vitro models of kainate-induced-epilepsy."( The gliadin peptide 31-43 exacerbates kainate neurotoxicity in epilepsy models.
Calabrò, A; Gerace, E; Landucci, E; Mannaioni, G; Masi, A; Pellegrini-Giampietro, DE; Renzi, D; Resta, F, 2017
)
0.46
" Murine hippocampal cells were exposed to toxic doses of KA (200μM) for 6hours (H) or 24H to induce excitotoxicity."( HEK-293 secretome attenuates kainic acid neurotoxicity through insulin like growth factor-phosphatidylinositol-3-kinases pathway and by temporal regulation of antioxidant defense machineries.
Dhanushkodi, A; Pinnelli, VB; Prasad, YSHC; Shobha, K; Venugopal, C, 2018
)
0.77
" Behavioral changes are the most significant adverse effects reported by patients taking LEV."( Favorable adverse effect profile of brivaracetam vs levetiracetam in a preclinical model.
Aboulamer, S; Bosoi, CM; Carmant, L; Desgent, S; Gagné, J; Messiet, E; Sanon, NT; Simard, A; Wolf, DC, 2018
)
0.48
"The Benguela upwelling system, considered the world's most productive marine ecosystem, has a long record of potentially toxic diatoms belonging to the genus Pseudo-nitzschia."( Morphology and toxicity of Pseudo-nitzschia species in the northern Benguela Upwelling System.
Doucette, GJ; Louw, DC; Lundholm, N, 2018
)
0.48
"KA disrupted the retinal cytoarchitecture and induced significant cell loss in several retinal layers, but the coaddition of GH effectively prevented these adverse effects."( Growth Hormone Neuroprotection Against Kainate Excitotoxicity in the Retina is Mediated by Notch/PTEN/Akt Signaling.
Arámburo, C; Ávila-Mendoza, J; Balderas-Márquez, JE; Carranza, M; Epardo, D; Fleming, T; Harvey, S; Luna, M; Martínez-Moreno, CG, 2019
)
0.51
" These results consolidate the concept that selective inhibition of solTNF/TNFR1 with maintenance of TNFR2 function would have combined anti-inflammatory and neuroprotective properties required for safe treatment of CNS diseases."( Fundamentally different roles of neuronal TNF receptors in CNS pathology: TNFR1 and IKKβ promote microglial responses and tissue injury in demyelination while TNFR2 protects against excitotoxicity in mice.
Boutou, A; Denis, MC; Fischer, R; Iliopoulou, L; Kambas, K; Karamita, M; Kollias, G; Kontermann, RE; Lassmann, H; Papazian, I; Probert, L; Tsoukala, E, 2021
)
0.62

Pharmacokinetics

ExcerptReferenceRelevance
"0 mg/kg body weight, the pharmacokinetic parameters Clt, Clr, elimination-rate constant and apparent volume of distribution at steady state were not statistically different between doses."( Renal clearance of domoic acid in the rat.
Hierlihy, SL; Suzuki, CA, 1993
)
0.29
"The purpose of the present study was to evaluate the effect of kainic acid (KA)-induced acute seizures on the pharmacokinetic profiles of antiepileptic drug, carbamazepine (CBZ) in mice."( Evaluation of carbamazepine pharmacokinetic profiles in mice with kainic acid-induced acute seizures.
Honda, N; Nishimura, A; Shibata, N; Sugioka, N; Takada, K, 2008
)
0.82

Compound-Compound Interactions

This study evaluated the protective effects of CDDP alone and in combination with carbamazepine (CBZ) on kainic acid-induced TLE and cognitive impairment in rats.

ExcerptReferenceRelevance
"This study evaluated the protective effects of CDDP alone and in combination with carbamazepine (CBZ) on kainic acid-induced TLE and cognitive impairment in rats."( Protective effect of compound Danshen (Salvia miltiorrhiza) dripping pills alone and in combination with carbamazepine on kainic acid-induced temporal lobe epilepsy and cognitive impairment in rats.
Cao, B; Chen, M; Dang, X; Han, S; Jia, C; Jiao, H; Liu, Y; Niu, Q; Wei, L, 2018
)
0.9
"CDDP combined with CBZ significantly decreased seizure severity and frequency (p < 0."( Protective effect of compound Danshen (Salvia miltiorrhiza) dripping pills alone and in combination with carbamazepine on kainic acid-induced temporal lobe epilepsy and cognitive impairment in rats.
Cao, B; Chen, M; Dang, X; Han, S; Jia, C; Jiao, H; Liu, Y; Niu, Q; Wei, L, 2018
)
0.69
" This study is aimed to evaluate the ability of DDS, alone or in combination with DZP starting their administration once the SE is onset to evaluate the control of seizures in rats."( Efficacy of dapsone administered alone or in combination with diazepam to inhibit status epilepticus in rats.
Baron-Flores, V; Caballero-Chacón, S; Díaz-Ruiz, A; Farfán-Briseño, AC; Franco-Pérez, J; Manjarrez-Marmolejo, J; Méndez-Armenta, M; Nava-Ruiz, C; Ríos, C; Ruiz-Diaz, A, 2019
)
0.51
"This study investigates the neuronal protective effect of SXC combined with carbamazepine (CBZ) on epilepsy and cognitive impairment in kainic acid-kindled SD rats."( Neuronal protective effect of Songling Xuemaikang capsules alone and in combination with carbamazepine on epilepsy in kainic acid-kindled rats.
Chen, M; Jia, C; Jiao, H; Wei, L; Yang, H; Yin, W; Zhang, R, 2019
)
0.93
" Compared to vehicle controls, the most effective drug combination consisted of low doses of levetiracetam, atorvastatin and ceftriaxone, which markedly reduced the incidence of electrographic seizures (by 60%; p<0."( Systematic evaluation of rationally chosen multitargeted drug combinations: a combination of low doses of levetiracetam, atorvastatin and ceftriaxone exerts antiepileptogenic effects in a mouse model of acquired epilepsy.
Bergin, DH; Johne, M; Klein, P; Löscher, W; Schidlitzki, A; Twele, F; Welzel, L, 2021
)
0.62

Bioavailability

ExcerptReferenceRelevance
" Although it has to be mentioned that the conclusion which can be drawn is limited, the bioavailability of the compounds could be different as well."( Glutamate agonists activate the hypothalamic-pituitary-adrenal axis through hypothalamic paraventricular nucleus but not through vasopressinerg neurons.
Makara, GB; Mergl, Z; Zelena, D, 2005
)
0.33
" Together, these data support the idea that the synthesis of estrogen can be rapidly regulated in the brain, thus producing rapid changes in local estrogen bioavailability that could rapidly modify brain function with a time course similar to what has previously been described for neurotransmitters and neuromodulators."( Rapid control of brain aromatase activity by glutamatergic inputs.
Baillien, M; Ball, GF; Balthazart, J, 2006
)
0.33
" Studies have shown that concomitant use of a COMT inhibitor is highly beneficial in controlling the wearing-off phenomenon by improving L-DOPA bioavailability as well as brain entry."( Dual beneficial effects of (-)-epigallocatechin-3-gallate on levodopa methylation and hippocampal neurodegeneration: in vitro and in vivo studies.
Bishop, SC; Fukui, M; Kang, KS; Wen, Y; Yamabe, N; Zhu, BT, 2010
)
0.36
" Hence, our data support that the synthetic 4'-dimethylamino-7,8-dihydroxyflavone and its lead both are orally bioavailable TrkB agonists and possess potent antidepressant effects."( A synthetic 7,8-dihydroxyflavone derivative promotes neurogenesis and exhibits potent antidepressant effect.
Chan, CB; France, S; He, K; Huang, J; Jang, SW; Jia, Y; Liu, X; Luo, HR; Phun, LH; Pradoldej, S; Xiao, G; Ye, K, 2010
)
0.36
" The stronger in vivo effect of (+)-catechin on L-DOPA methylation compared to the other dietary compounds is due to its better bioavailability in vivo."( Beneficial effects of natural phenolics on levodopa methylation and oxidative neurodegeneration.
Fukui, M; Kang, KS; Wen, Y; Yamabe, N; Zhu, BT, 2013
)
0.39
" We further show that kainic-acid treatment activates Notch signaling, which increases the bioavailability of CyclinD1 through Akt/GSK3β pathway, leading to aberrant CCR via activation of CyclinD1-Rb-E2F1 axis."( Notch signaling in response to excitotoxicity induces neurodegeneration via erroneous cell cycle reentry.
Alberi, L; Brai, E; Kaczarowski, M; Liu, S; Marathe, S, 2015
)
0.42
" In conclusion, curcumin might be beneficial in patients with epilepsy disorders, if its bioavailability issues are resolved."( Curcumin in epilepsy disorders.
Dhir, A, 2018
)
0.48
"The ATP-binding cassette transporter P-glycoprotein (P-gp) is known to limit both brain penetration and oral bioavailability of many chemotherapy drugs."( A High-Throughput Screen of a Library of Therapeutics Identifies Cytotoxic Substrates of P-glycoprotein.
Ambudkar, SV; Brimacombe, KR; Chen, L; Gottesman, MM; Guha, R; Hall, MD; Klumpp-Thomas, C; Lee, OW; Lee, TD; Lusvarghi, S; Robey, RW; Shen, M; Tebase, BG, 2019
)
0.51

Dosage Studied

The slopes of the dose-response curves for these kainic acid analogues differed from that of L-glutamate. The effect of kynurenic acid could be blocked by a nonconvulsive dosage of kaini acid.

ExcerptRelevanceReference
" AMOA (150 microM) produced a nearly parallel shift to the right of the dose-response curve for kainate-induced currents."( Stereoselective effects of AMOA on non-NMDA receptors expressed in Xenopus oocytes.
Hansen, JJ; Krogsgaard-Larsen, P; Miledi, R; Nielsen, B; Schousboe, A; Wahl, P, 1992
)
0.28
"A morphometric study of kainic acid- (KA) induced lesions was designed for the study of the interaction of the diamines U-5449A and U-50488H with excitatory amino acids, and the dose-response relationship thereof."( Antagonism of kainic acid lesions in the mouse hippocampus by U-54494A and U-50488H.
Aaron, CS; Camacho Ochoa, M; Jackson, TA; Lahti, RA; Strain, GM; Von Voigtlander, PF, 1992
)
0.95
" Dose-response studies using kainate indicated that at least two agonist molecules bind to gate the channel."( The kinetics of the response to glutamate and kainate in neurons of the avian cochlear nucleus.
Raman, IM; Trussell, LO, 1992
)
0.28
" Dose-response measurements revealed a rank order of sensitivity to the Glu analogues in the presence of 1 microM glycine and zero extracellular Mg2+; QA greater than AMPA greater than NMDA greater than KA."( Excitatory amino acid receptors on isolated retinal ganglion cells from the goldfish.
Fain, GL; Yazejian, B, 1992
)
0.28
" The dose-response relationships of the mutant receptors were studied after expression in Xenopus oocytes by injection of the mutant alpha 1 subunit-specific mRNA together with the wild-type alpha 2-subunit-specific mRNA."( Mutations in a putative agonist binding region of the AMPA-selective glutamate receptor channel.
Mishina, M; Nagahari, K; Sakimura, K; Uchino, S, 1992
)
0.28
" The reduction in food and water intake was fatal after a higher dosage of the drug."( Fetal brain transplantation in kainic acid lesioned caudate nucleus of adult rats.
Gopinath, G; Kumar, VM; Shetty, AK; Tandon, PN; Verma, S,
)
0.42
" An enhancing dose of La3+ shifted the dose-response curve for kainate to lower concentrations of agonist without changing the maximum evoked current, and a similar leftward shift of the quisqualate dose-response curve occurred at non-saturating concentrations of quisqualate."( Lanthanum actions on excitatory amino acid-gated currents and voltage-gated calcium currents in rat dorsal horn neurons.
MacDermott, AB; Reichling, DB, 1991
)
0.28
" An apparatus was constructed to allow agonist dose-response curves to be determined at high pressures using voltage-clamped oocytes."( Effects of general anesthetics and pressure on mammalian excitatory receptors expressed in Xenopus oocytes.
Daniels, S; Inman, N; Price, DJ; Shelton, CJ; Smith, EB; Zhao, DM, 1991
)
0.28
" 200 microM guanosine triphosphate (GTP) produced a decrease of 50% in L-[3H]glutamate binding activity and competition experiments produced an affinity shift to the right of the glutamate dose-response curve."( Characterization of L-[3H]glutamate binding sites in bovine brain coated vesicles.
Cubero, A; González-Calero, G; Martín, M, 1991
)
0.28
" In the presence of 10 microM KA, the dose-response curve of QU became biphasic, whereas with 50 microM KA, a reduction of the response was seen around 1-100 microM QU."( Interactions of glutamate receptor agonists coupled to changes in intracellular Ca2+ in rat cerebellar granule cells in primary culture.
Akerman, KE; Holopainen, I; Louve, M, 1991
)
0.28
" Injection of oocytes with both the mRNAs produces current responses larger than those induced by the GluR1-specific mRNA and the dose-response relations indicate a positively cooperative interaction between the two subunits."( Functional expression from cloned cDNAs of glutamate receptor species responsive to kainate and quisqualate.
Araki, K; Bujo, H; Kushiya, E; Meguro, H; Mishina, M; Numa, S; Sakimura, K; Warashina, A; Yamazaki, M, 1990
)
0.28
" Dose-response relationships for L-kainate were similar to those obtained with oocyte superfusion, but the L-kainate-induced currents exhibited desensitization."( Concentration jump studies of intracellularly dialysed Xenopus oocytes show desensitization of kainate receptors.
Arvanov, VL; Usherwood, PN, 1991
)
0.28
" Analyses of dose-response curves of these inward currents indicate that both the QA and KA currents were competitively blocked by 6-cyano-7-nitroquinoxaline-2,3-dione (CNQX), while the NMDA current was blocked non-competitively."( Glutamate receptor agonist-induced inward currents in spinal dorsal horn neurons dissociated from the adult rats.
Arancio, O; MacDermott, AB; Murase, K; Yoshimura, M, 1991
)
0.28
"To study the hypothesis that neural transplantations can alter seizure susceptibility in a chronic animal model of epilepsy 260 immature rats (30- to 32-days-old) were administered a convulsant dosage of kainic acid (KA)."( Effect of neural transplants on seizure frequency and kindling in immature rats following kainic acid.
Carl, GF; Holmes, C; Holmes, GL; Huh, K; Thompson, JL, 1991
)
0.69
", allowing for better dosage control."( 4-(Tetrazolylalkyl)piperidine-2-carboxylic acids. Potent and selective N-methyl-D-aspartic acid receptor antagonists with a short duration of action.
Arnold, MB; Elzey, T; Leander, JD; Lodge, D; Ornstein, PL; Paschal, JW; Schoepp, DD, 1991
)
0.28
" Animals in the high dosage group acquired the response at rates superior to controls; the low dosage group performed at an intermediate level."( Partial hippocampal pyramidal cell loss alters behavior in rats: implications for an animal model of schizophrenia.
Port, RL; Sample, JA; Seybold, KS, 1991
)
0.28
" Dose-response curves of motoneurons to L-glutamate, NMDA, and kainate demonstrated that motoneurons are sensitive to these agonists prior to the formation of synapses between afferents and motoneurons."( NMDA receptors mediate poly- and monosynaptic potentials in motoneurons of rat embryos.
Ziskind-Conhaim, L, 1990
)
0.28
" Ethanol shifted the N-methyl-D-aspartate (NMDA) dose-response curves to the right in a non-parallel manner."( Ethanol inhibition of NMDA mediated depolarizations is increased in the presence of Mg2+.
Bian, XP; Martin, D; Morrisett, RA; Swartzwelder, HS; Wilson, WA, 1991
)
0.28
"25 and 200 mumol/kg as revealed by the dose-response curves obtained in both experiments."( NMDA antagonist properties of gamma-L-glutamyl-L-aspartate demonstrated on chemically induced seizures in mice.
De Barry, J; Mathis, C; Ungerer, A, 1990
)
0.28
" Dose-response curves were well fit by the logistic equation, or by a model with 2 independent agonist binding sites."( Structure-activity relationships for amino acid transmitter candidates acting at N-methyl-D-aspartate and quisqualate receptors.
Mayer, ML; Patneau, DK, 1990
)
0.28
" The antagonist properties of 6-cyano-2,3-dihydroxy-7-nitroquinoxaline, kynurenate, and gamma-D-glutamylglycine were competitive in nature, inducing parallel rightward shifts of the KA dose-response curves."( Kainate receptors coupled to the evoked release of [3H]-gamma-aminobutyric acid from striatal neurons in primary culture: potentiation by lithium ions.
Bauce, L; Kemp, DE; Tse, FW; Weiss, S, 1990
)
0.28
" fascicularis) were dosed intraperitoneally (4 mg/kg) or intravenously (0."( Acute parenteral neurotoxicity of domoic acid in cynomolgus monkeys (M. fascicularis)
Iverson, F; Truelove, J; Tryphonas, L, 1990
)
0.28
" The onset of scratching behaviour and time of death in mice were inversely related to the dosage of domoic acid."( Relationship between domoic acid levels in the blue mussel (Mytilus edulis) and toxicity in mice.
Amend, JF; Brown, J; Grimmelt, B; Johnson, GR; Macnair, N; Nijjar, MS; Wagner, S, 1990
)
0.28
" Although the dose-response curve is hyperbolic with an ED50 of 78 microM, glutamate apparently activates 2 types of receptors on motoneurons."( Characterization of excitatory amino acid receptors expressed by embryonic chick motoneurons in vitro.
Fischbach, GD; O'Brien, RJ, 1986
)
0.27
" KA-activated currents (I(KA)) differ from QA-activated currents (I(QA)) in their dose-response characteristics, desensitization patterns, selective blockade with kynurenic acid and suppression by elevated [Ca2+]o, I(KA), but not I(QA), is significantly reduced by low levels of [Cl-]o, and the [Cl-]o-dependent shift of the reversal potential for I(KA) suggests that KA promotes a conductance decrease for Cl-."( Separation of quisqualate- and kainate-selective glutamate receptors in cultured neurons from the rat superior colliculus.
Grantyn, R; Perouansky, M, 1989
)
0.28
" In the present study we examined dose-response effects of excitotoxins acting at the three subtypes of glutamate receptors: N-methyl-D-aspartate (AA1), quisqualate (AA2), and kainic acid (AA3)."( Differential sparing of somatostatin-neuropeptide Y and cholinergic neurons following striatal excitotoxin lesions.
Beal, MF; Ferrante, RJ; Kowall, NW; Martin, JB; Swartz, KJ, 1989
)
0.47
" At a concentration of 10 microM, CNQX reversibly antagonized responses to alpha-amino-3-hydroxy-5-methyl-4-isoxazolepropionic acid (AMPA), quisqualate and kainate; it produced a parallel shift in their log dose-response curves."( 6-Cyano-7-nitroquinoxaline-2,3-dione as an excitatory amino acid antagonist in area CA1 of rat hippocampus.
Blake, JF; Brown, MW; Collingridge, GL; Yates, RG, 1989
)
0.28
" The NMDA receptor antagonists D(-)-2-amino-5-phosphonovalerate (D-AP5), phencyclidine and Mg2+ shifted the NMDA dose-response curve to the right in a parallel manner."( A grease-gap method for studying the excitatory amino acid pharmacology of CA1 hippocampal pyramidal cells.
Bowe, MA; Martin, D; Nadler, JV, 1989
)
0.28
" A quantitative evaluation of the cell loss with the 5 nM dosage showed that 34% of spiral ganglion neurons were lost 10 days after treatment."( The effects of kainic acid on the cochlear ganglion of the rat.
Juiz, JM; Merchán, JA; Rueda, J; Sala, ML, 1989
)
0.63
" In this preparation, all these antagonists shifted the NMDA dose-response curve to the right in a parallel manner."( Quantitative studies on some antagonists of N-methyl D-aspartate in slices of rat cerebral cortex.
Harrison, NL; Simmonds, MA, 1985
)
0.27
" The implications of these results are that, in slices, cellular uptake is responsible for (i) the dose-response curves to L-glutamate, L- and D-aspartate bearing little or no relationship to the true (or relative) potencies of these amino acids; (ii) the potency of APV towards the actions of transported agonists acting at NMDA receptors being reduced and (iii) a differential sensitivity to APV of responses to L-glutamate and L-aspartate being created, the consequence being that a potent action of L-glutamate on NMDA receptors is disguised."( Cellular uptake disguises action of L-glutamate on N-methyl-D-aspartate receptors. With an appendix: diffusion of transported amino acids into brain slices.
Garthwaite, J, 1985
)
0.27
" This dose-response curve of L-Glu was shifted to the left in the presence of D-Asp, although the maximal amount of release was unchanged."( Effects of D-aspartate on excitatory amino acid-induced release of [3H]GABA from goldfish retina.
Cha, JH; Dowling, JE; O'Brien, DR, 1986
)
0.27
" We found that excitatory amino acid agonists evoked somatostatin release in the following order of potency: quisqualate greater than glutamate = N-methyl-D-aspartate (NMDA) greater than kainate, as calculated from the dose-response curves."( Glutamate stimulates somatostatin release from diencephalic neurons in primary culture.
Astier, H; Tapia-Arancibia, L, 1988
)
0.27
" The dose-response relationship of EAA (N-methyl-D-aspartate (NMDA), kainate, quisqualate and glutamate)-induced activation revealed qualitative and quantitative differences in their pattern of action, suggesting that these agonists act at distinct receptors."( Behavioral classification of excitatory amino acid receptors in mouse spinal cord.
Raigorodsky, G; Urca, G, 1988
)
0.27
" Dose-response analysis reveals that the AA-gated cation conductance activated by kainate requires the binding of two agonist molecules."( Properties of two classes of rat brain acidic amino acid receptors induced by distinct mRNA populations in Xenopus oocytes.
Davidson, N; Fong, TM; Lester, HA, 1988
)
0.27
" Dose-response curves and IC50 values were determined for these antagonists against all four agonists."( The action of quinolinate in the rat spinal cord in vitro.
Curry, K; Magnuson, DS; McLennan, H; Peet, MJ, 1987
)
0.27
" At six weeks, there is a significant dose-response relation (ANOVA, F(2,18) = 25."( Kainic acid induced damage to the striatum increases DT diaphorase activity.
Cohen, MR; Ramchand, CN; Sridhara, N, 1987
)
1.72
" At the dosage used, the KA produced a 52% decline in the cell density of the inner nuclear layer (INL), a 37% decline in the retinal ganglion cell layer (RGC), and no significant change in the density of cells in the outer nuclear layer (ONL)."( Cell-specific regulation of neuronal production in the larval frog retina.
Reh, TA, 1987
)
0.27
" A dose-response relationship existed: the duration of the EEG with pathological patterns increased whereas the latency of their appearance decreased with increase of the dose of kainic acid."( Intraraphedorsal kainic acid induces paroxysmal electroencephalographic changes in some brain structures of cats.
Dimov, S; Ivanova, A; Moyanova, S; Rousseva, S, 1986
)
0.8
" The non-parallel shift of the NMDA dose-response curve suggests that ketamine is not acting as a competitive antagonist of NMDA."( Effect of ketamine on amino acid-evoked release of acetylcholine from rat cerebral cortex in vitro.
Johnston, GA; Lodge, D, 1985
)
0.27
" However, the slope of the dose-response curves was very steep."( Kainic acid-induced seizures: dose-relationship of behavioural, neurochemical and histopathological changes.
Baran, H; Hornykiewicz, O; Lassmann, H; Seitelberger, F; Sperk, G, 1985
)
1.71
" However, large differences were found when comparing apomorphine and pergolide dose-response curves as well as the patterns of rotational behaviour the compounds elicited."( Evidence that apomorphine and pergolide induce rotation in rats by different actions on D1 and D2 receptor sites.
Herrera-Marschitz, M; Ungerstedt, U, 1984
)
0.27
" The slopes of the dose-response curves for these kainic acid analogues differed from that of L-glutamate."( The excitatory actions of kainic acid and some derivatives at the crab neuromuscular junction.
King, AE; Wheal, HV, 1984
)
0.82
" Glutamate sensitivity was measured from the slope of the dose-response curves obtained by ionophoretic application of L-glutamate and expressed as mV/nC."( Distribution and pharmacological properties of synaptic and extrasynaptic glutamate receptors on crayfish muscle.
Onodera, K; Takeuchi, A, 1980
)
0.26
"It was proposed that apomorphine and the ergot derivative pergolide induce rotation in 6-hydroxy-dopamine (6-OHDA)-denervated rats by different receptor mechanisms, since these dopamine agonists induce different patterns of rotational behaviour, have different dose-response curves and are differently inhibited by neuroleptics acting on D1 or D2 type receptors."( Evidence that striatal efferents relate to different dopamine receptors.
Herrera-Marschitz, M; Ungerstedt, U, 1984
)
0.27
"Developmental dose-response curves for kainic-acid-induced seizures were generated in rats."( Kainic-acid-induced seizures: a developmental study.
Albala, BJ; Moshé, SL; Okada, R, 1984
)
0.27
" No significant changes in dose-response curves were observed at either loci."( Effects of kainic acid lesions of the striatum on self-stimulation in the substantia nigra and ventral tegmental area.
Fibiger, HC; LePiane, FG; Phillips, AG, 1982
)
0.65
"5 nmol) suggested a very steep dose-response relationship in the action of KA."( Kainic acid: an evaluation of its action on cochlear potentials.
Bledsoe, SC; Bobbin, RP; Chihal, DM, 1981
)
1.71
" The dose-response curves established at 50 bar, 100 bar and 150 bar were shifted progressively to the right, with no effect on the maximal current."( The effect of high pressure on glycine- and kainate-sensitive receptor channels expressed in Xenopus oocytes.
Daniels, S; Doyle, MG; Price, DJ; Shelton, CJ; Smith, EB, 1993
)
0.29
" The effect of kynurenic acid could be blocked by a nonconvulsive dosage of kainic acid."( The WAG/Rij rat model for nonconvulsive absence epilepsy: involvement of nonNMDA receptors.
Coenen, AM; Peeters, BW; Ramakers, GM; Vossen, JM, 1994
)
0.52
" After block of desensitization by concanavalin-A, dose-response analysis for activation of kainate-preferring receptors in DRG neurons gave the potency sequence trifluoromethyl > iodo > bromo approximately chloro > nitro approximately cyano > kainate > methyl > fluoro > (R,S)-AMPA >> willardiine; EC50 values for the most and least potent willardiine derivatives, 5-trifluoromethyl (70 nM) and 5-fluoro (69 microM), differed 1000-fold."( Willardiines differentiate agonist binding sites for kainate- versus AMPA-preferring glutamate receptors in DRG and hippocampal neurons.
Jane, DE; Mayer, ML; Watkins, JC; Wong, LA, 1994
)
0.29
" Dose-response curves for KA in oocytes injected with calf (EC50 = 96."( Species-dependent functional properties of non-NMDA receptors expressed in Xenopus laevis oocytes injected with mammalian and avian brain mRNA.
Bowie, D; Smart, TG, 1994
)
0.29
" The dose-response curve of PS action showed significant potentiation above 250 nM and a half-maximal effect at approximately 29 microM."( Pregnenolone sulfate potentiation of N-methyl-D-aspartate receptor channels in hippocampal neurons.
Bowlby, MR, 1993
)
0.29
" Cyclothiazide increased the maximum response to a saturating concentration of kainate by approximately 300% and produced a shift to the left in the kainate dose-response curve."( Hippocampal neurons exhibit cyclothiazide-sensitive rapidly desensitizing responses to kainate.
Mayer, ML; Patneau, DK; Vyklicky, L, 1993
)
0.29
" Morphine, pethidine and fentanyl, which showed a biphasic dose-response relationship with respect to seizure modulation, abolished the anticonvulsant activity of propofol to exhibit their own intrinsic activity in proconvulsant doses."( Interactions between opioid drugs and propofol in laboratory models of seizures.
Ahmad, I; Pleuvry, BJ, 1995
)
0.29
"This study reports comparative dose-response data for kainic acid (KA) induced seizures in juvenile (35-40 days old) and adult (70-90 days old) Wistar-Furth (WF), Fisher 344 (F344), Sprague-Dawley (SD) and Long-Evans Hooded (LEH) rats."( Rat strain and age differences in kainic acid induced seizures.
Ferraro, TN; Golden, GT; Reyes, PF; Smith, GG, 1995
)
0.82
" Dose-response curves showed that DCG-IV was weaker than NMDA but more potent than glutamate in eliciting agonist-gated currents."( Metabotropic glutamate receptor agonist DCG-IV as NMDA receptor agonist in immature rat hippocampal neurons.
Opitz, T; Pidoplichko, VI; Reymann, KG; Shinozaki, H; Wilsch, VW, 1994
)
0.29
" Bath-application of kainate, quisqualate and L-glutamate elicited concentration-dependent membrane depolarizations in both cell types as demonstrated by dose-response curves."( Effects of glutamatergic agonists and antagonists on membrane potential and intracellular Na+ activity of leech glial and nerve cells.
Dörner, R; Schlue, WR; Zens, M, 1994
)
0.29
" The actions of the hepoxilins showed a sharp dose-response relationship, with minimal threshold or no effect at 3 nM (n = 21) and maximal effects at 10 nM (n = 33)."( Formation and electrophysiological actions of the arachidonic acid metabolites, hepoxilins, at nanomolar concentrations in rat hippocampal slices.
Carlen, PL; Gurevich, N; Pace-Asciak, CR; Reynaud, D; Wu, PH; Zhang, L, 1994
)
0.29
" In the presence of 300 microM cyclothiazide a 6-fold leftward shift in the kainate dose-response curve for GluR-Aflip but not GluR-Aflop additionally contributes to a difference in potentiation for these splice variants."( Cyclothiazide differentially modulates desensitization of alpha-amino-3-hydroxy-5-methyl-4-isoxazolepropionic acid receptor splice variants.
Mayer, ML; Partin, KM; Patneau, DK, 1994
)
0.29
" Rats receiving phenobarbital had therapeutic concentrations during most of the 24-hour dosing period, but also experienced supratherapeutic peak concentrations."( Phenobarbital modifies seizure-related brain injury in the developing brain.
Chronopoulos, A; Gatt, A; Holmes, GL; Hyde, P; Liu, Z; Mikati, MA; Stafstrom, CE; Thurber, S; Werner, S, 1994
)
0.29
" We administered FBM (100 or 300 mg/kg) to 30-day-old rats 1 h after they received a convulsant dosage of kainic acid (KA)."( Neuroprotective effect of felbamate after kainic acid-induced status epilepticus.
Chronopoulos, A; Holmes, GL; Hyde, P; Mikati, M; Stafstrom, C; Thurber, S,
)
0.61
" A dose-response relationship was observed between kainate concentration and the amount of NSE released (r = -0."( Neuron-specific enolase as a marker of in vitro neuronal damage. Part I: Assessment of neuron-specific enolase as a quantitative and specific marker of neuronal damage.
Bonhomme, V; Collette, J; Hans, P; Moonen, G, 1993
)
0.29
" Analysis of the dose-response relation for whole cell NMDA-activated currents indicated that propofol caused no significant change in the apparent affinity of the receptor for NMDA."( Inhibition by propofol (2,6 di-isopropylphenol) of the N-methyl-D-aspartate subtype of glutamate receptor in cultured hippocampal neurones.
Bertlik, M; MacDonald, JF; Orser, BA; Wang, LY, 1995
)
0.29
" Agonist dose-response curves were generated in the presence and absence of various concentrations of ethanol."( Ethanol inhibition of AMPA and kainate receptor-mediated depolarizations of hippocampal area CA1.
Martin, D; Swartzwelder, HS; Tayyeb, MI, 1995
)
0.29
" Whereas the mechanism for this nicotine effect is currently not known, future experiments will look at dose-response relationships, the role of nicotine receptors, and possible neuroprotective potential of nicotine in this KA-induced syndrome."( Nicotine blocks kainic acid-induced wet dog shakes in rats.
Borlongan, CV; Sanberg, PR; Shytle, RD, 1995
)
0.64
" Dose-response curves show that the potentiation by 17 beta-estradiol was evident at a concentration as low as 10 nM and saturated at 10 microM."( 17 beta-Estradiol potentiates kainate-induced currents via activation of the cAMP cascade.
Gu, Q; Moss, RL, 1996
)
0.29
" Dose-response analysis for GluRCflop revealed that 100 microM PEPA produced a sevenfold increase in AMPA receptor affinity for glutamate."( A novel allosteric potentiator of AMPA receptors: 4--2-(phenylsulfonylamino)ethylthio--2,6-difluoro-phenoxyaceta mide.
Chiba, Y; Fleck, MW; Mayer, ML; Sekiguchi, M; Takeo, J; Wada, K; Yamashita, S, 1997
)
0.3
" After the 30-day dosing period, the treated monkeys were killed."( 30-day oral toxicity study of domoic acid in cynomolgus monkeys: lack of overt toxicity at doses approaching the acute toxic dose.
Fernie, S; Iverson, F; Martin, L; Mueller, R; Pulido, O; Truelove, J, 1997
)
0.3
" Evoked inhibitory postsynaptic currents (IPSCs) were decreased by kainate by up to 90%, showing a bell-shaped dose-response curve similar to that of native kainate-selective receptors."( Kainate receptors presynaptically downregulate GABAergic inhibition in the rat hippocampus.
Herreras, O; Lerma, J; Rodríguez-Moreno, A, 1997
)
0.3
" External H-7 shifted the dose-response curve of GABA-activated currents downward without changing the EC50 significantly (from 15."( Modulation of nicotinic ACh-, GABAA- and 5-HT3-receptor functions by external H-7, a protein kinase inhibitor, in rat sensory neurones.
Hu, HZ; Li, ZW, 1997
)
0.3
" YM90K induced a parallel and rightward shift of both kainate and AMPA dose-response curves."( The AMPA-receptor antagonist YM90K reduces AMPA receptor-mediated excitotoxicity in rat hippocampal cultures.
Ohno, K; Okada, M; Sakamoto, S; Tsutsumi, R; Yamaguchi, T, 1998
)
0.3
" Cyclothiazide produced a leftward shift of the kainate dose-response curve and enhanced the maximum response of kainate excitotoxicity."( Characterization of cyclothiazide-enhanced kainate excitotoxicity in rat hippocampal cultures.
Matsumoto, N; Ohno, K; Okada, M; Tsutsumi, R; Yamaguchi, T, 1998
)
0.3
" We therefore examined the kainate dose-response relationship and the time-course of specific histopathological changes in C57/BL mice, a commonly used founder strain for transgenic technology."( Neuronal stress and injury in C57/BL mice after systemic kainic acid administration.
Cole, AJ; Hu, RQ; Koh, S; Torgerson, T, 1998
)
0.55
" In dose-response curves, KA potentiated IGly without significantly changing glycine binding affinity."( Modulation of the glycine response by Ca2+-permeable AMPA receptors in rat spinal neurones.
Akaike, N; Jin, YH; Li, JS; Xu, TL, 1999
)
0.3
"0 mg/kg dosage of 3 alpha,5 alpha-THP."( Prenatal stress reduces the effectiveness of the neurosteroid 3 alpha,5 alpha-THP to block kainic-acid-induced seizures.
Bayon, LE; Frye, CA, 1999
)
0.3
" To calculate the dose-response curves we calibrated the relationship between the dye concentration and the photometer voltage output."( Measurement of concentration-response relationships by concentration-ramp application of agonists.
Schmandt, G; Schmidt, KF, 1999
)
0.3
" Analysis of kainic acid dose-response curves showed the existence of two types of functional agonist binding sites governing AMPAR activation."( Functional high- and low affinity agonist binding sites at native dorsal horn AMPA receptors.
Rybalchenko, V; Schlichter, R, 1999
)
0.67
" The dose-response curves indicated IGF-I was more potent than insulin, favoring the assignment of the former as the physiological protective agent."( Insulin-like growth factor I prevents the development of sensitivity to kainate neurotoxicity in cerebellar granule cells.
Baer, JD; Coyle, JT; Leski, ML; Valentine, SL, 2000
)
0.31
" Prolonged infusion of very small amounts of DCG-IV showed a bell-shaped dose-response relationship with regard to protection against kainate-induced neurotoxicity."( [Pharmacology of the glutamate receptor].
Shinozaki, H, 2000
)
0.31
" Dose-response curves (DRCs) for toxicity produced by domoic acid (DOM) were generated using animals on postnatal days (PND) 0, 5, 14, and 22, using a behavioural rating scale."( Comparative behavioural toxicity of domoic acid and kainic acid in neonatal rats.
Allen, GV; Doucette, TA; Ryan, CL; Strain, SM; Tasker, RA,
)
0.38
" Similarly, a dosage of KA that did not increase glial fibrillary acidic protein in lean mice increased the hippocampal content of this protein (93%) in ob/ob mice."( Obesity exacerbates chemically induced neurodegeneration.
Benkovic, SA; Miller, DB; O'Callaghan, JP; Sriram, K, 2002
)
0.31
" Dose-response studies indicated a 60-fold activation of AP-1 transcription factor in cells treated with 100 ng/ml of the peptide."( Neuroprotective effects of a new synthetic peptide, CMX-9236, in in vitro and in vivo models of cerebral ischemia.
Adams, DS; Boyer-Boiteau, A; Cornell-Bell, A; Fisher, M; Li, F; Shashoua, VE, 2003
)
0.32
" Glutamate depressed the GABA dose-response curve without shifting the curve laterally or altering the voltage dependence of the current."( Glutamate modulation of GABA transport in retinal horizontal cells of the skate.
Andersen, KA; Kreitzer, MA; Malchow, RP, 2003
)
0.32
" We show that at therapeutic dosage (or at micromolar range), flavopiridol almost completely prevents colchicine-induced apoptosis in cerebellar granule neurones."( Neuroprotective action of flavopiridol, a cyclin-dependent kinase inhibitor, in colchicine-induced apoptosis.
Bravo, R; Bruna, A; Caelles, C; Camarasa, J; Camins, A; Canudas, AM; Escubedo, E; Jiménez, A; Jorda, EG; Pallàs, M; Pubill, D; Verdaguer, E, 2003
)
0.32
" D-aspartate concentration-dependently shifted the dose-response curve of kainate to the right."( D-aspartate and NMDA, but not L-aspartate, block AMPA receptors in rat hippocampal neurons.
Bai, D; Frandsen, A; Gong, XQ; Lu, WY; Pickering, DS; Wan, Y; Zabek, RL, 2005
)
0.33
" All three agonists achieve micromolar concentrations measured in whole brain after dosing with 10 mg/kg SC."( Locomotor activity detects subunit-selective effects of agonists and decahydroisoquinoline antagonists at AMPA/kainic acid ionotropic glutamate receptors in adult rats.
O'neill, MF; Ornstein, PL; Osborne, DJ; Sanger, G; Woodhouse, SM, 2005
)
0.54
" Following recovery, the phencyclidine dose-response curve was repeated in the fixed-interval paradigm."( Effects of phencyclidine on schedule-controlled responding following neurotoxic lesions of the striatum.
Carlson, KM; Wagner, GC, 2005
)
0.33
" The dose-response curve for cocaine-induced convulsions was significantly shifted to the right in NET-KO mice, indicating higher seizure thresholds."( Genetic deletion of the norepinephrine transporter decreases vulnerability to seizures.
Kaminski, RM; Rocha, BA; Shippenberg, TS; Witkin, JM,
)
0.13
" Kinetic and dose-response analyses suggest that the effect of stargazin on glutamate desensitization results from an allosteric interaction that destabilizes the desensitized state of the receptor and that potentiation of kainate responses reflects increased efficacy rather than a change in affinity."( Stargazin modulates native AMPA receptor functional properties by two distinct mechanisms.
Garringer, E; Patneau, DK; Turetsky, D, 2005
)
0.33
" The latter group suffered approximately 30% mortality, which increased to approximately 75% at dosage of 30 mg/kg KA, compared with 10-14% for the other two genotypes at the latter dosage."( Enhanced susceptibility to kainate-induced seizures, neuronal apoptosis, and death in mice lacking gangliotetraose gangliosides: protection with LIGA 20, a membrane-permeant analog of GM1.
Ledeen, RW; Lu, ZH; Meyenhofer, MF; Wang, J; Wang, Y; Wu, G; Xie, X, 2005
)
0.33
" Adult animals were dosed with 35 mg/kg KA, while aged animals received a dose of 20 mg/kg in order to prevent excessive mortality."( Regional neuropathology following kainic acid intoxication in adult and aged C57BL/6J mice.
Benkovic, SA; Miller, DB; O'Callaghan, JP, 2006
)
0.61
" Therefore, safinamide may be used in PD to reduce l-dopa dosage and also represents a valuable therapeutic drug to test disease-modifying potential."( Safinamide: from molecular targets to a new anti-Parkinson drug.
Caccia, C; Calabresi, M; Curatolo, L; Faravelli, L; Fariello, RG; Maestroni, S; Maj, R; Salvati, P, 2006
)
0.33
" We used transgenic mice (mouse GFAP promoter-human GFAP cDNA with R239H mutation) in which the dosage of the GFAP transgene could be manipulated within the same genetic locus."( Murine model of Alexander disease: analysis of GFAP aggregate formation and its pathological significance.
Ikenaka, K; Itohara, S; Iwasato, T; Kato, H; Naruse, M; Ono, K; Takebayashi, H; Tanaka, KF; Yamazaki, Y, 2007
)
0.34
"The present study aimed at establishing the CD50 and CD99 doses along with complete dose-response profile of two convulsants, namely, kainic acid and pentylenetetrazole (PTZ), in mice and evaluating the modulatory role of the cerebroselective dihydropyridine calcium channel blocker nimodipine."( Evaluation of the modulatory role of nimodipine in seizures induced by kainic acid and pentylenetetrazole in mice.
Chakrabarti, A; Hota, D; Sahai, AK; Shitak, R,
)
0.57
"0001 to 10 microM, resulting in a nonlinear dose-response curve."( Immunomodulatory effects upon in vitro exposure of California sea lion and southern sea otter peripheral blood leukocytes to domoic acid.
De Guise, S; Draghi, A; Gulland, FM; Jessup, D; Joshi, D; Levin, M, 2010
)
0.36
" The results indicate that pretreatment with Parawixin 10 prevents the onset of seizures induced with kainic acid, N-methyl-D-aspartate, and pentylenetetrazole in a dose-response manner."( Neurobiological activity of Parawixin 10, a novel anticonvulsant compound isolated from Parawixia bistriata spider venom (Araneidae: Araneae).
Beleboni, RO; Coutinho-Netto, J; Cunha, AO; dos Santos, WF; Fachim, HA; Gobbo-Neto, L; Lopes, NP; Pereira, AC, 2011
)
0.58
"The study had evaluated the dose-response curves for nicotine and KA and for KA in nicotine-pretreated mice and for topiramate against KA-induced seizures."( Nicotine reversal of anticonvulsant action of topiramate in kainic acid-induced seizure model in mice.
Chakrabarti, A; Hota, D; Sahai, AK; Sood, N, 2011
)
0.61
" In a recent Sprague Dawley rat model, domoic acid dosing induced a state of status epilepticus which, after a symptom-free latent period without further dosing, progressed to recurrent spontaneous seizures, a hallmark of epilepsy."( Domoic acid induced status epilepticus promotes aggressive behavior in rats.
Fuquay, JM; Muha, N; Pennington, PL; Ramsdell, JS, 2012
)
0.38
" After KA administration, seizure scores and electroencephalography (EEG) recordings were inversely related to (R+)WIN 55,212 dosage whereby higher doses were associated with high seizures scores and synchronous epileptiform activity and low doses with low seizure scores and diminished spiking in the EEG."( Inverse relationship of cannabimimetic (R+)WIN 55, 212 on behavior and seizure threshold during the juvenile period.
Friedman, LK; Leheste, JR; Rafiuddin, A; Rudenko, V, 2012
)
0.38
" Rat pups were treated with daily injections of trans-resveratrol under three dosage regimens (1-15 mg/kg and 20-50mg/kg)."( Lack of resveratrol neuroprotection in developing rats treated with kainic acid.
Friedman, LK; Friedman, S; Goldstein, B; Rafiuddin, A; Roblejo, P, 2013
)
0.63
" Male Wistar rats were infused with Kainic acid (KA) intra-cisternally for 5 days at the dosage of 50 fmol/day and 150 fmol/day."( Effect of intra-cisternal application of kainic acid on the spinal cord and locomotor activity in rats.
Bala Krishnan, T; Goh, TE; Mitra, NK; Nadarajah, VD; Soga, T; Vasavaraj, AK, 2013
)
0.93
"Using depth electroencephalographical (EEG) recordings, we tested the dose-response effects of acute injection of nine AEDs on the occurrence of hippocampal paroxysmal discharges (HPDs) as well as on ictal and interictal power spectra in the MTLE mouse model."( Differential Effects of Antiepileptic Drugs on Focal Seizures in the Intrahippocampal Kainate Mouse Model of Mesial Temporal Lobe Epilepsy.
Bouyssières, C; Bressand, K; Chabrol, T; Depaulis, A; Duveau, V; Pouyatos, B; Roche, Y; Roucard, C, 2016
)
0.43
" Although there was no difference in kainate dosing or seizure count between them, the metabolic pattern of injury was different."( Metabolic injury in a variable rat model of post-status epilepticus.
de Lanerolle, N; Kelly, KM; Pan, JW; Pearce, PS; Rapuano, A; Wu, Y, 2016
)
0.43
"Nonadherence to prescribed dosing regimens is a significant problem in the treatment of pediatric and adult chronic epilepsy, and can result in severe consequences to patient outcomes."( The impact of nonadherence to antiseizure drugs on seizure outcomes in an animal model of epilepsy.
Glauser, TA; Modi, AC; Rausch, JR; Steve White, H; Thomson, KE, 2017
)
0.46
"In study 1, three different patterns of nonadherence were modeled in newly diagnosed epileptic rats treated with carbamazepine: perfect adherence (100% of pellets contained carbamazepine), variable nonadherence (50% of pellets contained carbamazepine with different dosing patterns between animals), and complete nonadherence (0% of pellets contained carbamazepine)."( The impact of nonadherence to antiseizure drugs on seizure outcomes in an animal model of epilepsy.
Glauser, TA; Modi, AC; Rausch, JR; Steve White, H; Thomson, KE, 2017
)
0.46
" Frequency questionnaires can capture accumulated doses over time and this data can be used to examine dose-response relationships with periodic studies of memory and learning."( Dietary assessment of domoic acid exposure: What can be learned from traditional methods and new applications for a technology assisted device.
Ahmad, Z; Boushey, CJ; Delp, EJ; Grattan, LM; Roberts, SM; Wang, Y, 2016
)
0.43
" CPD-4645 (10 mg/kg, subcutaneously) or vehicle was dosed 1 and 7 h after status epilepticus onset in video-electroencephalography (EEG) recorded mice."( Inhibition of monoacylglycerol lipase terminates diazepam-resistant status epilepticus in mice and its effects are potentiated by a ketogenic diet.
Butler, CR; Guilmette, E; Pauletti, A; Piro, JR; Porcu, L; Rizzi, M; Salamone, A; Samad, TA; Sheehan, MJ; Terrone, G; Vezzani, A; Villa, BR, 2018
)
0.48
"Clinical factors contributing to benzodiazepine failure in treating status epilepticus (SE) include suboptimal dosing and seizure duration."( Status epilepticus: Role for etiology in determining response to benzodiazepines.
Chester, SJ; Goodkin, HP; Hawk, KM; Joshi, S; Rajasekaran, K, 2018
)
0.48
" In addition, a dose-response study of topiramate (20-600 mg/kg/d) demonstrated that this compound reduced seizure burden at both therapeutic and supratherapeutic doses."( Evaluation of subchronic administration of antiseizure drugs in spontaneously seizing rats.
Edwards, SF; Huff, J; Metcalf, CS; Newell, TG; Thomson, KE; West, PJ; Wilcox, KS, 2020
)
0.56
" Treatments consisted of one daily injection of the mentioned dosage for seven consecutive days until the day of the excitotoxic lesion."( Prolactin neuroprotective action against excitotoxic insult in the hippocampus of male mice.
Anagnostou, I; Morales, T; Muñoz-Mayorga, D, 2021
)
0.62
" Doses and dosing intervals were based on previous pharmacokinetic and tolerability studies in mice."( Systematic evaluation of rationally chosen multitargeted drug combinations: a combination of low doses of levetiracetam, atorvastatin and ceftriaxone exerts antiepileptogenic effects in a mouse model of acquired epilepsy.
Bergin, DH; Johne, M; Klein, P; Löscher, W; Schidlitzki, A; Twele, F; Welzel, L, 2021
)
0.62
" Dose-response curves for growth and photosynthesis inhibition were determined."( Capacity of the potentially toxic diatoms Pseudo-nitzschia mannii and Pseudo-nitzschia hasleana to tolerate polycyclic aromatic hydrocarbons.
Andree, KB; Ben Othman, H; de la Iglesia, P; Diogène, J; Fernández-Tejedor, M; Hlaili, AS; Kouki, A; Lafabrie, C; Meddeb, M; Mejri, K; Melliti Ben Garali, S; Pringault, O; Sahraoui, I, 2021
)
0.62
[information is derived through text-mining from research data collected from National Library of Medicine (NLM), extracted Dec-2023]

Roles (2)

RoleDescription
antinematodal drugA substance used in the treatment or control of nematode infestations.
excitatory amino acid agonistAn agent that binds to and activates excitatory amino acid receptors.
[role information is derived from Chemical Entities of Biological Interest (ChEBI), Hastings J, Owen G, Dekker A, Ennis M, Kale N, Muthukrishnan V, Turner S, Swainston N, Mendes P, Steinbeck C. (2016). ChEBI in 2016: Improved services and an expanding collection of metabolites. Nucleic Acids Res]

Drug Classes (4)

ClassDescription
dicarboxylic acidAny carboxylic acid containing two carboxy groups.
pyrrolidinecarboxylic acid
L-proline derivativeA proteinogenic amino acid derivative resulting from reaction of L-proline at the amino group or the carboxy group, or from the replacement of any hydrogen of L-proline by a heteroatom.
non-proteinogenic L-alpha-amino acidAny L-alpha-amino acid which is not a member of the group of 23 proteinogenic amino acids.
[compound class information is derived from Chemical Entities of Biological Interest (ChEBI), Hastings J, Owen G, Dekker A, Ennis M, Kale N, Muthukrishnan V, Turner S, Swainston N, Mendes P, Steinbeck C. (2016). ChEBI in 2016: Improved services and an expanding collection of metabolites. Nucleic Acids Res]

Protein Targets (55)

Potency Measurements

ProteinTaxonomyMeasurementAverage (µ)Min (ref.)Avg (ref.)Max (ref.)Bioassay(s)
Chain A, JmjC domain-containing histone demethylation protein 3AHomo sapiens (human)Potency39.81070.631035.7641100.0000AID504339
Chain A, Ferritin light chainEquus caballus (horse)Potency12.58935.623417.292931.6228AID485281
endonuclease IVEscherichia coliPotency15.84890.707912.432431.6228AID1708
acetylcholinesteraseHomo sapiens (human)Potency17.37680.002541.796015,848.9004AID1347395
thioredoxin reductaseRattus norvegicus (Norway rat)Potency0.35480.100020.879379.4328AID588453
phosphopantetheinyl transferaseBacillus subtilisPotency26.20000.141337.9142100.0000AID1490
GLS proteinHomo sapiens (human)Potency5.62340.35487.935539.8107AID624146
TDP1 proteinHomo sapiens (human)Potency14.31760.000811.382244.6684AID686978; AID686979
aldehyde dehydrogenase 1 family, member A1Homo sapiens (human)Potency19.95260.011212.4002100.0000AID1030
estrogen-related nuclear receptor alphaHomo sapiens (human)Potency29.84930.001530.607315,848.9004AID1224841
IDH1Homo sapiens (human)Potency29.09290.005210.865235.4813AID686970
euchromatic histone-lysine N-methyltransferase 2Homo sapiens (human)Potency11.22020.035520.977089.1251AID504332
Bloom syndrome protein isoform 1Homo sapiens (human)Potency0.12590.540617.639296.1227AID2364; AID2528
15-hydroxyprostaglandin dehydrogenase [NAD(+)] isoform 1Homo sapiens (human)Potency15.84890.001815.663839.8107AID894
chromobox protein homolog 1Homo sapiens (human)Potency14.12540.006026.168889.1251AID540317
thyroid hormone receptor beta isoform 2Rattus norvegicus (Norway rat)Potency13.33320.000323.4451159.6830AID743066
importin subunit beta-1 isoform 1Homo sapiens (human)Potency31.62285.804836.130665.1308AID540263
snurportin-1Homo sapiens (human)Potency31.62285.804836.130665.1308AID540263
nuclear receptor ROR-gamma isoform 1Mus musculus (house mouse)Potency35.48130.00798.23321,122.0200AID2546
gemininHomo sapiens (human)Potency0.73080.004611.374133.4983AID624296
DNA polymerase kappa isoform 1Homo sapiens (human)Potency39.81070.031622.3146100.0000AID588579
histone acetyltransferase KAT2A isoform 1Homo sapiens (human)Potency31.62280.251215.843239.8107AID504327
lamin isoform A-delta10Homo sapiens (human)Potency2.82140.891312.067628.1838AID1487
Cellular tumor antigen p53Homo sapiens (human)Potency29.84930.002319.595674.0614AID651631; AID720552
ATP-dependent phosphofructokinaseTrypanosoma brucei brucei TREU927Potency33.80780.060110.745337.9330AID485368
[prepared from compound, protein, and bioassay information from National Library of Medicine (NLM), extracted Dec-2023]

Inhibition Measurements

ProteinTaxonomyMeasurementAverageMin (ref.)Avg (ref.)Max (ref.)Bioassay(s)
Glutamate receptor 1Rattus norvegicus (Norway rat)IC50 (µMol)16.25000.00011.617910.0000AID1553721; AID31459; AID92212; AID92342; AID92354; AID92487; AID92946
Glutamate receptor 1Rattus norvegicus (Norway rat)Ki0.47700.00000.41052.7800AID391442
Glutamate receptor 2Rattus norvegicus (Norway rat)IC50 (µMol)16.25000.00011.700010.0000AID1553721; AID31459; AID92212; AID92342; AID92354; AID92487; AID92946
Glutamate receptor 2Rattus norvegicus (Norway rat)Ki4.99500.00000.68536.3000AID391443; AID723868
Glutamate receptor 3Rattus norvegicus (Norway rat)IC50 (µMol)16.25000.00011.700010.0000AID1553721; AID31459; AID92212; AID92342; AID92354; AID92487; AID92946
Glutamate receptor 3Rattus norvegicus (Norway rat)Ki1.98000.00000.71777.4000AID391444
Glutamate receptor 4Rattus norvegicus (Norway rat)IC50 (µMol)16.25000.00011.700010.0000AID1553721; AID31459; AID92212; AID92342; AID92354; AID92487; AID92946
Glutamate receptor 4Rattus norvegicus (Norway rat)Ki3.57000.00000.52773.5700AID391445
Glutamate receptor ionotropic, kainate 1Rattus norvegicus (Norway rat)IC50 (µMol)0.01260.00700.98217.0000AID91466; AID93552; AID93557; AID93558; AID93564; AID93569; AID93570; AID95528
Glutamate receptor ionotropic, kainate 1Rattus norvegicus (Norway rat)Ki0.07420.00071.71758.1800AID339927; AID391446
Glutamate receptor ionotropic, NMDA 1 Rattus norvegicus (Norway rat)IC50 (µMol)100.00000.00071.600310.0000AID144470; AID144607; AID144768; AID144838; AID144839; AID145264
Glutamate receptor ionotropic, NMDA 1 Rattus norvegicus (Norway rat)Ki68.76670.00030.86666.6900AID1553723; AID478464; AID723868
Glutamate receptor ionotropic, kainate 1Homo sapiens (human)IC50 (µMol)0.07700.07702.64425.0000AID255267
Glutamate receptor ionotropic, kainate 1Homo sapiens (human)Ki0.17700.00071.75084.8000AID93247; AID93250
Glutamate receptor ionotropic, kainate 2Rattus norvegicus (Norway rat)IC50 (µMol)0.01260.00701.01327.0000AID91466; AID93552; AID93557; AID93558; AID93564; AID93569; AID93570; AID95528
Glutamate receptor ionotropic, kainate 2Rattus norvegicus (Norway rat)Ki0.01030.00370.80254.1000AID339928; AID391447; AID93405
Glutamate receptor 1Homo sapiens (human)Ki7.46630.01472.50379.2000AID92951; AID92952; AID92953
Glutamate receptor 2Homo sapiens (human)Ki12.20700.01681.27725.0000AID92962; AID92963; AID92964
Glutamate receptor ionotropic, kainate 3Rattus norvegicus (Norway rat)IC50 (µMol)0.01260.00701.01327.0000AID91466; AID93552; AID93557; AID93558; AID93564; AID93569; AID93570; AID95528
Glutamate receptor ionotropic, kainate 3Rattus norvegicus (Norway rat)Ki0.01830.00380.79754.1000AID339929
Glutamate receptor 4Homo sapiens (human)Ki1.71130.04001.23358.8500AID93111; AID93112; AID93113
Glutamate receptor ionotropic, NMDA 2A Rattus norvegicus (Norway rat)IC50 (µMol)100.00000.00071.630610.0000AID144470; AID144607; AID144768; AID144838; AID144839
Glutamate receptor ionotropic, NMDA 2A Rattus norvegicus (Norway rat)Ki68.76670.00030.68056.6900AID1553723; AID478464; AID723868
Glutamate receptor ionotropic, NMDA 2BRattus norvegicus (Norway rat)IC50 (µMol)100.00000.00061.525710.0000AID144470; AID144607; AID144768; AID144838; AID144839
Glutamate receptor ionotropic, NMDA 2BRattus norvegicus (Norway rat)Ki68.76670.00030.70716.6900AID1553723; AID478464; AID723868
Glutamate receptor ionotropic, NMDA 2CRattus norvegicus (Norway rat)IC50 (µMol)100.00000.00071.747210.0000AID144470; AID144607; AID144768; AID144838; AID144839
Glutamate receptor ionotropic, NMDA 2CRattus norvegicus (Norway rat)Ki68.76670.00030.81966.6900AID1553723; AID478464; AID723868
Glutamate receptor ionotropic, kainate 4Rattus norvegicus (Norway rat)IC50 (µMol)0.01260.00701.01327.0000AID91466; AID93552; AID93557; AID93558; AID93564; AID93569; AID93570; AID95528
Glutamate receptor ionotropic, kainate 4Rattus norvegicus (Norway rat)Ki0.00470.00471.59194.1000AID339936
Glutamate receptor ionotropic, kainate 2Homo sapiens (human)IC50 (µMol)0.07700.07700.07700.0770AID255267
Glutamate receptor ionotropic, kainate 2Homo sapiens (human)Ki0.03910.00120.33441.1060AID93265; AID93266; AID93392
Glutamate receptor ionotropic, kainate 3Homo sapiens (human)IC50 (µMol)0.07700.07702.03854.0000AID255267
Glutamate receptor ionotropic, kainate 3Homo sapiens (human)Ki0.01000.01000.39950.7890AID93407; AID93408
Glutamate receptor ionotropic, kainate 4Homo sapiens (human)IC50 (µMol)0.07700.07700.07700.0770AID255267
Glutamate receptor ionotropic, kainate 5Homo sapiens (human)IC50 (µMol)0.07700.07700.07700.0770AID255267
Glutamate receptor ionotropic, kainate 5Homo sapiens (human)Ki0.08830.00800.71552.1440AID74822; AID93254; AID93411
Glutamate receptor ionotropic, NMDA 2DRattus norvegicus (Norway rat)IC50 (µMol)100.00000.00071.741110.0000AID144470; AID144607; AID144768; AID144838; AID144839
Glutamate receptor ionotropic, NMDA 2DRattus norvegicus (Norway rat)Ki68.76670.00030.70726.6900AID1553723; AID478464; AID723868
Glutamate receptor ionotropic, kainate 5Rattus norvegicus (Norway rat)IC50 (µMol)0.01260.00701.01327.0000AID91466; AID93552; AID93557; AID93558; AID93564; AID93569; AID93570; AID95528
Glutamate receptor ionotropic, kainate 5Rattus norvegicus (Norway rat)Ki0.01500.01501.59454.1000AID339937
Glutamate receptor ionotropic, NMDA 3BRattus norvegicus (Norway rat)IC50 (µMol)100.00000.00071.741110.0000AID144470; AID144607; AID144768; AID144838; AID144839
Glutamate receptor ionotropic, NMDA 3BRattus norvegicus (Norway rat)Ki68.76670.00030.70726.6900AID1553723; AID478464; AID723868
Glutamate receptor ionotropic, NMDA 3ARattus norvegicus (Norway rat)IC50 (µMol)100.00000.00071.741110.0000AID144470; AID144607; AID144768; AID144838; AID144839
Glutamate receptor ionotropic, NMDA 3ARattus norvegicus (Norway rat)Ki68.76670.00030.70726.6900AID1553723; AID478464; AID723868
[prepared from compound, protein, and bioassay information from National Library of Medicine (NLM), extracted Dec-2023]

Activation Measurements

ProteinTaxonomyMeasurementAverageMin (ref.)Avg (ref.)Max (ref.)Bioassay(s)
Chain A, Glutamate receptor 2Rattus norvegicus (Norway rat)Kd0.16000.16004.900012.8000AID977611
Chain A, Glutamate receptor 2Rattus norvegicus (Norway rat)Kd0.16000.16004.900012.8000AID977611
Chain C, Glutamate receptor 2Rattus norvegicus (Norway rat)Kd0.16000.16004.900012.8000AID977611
Metabotropic glutamate receptor 6Homo sapiens (human)EC50 (µMol)299.00000.05502.27864.9000AID439883
Glutamate receptor 1Rattus norvegicus (Norway rat)EC50 (µMol)24.33330.00411.89638.7000AID422606; AID477117; AID477138
Glutamate receptor 2Rattus norvegicus (Norway rat)EC50 (µMol)380.00000.00411.62517.6000AID422608; AID477139
Glutamate receptor 3Rattus norvegicus (Norway rat)EC50 (µMol)37.00000.00411.17063.5000AID422610; AID477118; AID477140
Glutamate receptor 4Rattus norvegicus (Norway rat)EC50 (µMol)47.00000.00411.13393.5000AID422612; AID477141
Glutamate receptor ionotropic, kainate 1Rattus norvegicus (Norway rat)EC50 (µMol)37.00000.66000.66000.6600AID422614
Glutamate receptor ionotropic, NMDA 1 Rattus norvegicus (Norway rat)EC50 (µMol)25.00000.00301.29038.3000AID144320
Metabotropic glutamate receptor 5Homo sapiens (human)EC50 (µMol)33.60000.00190.61454.1000AID439882
Glutamate receptor ionotropic, kainate 2Rattus norvegicus (Norway rat)EC50 (µMol)1.80001.80001.80001.8000AID422616
Glutamate receptor ionotropic, kainate 2Rattus norvegicus (Norway rat)Kd0.03900.03900.03900.0390AID257202
Glutamate receptor 1Homo sapiens (human)EC50 (µMol)49.50250.38004.113810.0000AID477119; AID477135; AID477146; AID477557
Glutamate receptor 2Homo sapiens (human)EC50 (µMol)34.03500.15003.05607.6000AID477146; AID477558
Glutamate receptor 3Homo sapiens (human)EC50 (µMol)26.61001.66004.40677.9000AID477559
Glutamate receptor ionotropic, NMDA 2A Rattus norvegicus (Norway rat)EC50 (µMol)25.00000.00301.02226.8600AID144320
Glutamate receptor ionotropic, NMDA 2BRattus norvegicus (Norway rat)EC50 (µMol)25.00000.00300.86696.8600AID144320
Glutamate receptor ionotropic, NMDA 2CRattus norvegicus (Norway rat)EC50 (µMol)25.00000.00301.11276.8600AID144320
Glutamate receptor ionotropic, kainate 2Homo sapiens (human)EC50 (µMol)0.70000.70000.70000.7000AID74818; AID93262
Glutamate receptor ionotropic, NMDA 2DRattus norvegicus (Norway rat)EC50 (µMol)25.00000.00301.39378.3000AID144320
Glutamate receptor ionotropic, NMDA 3BRattus norvegicus (Norway rat)EC50 (µMol)25.00000.00300.90516.8600AID144320
Glutamate receptor ionotropic, NMDA 3ARattus norvegicus (Norway rat)EC50 (µMol)25.00000.00300.90516.8600AID144320
[prepared from compound, protein, and bioassay information from National Library of Medicine (NLM), extracted Dec-2023]

Biological Processes (200)

Processvia Protein(s)Taxonomy
adenylate cyclase-inhibiting G protein-coupled glutamate receptor signaling pathwayMetabotropic glutamate receptor 6Homo sapiens (human)
G protein-coupled glutamate receptor signaling pathwayMetabotropic glutamate receptor 6Homo sapiens (human)
chemical synaptic transmissionMetabotropic glutamate receptor 6Homo sapiens (human)
locomotory behaviorMetabotropic glutamate receptor 6Homo sapiens (human)
detection of visible lightMetabotropic glutamate receptor 6Homo sapiens (human)
detection of light stimulus involved in visual perceptionMetabotropic glutamate receptor 6Homo sapiens (human)
retina development in camera-type eyeMetabotropic glutamate receptor 6Homo sapiens (human)
positive regulation of calcium ion import across plasma membraneMetabotropic glutamate receptor 6Homo sapiens (human)
regulation of synaptic transmission, glutamatergicMetabotropic glutamate receptor 6Homo sapiens (human)
negative regulation of cell population proliferationCellular tumor antigen p53Homo sapiens (human)
regulation of cell cycleCellular tumor antigen p53Homo sapiens (human)
regulation of cell cycle G2/M phase transitionCellular tumor antigen p53Homo sapiens (human)
DNA damage responseCellular tumor antigen p53Homo sapiens (human)
ER overload responseCellular tumor antigen p53Homo sapiens (human)
cellular response to glucose starvationCellular tumor antigen p53Homo sapiens (human)
intrinsic apoptotic signaling pathway in response to DNA damage by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
regulation of apoptotic processCellular tumor antigen p53Homo sapiens (human)
positive regulation of transcription by RNA polymerase IICellular tumor antigen p53Homo sapiens (human)
positive regulation of miRNA transcriptionCellular tumor antigen p53Homo sapiens (human)
negative regulation of transcription by RNA polymerase IICellular tumor antigen p53Homo sapiens (human)
mitophagyCellular tumor antigen p53Homo sapiens (human)
in utero embryonic developmentCellular tumor antigen p53Homo sapiens (human)
somitogenesisCellular tumor antigen p53Homo sapiens (human)
release of cytochrome c from mitochondriaCellular tumor antigen p53Homo sapiens (human)
hematopoietic progenitor cell differentiationCellular tumor antigen p53Homo sapiens (human)
T cell proliferation involved in immune responseCellular tumor antigen p53Homo sapiens (human)
B cell lineage commitmentCellular tumor antigen p53Homo sapiens (human)
T cell lineage commitmentCellular tumor antigen p53Homo sapiens (human)
response to ischemiaCellular tumor antigen p53Homo sapiens (human)
nucleotide-excision repairCellular tumor antigen p53Homo sapiens (human)
double-strand break repairCellular tumor antigen p53Homo sapiens (human)
regulation of DNA-templated transcriptionCellular tumor antigen p53Homo sapiens (human)
regulation of transcription by RNA polymerase IICellular tumor antigen p53Homo sapiens (human)
protein import into nucleusCellular tumor antigen p53Homo sapiens (human)
autophagyCellular tumor antigen p53Homo sapiens (human)
DNA damage responseCellular tumor antigen p53Homo sapiens (human)
DNA damage response, signal transduction by p53 class mediator resulting in cell cycle arrestCellular tumor antigen p53Homo sapiens (human)
DNA damage response, signal transduction by p53 class mediator resulting in transcription of p21 class mediatorCellular tumor antigen p53Homo sapiens (human)
transforming growth factor beta receptor signaling pathwayCellular tumor antigen p53Homo sapiens (human)
Ras protein signal transductionCellular tumor antigen p53Homo sapiens (human)
gastrulationCellular tumor antigen p53Homo sapiens (human)
neuroblast proliferationCellular tumor antigen p53Homo sapiens (human)
negative regulation of neuroblast proliferationCellular tumor antigen p53Homo sapiens (human)
protein localizationCellular tumor antigen p53Homo sapiens (human)
negative regulation of DNA replicationCellular tumor antigen p53Homo sapiens (human)
negative regulation of cell population proliferationCellular tumor antigen p53Homo sapiens (human)
determination of adult lifespanCellular tumor antigen p53Homo sapiens (human)
mRNA transcriptionCellular tumor antigen p53Homo sapiens (human)
rRNA transcriptionCellular tumor antigen p53Homo sapiens (human)
response to salt stressCellular tumor antigen p53Homo sapiens (human)
response to inorganic substanceCellular tumor antigen p53Homo sapiens (human)
response to X-rayCellular tumor antigen p53Homo sapiens (human)
response to gamma radiationCellular tumor antigen p53Homo sapiens (human)
positive regulation of gene expressionCellular tumor antigen p53Homo sapiens (human)
cardiac muscle cell apoptotic processCellular tumor antigen p53Homo sapiens (human)
positive regulation of cardiac muscle cell apoptotic processCellular tumor antigen p53Homo sapiens (human)
glial cell proliferationCellular tumor antigen p53Homo sapiens (human)
viral processCellular tumor antigen p53Homo sapiens (human)
glucose catabolic process to lactate via pyruvateCellular tumor antigen p53Homo sapiens (human)
cerebellum developmentCellular tumor antigen p53Homo sapiens (human)
negative regulation of cell growthCellular tumor antigen p53Homo sapiens (human)
DNA damage response, signal transduction by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
negative regulation of transforming growth factor beta receptor signaling pathwayCellular tumor antigen p53Homo sapiens (human)
mitotic G1 DNA damage checkpoint signalingCellular tumor antigen p53Homo sapiens (human)
negative regulation of telomere maintenance via telomeraseCellular tumor antigen p53Homo sapiens (human)
T cell differentiation in thymusCellular tumor antigen p53Homo sapiens (human)
tumor necrosis factor-mediated signaling pathwayCellular tumor antigen p53Homo sapiens (human)
regulation of tissue remodelingCellular tumor antigen p53Homo sapiens (human)
cellular response to UVCellular tumor antigen p53Homo sapiens (human)
multicellular organism growthCellular tumor antigen p53Homo sapiens (human)
positive regulation of mitochondrial membrane permeabilityCellular tumor antigen p53Homo sapiens (human)
cellular response to glucose starvationCellular tumor antigen p53Homo sapiens (human)
intrinsic apoptotic signaling pathway in response to DNA damage by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
positive regulation of apoptotic processCellular tumor antigen p53Homo sapiens (human)
negative regulation of apoptotic processCellular tumor antigen p53Homo sapiens (human)
entrainment of circadian clock by photoperiodCellular tumor antigen p53Homo sapiens (human)
mitochondrial DNA repairCellular tumor antigen p53Homo sapiens (human)
regulation of DNA damage response, signal transduction by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
positive regulation of neuron apoptotic processCellular tumor antigen p53Homo sapiens (human)
transcription initiation-coupled chromatin remodelingCellular tumor antigen p53Homo sapiens (human)
negative regulation of proteolysisCellular tumor antigen p53Homo sapiens (human)
negative regulation of DNA-templated transcriptionCellular tumor antigen p53Homo sapiens (human)
positive regulation of DNA-templated transcriptionCellular tumor antigen p53Homo sapiens (human)
positive regulation of RNA polymerase II transcription preinitiation complex assemblyCellular tumor antigen p53Homo sapiens (human)
positive regulation of transcription by RNA polymerase IICellular tumor antigen p53Homo sapiens (human)
response to antibioticCellular tumor antigen p53Homo sapiens (human)
fibroblast proliferationCellular tumor antigen p53Homo sapiens (human)
negative regulation of fibroblast proliferationCellular tumor antigen p53Homo sapiens (human)
circadian behaviorCellular tumor antigen p53Homo sapiens (human)
bone marrow developmentCellular tumor antigen p53Homo sapiens (human)
embryonic organ developmentCellular tumor antigen p53Homo sapiens (human)
positive regulation of peptidyl-tyrosine phosphorylationCellular tumor antigen p53Homo sapiens (human)
protein stabilizationCellular tumor antigen p53Homo sapiens (human)
negative regulation of helicase activityCellular tumor antigen p53Homo sapiens (human)
protein tetramerizationCellular tumor antigen p53Homo sapiens (human)
chromosome organizationCellular tumor antigen p53Homo sapiens (human)
neuron apoptotic processCellular tumor antigen p53Homo sapiens (human)
regulation of cell cycleCellular tumor antigen p53Homo sapiens (human)
hematopoietic stem cell differentiationCellular tumor antigen p53Homo sapiens (human)
negative regulation of glial cell proliferationCellular tumor antigen p53Homo sapiens (human)
type II interferon-mediated signaling pathwayCellular tumor antigen p53Homo sapiens (human)
cardiac septum morphogenesisCellular tumor antigen p53Homo sapiens (human)
positive regulation of programmed necrotic cell deathCellular tumor antigen p53Homo sapiens (human)
protein-containing complex assemblyCellular tumor antigen p53Homo sapiens (human)
intrinsic apoptotic signaling pathway in response to endoplasmic reticulum stressCellular tumor antigen p53Homo sapiens (human)
thymocyte apoptotic processCellular tumor antigen p53Homo sapiens (human)
positive regulation of thymocyte apoptotic processCellular tumor antigen p53Homo sapiens (human)
necroptotic processCellular tumor antigen p53Homo sapiens (human)
cellular response to hypoxiaCellular tumor antigen p53Homo sapiens (human)
cellular response to xenobiotic stimulusCellular tumor antigen p53Homo sapiens (human)
cellular response to ionizing radiationCellular tumor antigen p53Homo sapiens (human)
cellular response to gamma radiationCellular tumor antigen p53Homo sapiens (human)
cellular response to UV-CCellular tumor antigen p53Homo sapiens (human)
stem cell proliferationCellular tumor antigen p53Homo sapiens (human)
signal transduction by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
intrinsic apoptotic signaling pathway by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
reactive oxygen species metabolic processCellular tumor antigen p53Homo sapiens (human)
cellular response to actinomycin DCellular tumor antigen p53Homo sapiens (human)
positive regulation of release of cytochrome c from mitochondriaCellular tumor antigen p53Homo sapiens (human)
cellular senescenceCellular tumor antigen p53Homo sapiens (human)
replicative senescenceCellular tumor antigen p53Homo sapiens (human)
oxidative stress-induced premature senescenceCellular tumor antigen p53Homo sapiens (human)
intrinsic apoptotic signaling pathwayCellular tumor antigen p53Homo sapiens (human)
oligodendrocyte apoptotic processCellular tumor antigen p53Homo sapiens (human)
positive regulation of execution phase of apoptosisCellular tumor antigen p53Homo sapiens (human)
negative regulation of mitophagyCellular tumor antigen p53Homo sapiens (human)
regulation of mitochondrial membrane permeability involved in apoptotic processCellular tumor antigen p53Homo sapiens (human)
regulation of intrinsic apoptotic signaling pathway by p53 class mediatorCellular tumor antigen p53Homo sapiens (human)
positive regulation of miRNA transcriptionCellular tumor antigen p53Homo sapiens (human)
negative regulation of G1 to G0 transitionCellular tumor antigen p53Homo sapiens (human)
negative regulation of miRNA processingCellular tumor antigen p53Homo sapiens (human)
negative regulation of glucose catabolic process to lactate via pyruvateCellular tumor antigen p53Homo sapiens (human)
negative regulation of pentose-phosphate shuntCellular tumor antigen p53Homo sapiens (human)
intrinsic apoptotic signaling pathway in response to hypoxiaCellular tumor antigen p53Homo sapiens (human)
regulation of fibroblast apoptotic processCellular tumor antigen p53Homo sapiens (human)
negative regulation of reactive oxygen species metabolic processCellular tumor antigen p53Homo sapiens (human)
positive regulation of reactive oxygen species metabolic processCellular tumor antigen p53Homo sapiens (human)
negative regulation of stem cell proliferationCellular tumor antigen p53Homo sapiens (human)
positive regulation of cellular senescenceCellular tumor antigen p53Homo sapiens (human)
positive regulation of intrinsic apoptotic signaling pathwayCellular tumor antigen p53Homo sapiens (human)
glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
chemical synaptic transmissionGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
nervous system developmentGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
central nervous system developmentGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
calcium-mediated signalingGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
regulation of synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
desensitization of G protein-coupled receptor signaling pathwayMetabotropic glutamate receptor 5Homo sapiens (human)
regulation of DNA-templated transcriptionMetabotropic glutamate receptor 5Homo sapiens (human)
adenylate cyclase-inhibiting G protein-coupled glutamate receptor signaling pathwayMetabotropic glutamate receptor 5Homo sapiens (human)
protein kinase C-activating G protein-coupled receptor signaling pathwayMetabotropic glutamate receptor 5Homo sapiens (human)
phospholipase C-activating G protein-coupled glutamate receptor signaling pathwayMetabotropic glutamate receptor 5Homo sapiens (human)
G protein-coupled glutamate receptor signaling pathwayMetabotropic glutamate receptor 5Homo sapiens (human)
chemical synaptic transmissionMetabotropic glutamate receptor 5Homo sapiens (human)
learning or memoryMetabotropic glutamate receptor 5Homo sapiens (human)
learningMetabotropic glutamate receptor 5Homo sapiens (human)
locomotory behaviorMetabotropic glutamate receptor 5Homo sapiens (human)
positive regulation of MAPK cascadeMetabotropic glutamate receptor 5Homo sapiens (human)
positive regulation of long-term neuronal synaptic plasticityMetabotropic glutamate receptor 5Homo sapiens (human)
synapse organizationMetabotropic glutamate receptor 5Homo sapiens (human)
positive regulation of calcium-mediated signalingMetabotropic glutamate receptor 5Homo sapiens (human)
cognitionMetabotropic glutamate receptor 5Homo sapiens (human)
regulation of postsynaptic membrane potentialMetabotropic glutamate receptor 5Homo sapiens (human)
regulation of postsynaptic cytosolic calcium ion concentrationMetabotropic glutamate receptor 5Homo sapiens (human)
cellular response to amyloid-betaMetabotropic glutamate receptor 5Homo sapiens (human)
regulation of synaptic transmission, glutamatergicMetabotropic glutamate receptor 5Homo sapiens (human)
trans-synaptic signaling by endocannabinoid, modulating synaptic transmissionMetabotropic glutamate receptor 5Homo sapiens (human)
regulation of receptor recyclingGlutamate receptor 1Homo sapiens (human)
signal transductionGlutamate receptor 1Homo sapiens (human)
chemical synaptic transmissionGlutamate receptor 1Homo sapiens (human)
synapse assemblyGlutamate receptor 1Homo sapiens (human)
long-term memoryGlutamate receptor 1Homo sapiens (human)
response to xenobiotic stimulusGlutamate receptor 1Homo sapiens (human)
response to lithium ionGlutamate receptor 1Homo sapiens (human)
positive regulation of gene expressionGlutamate receptor 1Homo sapiens (human)
neuronal action potentialGlutamate receptor 1Homo sapiens (human)
calcium-mediated signalingGlutamate receptor 1Homo sapiens (human)
spinal cord developmentGlutamate receptor 1Homo sapiens (human)
cerebral cortex developmentGlutamate receptor 1Homo sapiens (human)
receptor internalizationGlutamate receptor 1Homo sapiens (human)
response to estradiolGlutamate receptor 1Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor 1Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor 1Homo sapiens (human)
response to cocaineGlutamate receptor 1Homo sapiens (human)
positive regulation of membrane potentialGlutamate receptor 1Homo sapiens (human)
response to arsenic-containing substanceGlutamate receptor 1Homo sapiens (human)
response to electrical stimulusGlutamate receptor 1Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor 1Homo sapiens (human)
long-term synaptic potentiationGlutamate receptor 1Homo sapiens (human)
long-term synaptic depressionGlutamate receptor 1Homo sapiens (human)
response to fungicideGlutamate receptor 1Homo sapiens (human)
cellular response to amino acid stimulusGlutamate receptor 1Homo sapiens (human)
cellular response to ammonium ionGlutamate receptor 1Homo sapiens (human)
cellular response to dsRNAGlutamate receptor 1Homo sapiens (human)
cellular response to peptide hormone stimulusGlutamate receptor 1Homo sapiens (human)
cellular response to amine stimulusGlutamate receptor 1Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor 1Homo sapiens (human)
regulation of postsynaptic cytosolic calcium ion concentrationGlutamate receptor 1Homo sapiens (human)
cellular response to brain-derived neurotrophic factor stimulusGlutamate receptor 1Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor 1Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor 1Homo sapiens (human)
signal transductionGlutamate receptor 2Homo sapiens (human)
chemical synaptic transmissionGlutamate receptor 2Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor 2Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor 2Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor 2Homo sapiens (human)
monoatomic cation transmembrane transportGlutamate receptor 2Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor 2Homo sapiens (human)
glutamate receptor signaling pathwayGlutamate receptor 3Homo sapiens (human)
calcium-mediated signalingGlutamate receptor 3Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor 3Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor 3Homo sapiens (human)
protein homotetramerizationGlutamate receptor 3Homo sapiens (human)
protein heterotetramerizationGlutamate receptor 3Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor 3Homo sapiens (human)
long-term synaptic potentiationGlutamate receptor 3Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor 3Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor 3Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor 3Homo sapiens (human)
glutamate receptor signaling pathwayGlutamate receptor 4Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor 4Homo sapiens (human)
negative regulation of smooth muscle cell apoptotic processGlutamate receptor 4Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor 4Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor 4Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor 4Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor 4Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor 4Homo sapiens (human)
behavioral fear responseGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
intracellular calcium ion homeostasisGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
chemical synaptic transmissionGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
neuronal action potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
receptor clusteringGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
negative regulation of neuron apoptotic processGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
positive regulation of neuron apoptotic processGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
regulation of JNK cascadeGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
regulation of long-term neuronal synaptic plasticityGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
regulation of short-term neuronal synaptic plasticityGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
positive regulation of synaptic transmissionGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
neuron apoptotic processGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
negative regulation of synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
excitatory postsynaptic potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
inhibitory postsynaptic potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
modulation of excitatory postsynaptic potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
presynaptic modulation of chemical synaptic transmissionGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
detection of cold stimulus involved in thermoceptionGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
regulation of membrane potentialGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
adenylate cyclase-inhibiting G protein-coupled glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
G protein-coupled glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
regulation of membrane potentialGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
negative regulation of synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
chemical synaptic transmissionGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
regulation of synaptic vesicle fusion to presynaptic active zone membraneGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
monoatomic ion transmembrane transportGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
ionotropic glutamate receptor signaling pathwayGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
excitatory postsynaptic potentialGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
synaptic transmission, glutamatergicGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
modulation of chemical synaptic transmissionGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
[Information is prepared from geneontology information from the June-17-2024 release]

Molecular Functions (66)

Processvia Protein(s)Taxonomy
G protein-coupled receptor activityMetabotropic glutamate receptor 6Homo sapiens (human)
protein bindingMetabotropic glutamate receptor 6Homo sapiens (human)
glutamate receptor activityMetabotropic glutamate receptor 6Homo sapiens (human)
protein homodimerization activityMetabotropic glutamate receptor 6Homo sapiens (human)
adenylate cyclase inhibiting G protein-coupled glutamate receptor activityMetabotropic glutamate receptor 6Homo sapiens (human)
transcription cis-regulatory region bindingCellular tumor antigen p53Homo sapiens (human)
RNA polymerase II cis-regulatory region sequence-specific DNA bindingCellular tumor antigen p53Homo sapiens (human)
DNA-binding transcription factor activity, RNA polymerase II-specificCellular tumor antigen p53Homo sapiens (human)
cis-regulatory region sequence-specific DNA bindingCellular tumor antigen p53Homo sapiens (human)
core promoter sequence-specific DNA bindingCellular tumor antigen p53Homo sapiens (human)
TFIID-class transcription factor complex bindingCellular tumor antigen p53Homo sapiens (human)
DNA-binding transcription repressor activity, RNA polymerase II-specificCellular tumor antigen p53Homo sapiens (human)
DNA-binding transcription activator activity, RNA polymerase II-specificCellular tumor antigen p53Homo sapiens (human)
protease bindingCellular tumor antigen p53Homo sapiens (human)
p53 bindingCellular tumor antigen p53Homo sapiens (human)
DNA bindingCellular tumor antigen p53Homo sapiens (human)
chromatin bindingCellular tumor antigen p53Homo sapiens (human)
DNA-binding transcription factor activityCellular tumor antigen p53Homo sapiens (human)
mRNA 3'-UTR bindingCellular tumor antigen p53Homo sapiens (human)
copper ion bindingCellular tumor antigen p53Homo sapiens (human)
protein bindingCellular tumor antigen p53Homo sapiens (human)
zinc ion bindingCellular tumor antigen p53Homo sapiens (human)
enzyme bindingCellular tumor antigen p53Homo sapiens (human)
receptor tyrosine kinase bindingCellular tumor antigen p53Homo sapiens (human)
ubiquitin protein ligase bindingCellular tumor antigen p53Homo sapiens (human)
histone deacetylase regulator activityCellular tumor antigen p53Homo sapiens (human)
ATP-dependent DNA/DNA annealing activityCellular tumor antigen p53Homo sapiens (human)
identical protein bindingCellular tumor antigen p53Homo sapiens (human)
histone deacetylase bindingCellular tumor antigen p53Homo sapiens (human)
protein heterodimerization activityCellular tumor antigen p53Homo sapiens (human)
protein-folding chaperone bindingCellular tumor antigen p53Homo sapiens (human)
protein phosphatase 2A bindingCellular tumor antigen p53Homo sapiens (human)
RNA polymerase II-specific DNA-binding transcription factor bindingCellular tumor antigen p53Homo sapiens (human)
14-3-3 protein bindingCellular tumor antigen p53Homo sapiens (human)
MDM2/MDM4 family protein bindingCellular tumor antigen p53Homo sapiens (human)
disordered domain specific bindingCellular tumor antigen p53Homo sapiens (human)
general transcription initiation factor bindingCellular tumor antigen p53Homo sapiens (human)
molecular function activator activityCellular tumor antigen p53Homo sapiens (human)
promoter-specific chromatin bindingCellular tumor antigen p53Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
kainate selective glutamate receptor activityGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
glutamate-gated calcium ion channel activityGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
G protein-coupled receptor activityMetabotropic glutamate receptor 5Homo sapiens (human)
protein bindingMetabotropic glutamate receptor 5Homo sapiens (human)
glutamate receptor activityMetabotropic glutamate receptor 5Homo sapiens (human)
protein tyrosine kinase activator activityMetabotropic glutamate receptor 5Homo sapiens (human)
A2A adenosine receptor bindingMetabotropic glutamate receptor 5Homo sapiens (human)
identical protein bindingMetabotropic glutamate receptor 5Homo sapiens (human)
protein tyrosine kinase bindingMetabotropic glutamate receptor 5Homo sapiens (human)
adenylate cyclase inhibiting G protein-coupled glutamate receptor activityMetabotropic glutamate receptor 5Homo sapiens (human)
neurotransmitter receptor activity involved in regulation of postsynaptic cytosolic calcium ion concentrationMetabotropic glutamate receptor 5Homo sapiens (human)
G protein-coupled receptor activity involved in regulation of postsynaptic membrane potentialMetabotropic glutamate receptor 5Homo sapiens (human)
amyloid-beta bindingGlutamate receptor 1Homo sapiens (human)
G-protein alpha-subunit bindingGlutamate receptor 1Homo sapiens (human)
AMPA glutamate receptor activityGlutamate receptor 1Homo sapiens (human)
protein bindingGlutamate receptor 1Homo sapiens (human)
glutamate receptor activityGlutamate receptor 1Homo sapiens (human)
adenylate cyclase bindingGlutamate receptor 1Homo sapiens (human)
immunoglobulin bindingGlutamate receptor 1Homo sapiens (human)
protein kinase bindingGlutamate receptor 1Homo sapiens (human)
glutamate-gated calcium ion channel activityGlutamate receptor 1Homo sapiens (human)
PDZ domain bindingGlutamate receptor 1Homo sapiens (human)
small GTPase bindingGlutamate receptor 1Homo sapiens (human)
myosin V bindingGlutamate receptor 1Homo sapiens (human)
G-protein beta-subunit bindingGlutamate receptor 1Homo sapiens (human)
beta-2 adrenergic receptor bindingGlutamate receptor 1Homo sapiens (human)
glutamate receptor bindingGlutamate receptor 1Homo sapiens (human)
identical protein bindingGlutamate receptor 1Homo sapiens (human)
protein kinase A bindingGlutamate receptor 1Homo sapiens (human)
scaffold protein bindingGlutamate receptor 1Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor 1Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor 1Homo sapiens (human)
neurotransmitter receptor activity involved in regulation of postsynaptic cytosolic calcium ion concentrationGlutamate receptor 1Homo sapiens (human)
AMPA glutamate receptor activityGlutamate receptor 2Homo sapiens (human)
amyloid-beta bindingGlutamate receptor 2Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor 2Homo sapiens (human)
AMPA glutamate receptor activityGlutamate receptor 2Homo sapiens (human)
protein bindingGlutamate receptor 2Homo sapiens (human)
ligand-gated monoatomic cation channel activityGlutamate receptor 2Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor 2Homo sapiens (human)
amyloid-beta bindingGlutamate receptor 3Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor 3Homo sapiens (human)
AMPA glutamate receptor activityGlutamate receptor 3Homo sapiens (human)
glutamate-gated calcium ion channel activityGlutamate receptor 3Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor 3Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor 3Homo sapiens (human)
amyloid-beta bindingGlutamate receptor 4Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor 4Homo sapiens (human)
AMPA glutamate receptor activityGlutamate receptor 4Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor 4Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor 4Homo sapiens (human)
SNARE bindingGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
extracellularly glutamate-gated ion channel activityGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
kainate selective glutamate receptor activityGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
PDZ domain bindingGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
ubiquitin conjugating enzyme bindingGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
ubiquitin protein ligase bindingGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
identical protein bindingGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
scaffold protein bindingGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
adenylate cyclase inhibiting G protein-coupled glutamate receptor activityGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
glutamate receptor activityGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
kainate selective glutamate receptor activityGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
kainate selective glutamate receptor activityGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
glutamate-gated receptor activityGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
kainate selective glutamate receptor activityGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
ligand-gated monoatomic ion channel activity involved in regulation of presynaptic membrane potentialGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
transmitter-gated monoatomic ion channel activity involved in regulation of postsynaptic membrane potentialGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
[Information is prepared from geneontology information from the June-17-2024 release]

Ceullar Components (70)

Processvia Protein(s)Taxonomy
Golgi membraneMetabotropic glutamate receptor 6Homo sapiens (human)
endoplasmic reticulum membraneMetabotropic glutamate receptor 6Homo sapiens (human)
plasma membraneMetabotropic glutamate receptor 6Homo sapiens (human)
dendriteMetabotropic glutamate receptor 6Homo sapiens (human)
new growing cell tipMetabotropic glutamate receptor 6Homo sapiens (human)
synapseMetabotropic glutamate receptor 6Homo sapiens (human)
plasma membraneMetabotropic glutamate receptor 6Homo sapiens (human)
nuclear bodyCellular tumor antigen p53Homo sapiens (human)
nucleusCellular tumor antigen p53Homo sapiens (human)
nucleoplasmCellular tumor antigen p53Homo sapiens (human)
replication forkCellular tumor antigen p53Homo sapiens (human)
nucleolusCellular tumor antigen p53Homo sapiens (human)
cytoplasmCellular tumor antigen p53Homo sapiens (human)
mitochondrionCellular tumor antigen p53Homo sapiens (human)
mitochondrial matrixCellular tumor antigen p53Homo sapiens (human)
endoplasmic reticulumCellular tumor antigen p53Homo sapiens (human)
centrosomeCellular tumor antigen p53Homo sapiens (human)
cytosolCellular tumor antigen p53Homo sapiens (human)
nuclear matrixCellular tumor antigen p53Homo sapiens (human)
PML bodyCellular tumor antigen p53Homo sapiens (human)
transcription repressor complexCellular tumor antigen p53Homo sapiens (human)
site of double-strand breakCellular tumor antigen p53Homo sapiens (human)
germ cell nucleusCellular tumor antigen p53Homo sapiens (human)
chromatinCellular tumor antigen p53Homo sapiens (human)
transcription regulator complexCellular tumor antigen p53Homo sapiens (human)
protein-containing complexCellular tumor antigen p53Homo sapiens (human)
plasma membraneGlutamate receptor 1Rattus norvegicus (Norway rat)
plasma membraneGlutamate receptor 2Rattus norvegicus (Norway rat)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 1 Rattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 1 Rattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
intracellular membrane-bounded organelleGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
kainate selective glutamate receptor complexGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
presynaptic membraneGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
postsynaptic density membraneGlutamate receptor ionotropic, kainate 1Homo sapiens (human)
dendriteMetabotropic glutamate receptor 5Homo sapiens (human)
cytoplasmMetabotropic glutamate receptor 5Homo sapiens (human)
plasma membraneMetabotropic glutamate receptor 5Homo sapiens (human)
dendritic spineMetabotropic glutamate receptor 5Homo sapiens (human)
dendritic shaftMetabotropic glutamate receptor 5Homo sapiens (human)
astrocyte projectionMetabotropic glutamate receptor 5Homo sapiens (human)
Schaffer collateral - CA1 synapseMetabotropic glutamate receptor 5Homo sapiens (human)
glutamatergic synapseMetabotropic glutamate receptor 5Homo sapiens (human)
postsynaptic density membraneMetabotropic glutamate receptor 5Homo sapiens (human)
plasma membraneMetabotropic glutamate receptor 5Homo sapiens (human)
endoplasmic reticulum membraneGlutamate receptor 1Homo sapiens (human)
plasma membraneGlutamate receptor 1Homo sapiens (human)
cell-cell junctionGlutamate receptor 1Homo sapiens (human)
cell surfaceGlutamate receptor 1Homo sapiens (human)
ER to Golgi transport vesicle membraneGlutamate receptor 1Homo sapiens (human)
postsynaptic densityGlutamate receptor 1Homo sapiens (human)
dendriteGlutamate receptor 1Homo sapiens (human)
endocytic vesicle membraneGlutamate receptor 1Homo sapiens (human)
synaptic vesicle membraneGlutamate receptor 1Homo sapiens (human)
neuromuscular junctionGlutamate receptor 1Homo sapiens (human)
early endosome membraneGlutamate receptor 1Homo sapiens (human)
dendritic spine membraneGlutamate receptor 1Homo sapiens (human)
neuronal cell body membraneGlutamate receptor 1Homo sapiens (human)
endoplasmic reticulum-Golgi intermediate compartment membraneGlutamate receptor 1Homo sapiens (human)
neuronal cell bodyGlutamate receptor 1Homo sapiens (human)
dendritic spineGlutamate receptor 1Homo sapiens (human)
dendritic shaftGlutamate receptor 1Homo sapiens (human)
axonal spineGlutamate receptor 1Homo sapiens (human)
neuron spineGlutamate receptor 1Homo sapiens (human)
postsynaptic membraneGlutamate receptor 1Homo sapiens (human)
presynaptic active zone membraneGlutamate receptor 1Homo sapiens (human)
recycling endosomeGlutamate receptor 1Homo sapiens (human)
recycling endosome membraneGlutamate receptor 1Homo sapiens (human)
excitatory synapseGlutamate receptor 1Homo sapiens (human)
synaptic membraneGlutamate receptor 1Homo sapiens (human)
presynapseGlutamate receptor 1Homo sapiens (human)
postsynaptic density membraneGlutamate receptor 1Homo sapiens (human)
glutamatergic synapseGlutamate receptor 1Homo sapiens (human)
postsynaptic density, intracellular componentGlutamate receptor 1Homo sapiens (human)
perisynaptic spaceGlutamate receptor 1Homo sapiens (human)
AMPA glutamate receptor complexGlutamate receptor 1Homo sapiens (human)
plasma membraneGlutamate receptor 1Homo sapiens (human)
dendritic spineGlutamate receptor 1Homo sapiens (human)
postsynaptic density membraneGlutamate receptor 1Homo sapiens (human)
plasma membraneGlutamate receptor 2Homo sapiens (human)
external side of plasma membraneGlutamate receptor 2Homo sapiens (human)
postsynaptic densityGlutamate receptor 2Homo sapiens (human)
dendriteGlutamate receptor 2Homo sapiens (human)
endocytic vesicle membraneGlutamate receptor 2Homo sapiens (human)
asymmetric synapseGlutamate receptor 2Homo sapiens (human)
neuronal cell bodyGlutamate receptor 2Homo sapiens (human)
dendritic spineGlutamate receptor 2Homo sapiens (human)
excitatory synapseGlutamate receptor 2Homo sapiens (human)
postsynapseGlutamate receptor 2Homo sapiens (human)
postsynaptic endocytic zoneGlutamate receptor 2Homo sapiens (human)
AMPA glutamate receptor complexGlutamate receptor 2Homo sapiens (human)
plasma membraneGlutamate receptor 2Homo sapiens (human)
dendritic spineGlutamate receptor 2Homo sapiens (human)
postsynaptic density membraneGlutamate receptor 2Homo sapiens (human)
plasma membraneGlutamate receptor 3Homo sapiens (human)
endocytic vesicle membraneGlutamate receptor 3Homo sapiens (human)
postsynaptic membraneGlutamate receptor 3Homo sapiens (human)
parallel fiber to Purkinje cell synapseGlutamate receptor 3Homo sapiens (human)
AMPA glutamate receptor complexGlutamate receptor 3Homo sapiens (human)
plasma membraneGlutamate receptor 3Homo sapiens (human)
postsynaptic density membraneGlutamate receptor 3Homo sapiens (human)
dendritic spineGlutamate receptor 3Homo sapiens (human)
plasma membraneGlutamate receptor 4Homo sapiens (human)
dendriteGlutamate receptor 4Homo sapiens (human)
endocytic vesicle membraneGlutamate receptor 4Homo sapiens (human)
neuronal cell bodyGlutamate receptor 4Homo sapiens (human)
dendritic spineGlutamate receptor 4Homo sapiens (human)
extracellular vesicleGlutamate receptor 4Homo sapiens (human)
AMPA glutamate receptor complexGlutamate receptor 4Homo sapiens (human)
postsynaptic density membraneGlutamate receptor 4Homo sapiens (human)
plasma membraneGlutamate receptor 4Homo sapiens (human)
dendritic spineGlutamate receptor 4Homo sapiens (human)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 2A Rattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 2A Rattus norvegicus (Norway rat)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 2BRattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 2BRattus norvegicus (Norway rat)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 2CRattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 2CRattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
dendrite cytoplasmGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
terminal boutonGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
perikaryonGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
mossy fiber rosetteGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
hippocampal mossy fiber to CA3 synapseGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
glutamatergic synapseGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
postsynaptic density membraneGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
kainate selective glutamate receptor complexGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
presynaptic membraneGlutamate receptor ionotropic, kainate 2Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
axonGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
dendriteGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
dendrite cytoplasmGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
terminal boutonGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
perikaryonGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
glutamatergic synapseGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
postsynaptic density membraneGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
kainate selective glutamate receptor complexGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
presynaptic membraneGlutamate receptor ionotropic, kainate 3Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
hippocampal mossy fiber to CA3 synapseGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
presynaptic membraneGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
kainate selective glutamate receptor complexGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
postsynaptic density membraneGlutamate receptor ionotropic, kainate 4Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
nucleoplasmGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
endoplasmic reticulumGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
hippocampal mossy fiber to CA3 synapseGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
postsynaptic density membraneGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
presynaptic membraneGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
plasma membraneGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
kainate selective glutamate receptor complexGlutamate receptor ionotropic, kainate 5Homo sapiens (human)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 2DRattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 2DRattus norvegicus (Norway rat)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 3BRattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 3BRattus norvegicus (Norway rat)
endoplasmic reticulum membraneGlutamate receptor ionotropic, NMDA 3ARattus norvegicus (Norway rat)
plasma membraneGlutamate receptor ionotropic, NMDA 3ARattus norvegicus (Norway rat)
[Information is prepared from geneontology information from the June-17-2024 release]

Bioassays (246)

Assay IDTitleYearJournalArticle
AID1347151Optimization of GU AMC qHTS for Zika virus inhibitors: Unlinked NS2B-NS3 protease assay2020Proceedings of the National Academy of Sciences of the United States of America, 12-08, Volume: 117, Issue:49
Therapeutic candidates for the Zika virus identified by a high-throughput screen for Zika protease inhibitors.
AID1347049Natriuretic polypeptide receptor (hNpr1) antagonism - Pilot screen2019Science translational medicine, 07-10, Volume: 11, Issue:500
Inhibition of natriuretic peptide receptor 1 reduces itch in mice.
AID1347086qHTS for Inhibitors of the Functional Ribonucleoprotein Complex (vRNP) of Lymphocytic Choriomeningitis Arenaviruses (LCMV): LCMV Primary Screen - GLuc reporter signal2020Antiviral research, 01, Volume: 173A cell-based, infectious-free, platform to identify inhibitors of lassa virus ribonucleoprotein (vRNP) activity.
AID1347410qHTS for inhibitors of adenylyl cyclases using a fission yeast platform: a pilot screen against the NCATS LOPAC library2019Cellular signalling, 08, Volume: 60A fission yeast platform for heterologous expression of mammalian adenylyl cyclases and high throughput screening.
AID1347059CD47-SIRPalpha protein protein interaction - Alpha assay qHTS validation2019PloS one, , Volume: 14, Issue:7
Quantitative high-throughput screening assays for the discovery and development of SIRPα-CD47 interaction inhibitors.
AID588378qHTS for Inhibitors of ATXN expression: Validation
AID1347045Natriuretic polypeptide receptor (hNpr1) antagonism - Pilot counterscreen GloSensor control cell line2019Science translational medicine, 07-10, Volume: 11, Issue:500
Inhibition of natriuretic peptide receptor 1 reduces itch in mice.
AID1347058CD47-SIRPalpha protein protein interaction - HTRF assay qHTS validation2019PloS one, , Volume: 14, Issue:7
Quantitative high-throughput screening assays for the discovery and development of SIRPα-CD47 interaction inhibitors.
AID1508630Primary qHTS for small molecule stabilizers of the endoplasmic reticulum resident proteome: Secreted ER Calcium Modulated Protein (SERCaMP) assay2021Cell reports, 04-27, Volume: 35, Issue:4
A target-agnostic screen identifies approved drugs to stabilize the endoplasmic reticulum-resident proteome.
AID504836Inducers of the Endoplasmic Reticulum Stress Response (ERSR) in human glioma: Validation2002The Journal of biological chemistry, Apr-19, Volume: 277, Issue:16
Sustained ER Ca2+ depletion suppresses protein synthesis and induces activation-enhanced cell death in mast cells.
AID1347405qHTS to identify inhibitors of the type 1 interferon - major histocompatibility complex class I in skeletal muscle: primary screen against the NCATS LOPAC collection2020ACS chemical biology, 07-17, Volume: 15, Issue:7
High-Throughput Screening to Identify Inhibitors of the Type I Interferon-Major Histocompatibility Complex Class I Pathway in Skeletal Muscle.
AID504812Inverse Agonists of the Thyroid Stimulating Hormone Receptor: HTS campaign2010Endocrinology, Jul, Volume: 151, Issue:7
A small molecule inverse agonist for the human thyroid-stimulating hormone receptor.
AID1347083qHTS for Inhibitors of the Functional Ribonucleoprotein Complex (vRNP) of Lassa (LASV) Arenavirus: Viability assay - alamar blue signal for LASV Primary Screen2020Antiviral research, 01, Volume: 173A cell-based, infectious-free, platform to identify inhibitors of lassa virus ribonucleoprotein (vRNP) activity.
AID588349qHTS for Inhibitors of ATXN expression: Validation of Cytotoxic Assay
AID1347082qHTS for Inhibitors of the Functional Ribonucleoprotein Complex (vRNP) of Lassa (LASV) Arenavirus: LASV Primary Screen - GLuc reporter signal2020Antiviral research, 01, Volume: 173A cell-based, infectious-free, platform to identify inhibitors of lassa virus ribonucleoprotein (vRNP) activity.
AID1347050Natriuretic polypeptide receptor (hNpr2) antagonism - Pilot subtype selectivity assay2019Science translational medicine, 07-10, Volume: 11, Issue:500
Inhibition of natriuretic peptide receptor 1 reduces itch in mice.
AID504810Antagonists of the Thyroid Stimulating Hormone Receptor: HTS campaign2010Endocrinology, Jul, Volume: 151, Issue:7
A small molecule inverse agonist for the human thyroid-stimulating hormone receptor.
AID1347057CD47-SIRPalpha protein protein interaction - LANCE assay qHTS validation2019PloS one, , Volume: 14, Issue:7
Quantitative high-throughput screening assays for the discovery and development of SIRPα-CD47 interaction inhibitors.
AID504749qHTS profiling for inhibitors of Plasmodium falciparum proliferation2011Science (New York, N.Y.), Aug-05, Volume: 333, Issue:6043
Chemical genomic profiling for antimalarial therapies, response signatures, and molecular targets.
AID1347107qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for Rh30 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1296008Cytotoxic Profiling of Annotated Libraries Using Quantitative High-Throughput Screening2020SLAS discovery : advancing life sciences R & D, 01, Volume: 25, Issue:1
Cytotoxic Profiling of Annotated and Diverse Chemical Libraries Using Quantitative High-Throughput Screening.
AID1347105qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for MG 63 (6-TG R) cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347095qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for NB-EBc1 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347099qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for NB1643 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347407qHTS to identify inhibitors of the type 1 interferon - major histocompatibility complex class I in skeletal muscle: primary screen against the NCATS Pharmaceutical Collection2020ACS chemical biology, 07-17, Volume: 15, Issue:7
High-Throughput Screening to Identify Inhibitors of the Type I Interferon-Major Histocompatibility Complex Class I Pathway in Skeletal Muscle.
AID651635Viability Counterscreen for Primary qHTS for Inhibitors of ATXN expression
AID1347091qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for SJ-GBM2 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347093qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for SK-N-MC cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347154Primary screen GU AMC qHTS for Zika virus inhibitors2020Proceedings of the National Academy of Sciences of the United States of America, 12-08, Volume: 117, Issue:49
Therapeutic candidates for the Zika virus identified by a high-throughput screen for Zika protease inhibitors.
AID1745845Primary qHTS for Inhibitors of ATXN expression
AID1347089qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for TC32 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347103qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for OHS-50 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347096qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for U-2 OS cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347425Rhodamine-PBP qHTS Assay for Modulators of WT P53-Induced Phosphatase 1 (WIP1)2019The Journal of biological chemistry, 11-15, Volume: 294, Issue:46
Physiologically relevant orthogonal assays for the discovery of small-molecule modulators of WIP1 phosphatase in high-throughput screens.
AID1347090qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for DAOY cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347100qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for LAN-5 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347101qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for BT-12 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347108qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for Rh41 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347098qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for SK-N-SH cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347106qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for control Hh wild type fibroblast cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347102qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for Rh18 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347094qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for BT-37 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347104qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for RD cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347097qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for Saos-2 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1347424RapidFire Mass Spectrometry qHTS Assay for Modulators of WT P53-Induced Phosphatase 1 (WIP1)2019The Journal of biological chemistry, 11-15, Volume: 294, Issue:46
Physiologically relevant orthogonal assays for the discovery of small-molecule modulators of WIP1 phosphatase in high-throughput screens.
AID1347092qHTS of pediatric cancer cell lines to identify multiple opportunities for drug repurposing: Primary screen for A673 cells2018Oncotarget, Jan-12, Volume: 9, Issue:4
Quantitative high-throughput phenotypic screening of pediatric cancer cell lines identifies multiple opportunities for drug repurposing.
AID1346987P-glycoprotein substrates identified in KB-8-5-11 adenocarcinoma cell line, qHTS therapeutic library screen2019Molecular pharmacology, 11, Volume: 96, Issue:5
A High-Throughput Screen of a Library of Therapeutics Identifies Cytotoxic Substrates of P-glycoprotein.
AID1346986P-glycoprotein substrates identified in KB-3-1 adenocarcinoma cell line, qHTS therapeutic library screen2019Molecular pharmacology, 11, Volume: 96, Issue:5
A High-Throughput Screen of a Library of Therapeutics Identifies Cytotoxic Substrates of P-glycoprotein.
AID93549Antagonism of Ionotropic glutamate receptor kainate action was measured as [Ca2+] influx in rat cerebellar granule neurons at 50 uM concentration1998Journal of medicinal chemistry, May-07, Volume: 41, Issue:10
Synthesis and biology of the conformationally restricted ACPD analogue, 2-aminobicyclo[2.1.1]hexane-2,5-dicarboxylic acid-I, a potent mGluR agonist.
AID95528Compound was evaluated for the inhibition of binding of [3H]-Kainic acid to kianic acid receptor1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID611792Agonist activity at Non-desensitized homomeric rat GluK1(Q)1b mutant expressed in Xenopus oocytes at 1 mM by two-electrode voltage-clamp electrophysiology2011Journal of medicinal chemistry, Jul-14, Volume: 54, Issue:13
Selective kainate receptor (GluK1) ligands structurally based upon 1H-cyclopentapyrimidin-2,4(1H,3H)-dione: synthesis, molecular modeling, and pharmacological and biostructural characterization.
AID74819Agonistic activity of compound on Glutamate receptor 6 using cell membranes prepared from HEK293 cells was expressed as percentage Rmax2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID187656Effect on fractional [3H]GABA release from rat forebrain neurons in culture in the presence of [3H]GABA1990Journal of medicinal chemistry, Jun, Volume: 33, Issue:6
Synthesis and bioactivity of a new class of rigid glutamate analogues. Modulators of the N-methyl-D-aspartate receptor.
AID93408Binding affinity of compound was determined against Ionotropic glutamate receptor ionotropic kainate 3 using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID92041Percent control measured by evaluating the inhibition of 3 nM [125I]PhTX-343-lysine binding to glutamate receptors in rat cortical membranes1991Journal of medicinal chemistry, Aug, Volume: 34, Issue:8
Synthesis and binding of [125I2]philanthotoxin-343, [125I2]philanthotoxin-343-lysine, and [125I2]philanthotoxin-343-arginine to rat brain membranes.
AID1553723Displacement of [3H]CGP39653 from NMDA receptor in rat brain synaptic cortical membranes after 60 mins by scintillation counting method2019Journal of medicinal chemistry, 05-09, Volume: 62, Issue:9
Use of the 4-Hydroxytriazole Moiety as a Bioisosteric Tool in the Development of Ionotropic Glutamate Receptor Ligands.
AID611794Antagonist activity at non-desensitized homomeric rat GluK3 mutant expressed in Xenopus oocytes assessed as inhibition of (S)-glutamate-induced current by two-electrode voltage-clamp electrophysiology2011Journal of medicinal chemistry, Jul-14, Volume: 54, Issue:13
Selective kainate receptor (GluK1) ligands structurally based upon 1H-cyclopentapyrimidin-2,4(1H,3H)-dione: synthesis, molecular modeling, and pharmacological and biostructural characterization.
AID330946Upregulation of P2Y6 receptor mRNA signals in Wistar rat hippocampal CA3 region assessed as increase in number of microglia by in situ hybridization after 3 days2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID547622Antitrypanosomal activity against Trypanosoma cruzi amastigotes infected in BESM cells measured after 88 hrs postinfection by HTS assay2010Antimicrobial agents and chemotherapy, Aug, Volume: 54, Issue:8
Image-based high-throughput drug screening targeting the intracellular stage of Trypanosoma cruzi, the agent of Chagas' disease.
AID611795Agonist activity at non-desensitized homomeric rat GluK3 mutant expressed in Xenopus oocytes at 1 mM by two-electrode voltage-clamp electrophysiology2011Journal of medicinal chemistry, Jul-14, Volume: 54, Issue:13
Selective kainate receptor (GluK1) ligands structurally based upon 1H-cyclopentapyrimidin-2,4(1H,3H)-dione: synthesis, molecular modeling, and pharmacological and biostructural characterization.
AID93405Inhibition of [3H]kainate binding at rat forebrain ionotropic glutamate receptor kainate 21996Journal of medicinal chemistry, Sep-13, Volume: 39, Issue:19
Synthesis of a series of aryl kainic acid analogs and evaluation in cells stably expressing the kainate receptor humGluR6.
AID422607Agonist activity at rat recombinant GluR1 flip isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay relative to glutamic acid2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID129532In Vivo evaluation of the Compound administered through icv for tonicity in presence alone in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID93250Binding affinity against human ionotropic glutamate receptor kainate 1 in HK293 cells using [3H]kainate as radioligand2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID1594728Toxicity in ddY mouse assessed as induction of spasms at 1.1 nmol dosed via intracerebroventricular injection2019Journal of natural products, 06-28, Volume: 82, Issue:6
Possible Biosynthetic Products and Metabolites of Kainic Acid from the Red Alga Digenea simplex and Their Biological Activity.
AID129534In Vivo evaluation of the Compound administered through icv for tonicity in presence along with the radioligand [3H]- CPP in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID697853Inhibition of horse BChE at 2 mg/ml by Ellman's method2012Bioorganic & medicinal chemistry, Nov-15, Volume: 20, Issue:22
Exploration of natural compounds as sources of new bifunctional scaffolds targeting cholinesterases and beta amyloid aggregation: the case of chelerythrine.
AID93111Displacement of [3H]AMPA from human Ionotropic glutamate receptor AMPA 4 expressed in HEK293 cells1997Journal of medicinal chemistry, Oct-24, Volume: 40, Issue:22
Synthesis of willardiine and 6-azawillardiine analogs: pharmacological characterization on cloned homomeric human AMPA and kainate receptor subtypes.
AID257202Displacement of [3H]kainate from rat GLUK6 receptor expressed in HEK293 cells2005Journal of medicinal chemistry, Dec-01, Volume: 48, Issue:24
Synthesis and pharmacology of willardiine derivatives acting as antagonists of kainate receptors.
AID144768In vitro inhibition of [3H]CPP binding to NMDA receptor.1996Journal of medicinal chemistry, Apr-12, Volume: 39, Issue:8
Synthesis and pharmacology of highly selective carboxy and phosphono isoxazole amino acid AMPA receptor antagonists.
AID144187Agonistic activity at N-methyl-D-aspartate glutamate receptor was measured as [Ca2+] influx in rat cerebellar granule neurons at 50 uM concentration1998Journal of medicinal chemistry, May-07, Volume: 41, Issue:10
Synthesis and biology of the conformationally restricted ACPD analogue, 2-aminobicyclo[2.1.1]hexane-2,5-dicarboxylic acid-I, a potent mGluR agonist.
AID92952Binding affinity of compound was determined against Ionotropic glutamate receptor AMPA 1 using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID422610Agonist activity at rat recombinant GluR3 flip isomer expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID129533In Vivo evaluation of the Compound administered through icv for tonicity in presence along with the antagonist GYKI 52466 in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID338171Displacement of [3H]kainic acid from kainate receptor assessed as specific binding relative to total binding1993Journal of natural products, Apr, Volume: 56, Issue:4
The role of receptor binding in drug discovery.
AID477141Agonist activity at rat recombinant GluA4 receptor flip isoform expressed in HEK293 cells assessed as effect on cyclothiazide-induced calcium flux by Fluo-4/AM staining-based fluorescence assay2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID129400In Vivo evaluation of the Compound administered through icv for the Clonic seizure presence along with the antagonist GYKI 52466 in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID129396Convulsant property on icv (intracervical) injection measured as clonus seizures in mouse.1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID477146Agonist activity at recombinant GluA1A2 receptor flip isoform expressed in Xenopus oocytes2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID93247Binding affinity of compound was determined against Ionotropic glutamate receptor ionotropic kainate 1 using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID439882Agonist activity at recombinant GluR52010European journal of medicinal chemistry, Jan, Volume: 45, Issue:1
Substituted 2-aminothiopen-derivatives: a potential new class of GluR6-antagonists.
AID611796Antagonist activity at Non-desensitized homomeric rat GluK1(Q)1b mutant expressed in Xenopus oocytes assessed as inhibition of (S)-glutamate-induced current by two-electrode voltage-clamp electrophysiology2011Journal of medicinal chemistry, Jul-14, Volume: 54, Issue:13
Selective kainate receptor (GluK1) ligands structurally based upon 1H-cyclopentapyrimidin-2,4(1H,3H)-dione: synthesis, molecular modeling, and pharmacological and biostructural characterization.
AID57548Compound was tested for agonistic activity on rat dorsal root ganglion neurons (thought to express GluR5 receptors)2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID439883Agonist activity at recombinant GluR62010European journal of medicinal chemistry, Jan, Volume: 45, Issue:1
Substituted 2-aminothiopen-derivatives: a potential new class of GluR6-antagonists.
AID477118Agonist activity at rat recombinant GluA3 receptor flop isoform expressed in Xenopus oocytes2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID74818Compound was tested for agonistic activity at Glutamate receptor 6 using HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID175858In vitro stimulation of norepinephrine release from hippocampal nerve endings.1997Journal of medicinal chemistry, Sep-26, Volume: 40, Issue:20
Structure--activity studies for alpha-amino-3-hydroxy-5-methyl-4-isoxazolepropanoic acid receptors: acidic hydroxyphenylalanines.
AID330950Increase in UTP level in Wistar rat hippocampal neuron at 10 mg/kg, ip by microdialysis2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID92212Binding affinity against Ionotropic glutamate receptor AMPA using [3H]AMPA as radioligand.1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID330945Increase in P2Y6 receptor protein expression in Wistar rat neurons2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID422613Agonist activity at rat recombinant GluR4 flip isomer expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay relative to glutamic acid2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID144839Compound was evaluated for the inhibition of binding of [3H]- MK-801 to NMDA receptor1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID477138Agonist activity at rat recombinant GluA1 receptor flip isoform expressed in HEK293 cells assessed as effect on cyclothiazide-induced calcium flux by Fluo-4/AM staining-based fluorescence assay2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID31459Compound was evaluated for the inhibition of binding of [3H]AMPA to the AMPA receptor1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID92953Compound was tested for binding affinity against human Ionotropic glutamate receptor AMPA 1 in HEK293 cells using [3H]-AMPA as radioligand2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID521220Inhibition of neurosphere proliferation of mouse neural precursor cells by MTT assay2007Nature chemical biology, May, Volume: 3, Issue:5
Chemical genetics reveals a complex functional ground state of neural stem cells.
AID422615Agonist activity at rat recombinant GluR5(Q) RNA-edited isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay relative to glutamic acid2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID422609Agonist activity at rat recombinant GluR2(Q) RNA-edited isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay relative to glutamic acid2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID93552Ability to inhibit [3H]-KA binding to Ionotropic glutamate receptor kainate from rat cortical membranes.1995Journal of medicinal chemistry, Jul-07, Volume: 38, Issue:14
Synthesis, resolution, and biological evaluation of the four stereoisomers of 4-methylglutamic acid: selective probes of kainate receptors.
AID1594724Toxicity in ddY mouse assessed as death time at 1.1 nmol dosed via intracerebroventricular injection2019Journal of natural products, 06-28, Volume: 82, Issue:6
Possible Biosynthetic Products and Metabolites of Kainic Acid from the Red Alga Digenea simplex and Their Biological Activity.
AID1553721Displacement of [3H]AMPA from AMPA receptor in rat brain synaptic cortical membranes after 30 mins by scintillation counting method2019Journal of medicinal chemistry, 05-09, Volume: 62, Issue:9
Use of the 4-Hydroxytriazole Moiety as a Bioisosteric Tool in the Development of Ionotropic Glutamate Receptor Ligands.
AID977599Inhibition of sodium fluorescein uptake in OATP1B1-transfected CHO cells at an equimolar substrate-inhibitor concentration of 10 uM2013Molecular pharmacology, Jun, Volume: 83, Issue:6
Structure-based identification of OATP1B1/3 inhibitors.
AID93252Whole-cell voltage clamp recordings made from HEK293 cells stably transfected with Ionotropic glutamate receptor ionotropic kainate 1.Results are expressed as % of maximum inward current evoked2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID611784Agonist activity at rat GluK2 mutant expressed in Xenopus oocytes at 1 mM by two-electrode voltage-clamp electrophysiology2011Journal of medicinal chemistry, Jul-14, Volume: 54, Issue:13
Selective kainate receptor (GluK1) ligands structurally based upon 1H-cyclopentapyrimidin-2,4(1H,3H)-dione: synthesis, molecular modeling, and pharmacological and biostructural characterization.
AID422614Agonist activity at rat recombinant GluR5(Q) RNA-edited isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID257201Displacement of [3H]SYM2081 from kainate receptor in rat brain membrane2005Journal of medicinal chemistry, Dec-01, Volume: 48, Issue:24
Synthesis and pharmacology of willardiine derivatives acting as antagonists of kainate receptors.
AID339937Binding affinity to rat cloned KA2 receptor2008Journal of medicinal chemistry, Jul-24, Volume: 51, Issue:14
Chemo-enzymatic synthesis of a series of 2,4-syn-functionalized (S)-glutamate analogues: new insight into the structure-activity relation of ionotropic glutamate receptor subtypes 5, 6, and 7.
AID93401Electrophysiological activity at 10 uM domoate from HEK293 cells transfected with Ionotropic glutamate receptor kainate 21996Journal of medicinal chemistry, Sep-13, Volume: 39, Issue:19
Synthesis of a series of aryl kainic acid analogs and evaluation in cells stably expressing the kainate receptor humGluR6.
AID74816Compound was tested for agonistic activity at Glutamate receptor 5 using HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID477117Agonist activity at rat recombinant GluA1 receptor flop isoform expressed in Xenopus oocytes2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID339936Binding affinity to rat cloned KA1 receptor2008Journal of medicinal chemistry, Jul-24, Volume: 51, Issue:14
Chemo-enzymatic synthesis of a series of 2,4-syn-functionalized (S)-glutamate analogues: new insight into the structure-activity relation of ionotropic glutamate receptor subtypes 5, 6, and 7.
AID93407Ability to bind to Ionotropic glutamate receptor ionotropic kainate 3 was evaluated2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID92487In vitro inhibition of [3H]AMPA binding to Ionotropic glutamate receptor AMPA.1996Journal of medicinal chemistry, Apr-12, Volume: 39, Issue:8
Synthesis and pharmacology of highly selective carboxy and phosphono isoxazole amino acid AMPA receptor antagonists.
AID129522In Vivo evaluation of the Compound administered through icv for the Clonic seizure presence of the compound along with the antagonist NBQX in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID330949Reversal of increase drug-induced phagocytosis in Wistar rat microglia assessed as uptake of microspheres by FACS in presence of MRS25782007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID231243Potency ratio (the ratio between the CD50 value of the drug in the presence of antagonist versus its CD50 value) for compound in presence of GYKI 52466; range 4.7-7.21998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID92498Inhibition of specific binding of [3H]AMPA to Ionotropic glutamate receptor AMPA in rat brain membranes; Not Determined1997Journal of medicinal chemistry, Sep-26, Volume: 40, Issue:20
Structure--activity studies for alpha-amino-3-hydroxy-5-methyl-4-isoxazolepropanoic acid receptors: acidic hydroxyphenylalanines.
AID144470Binding affinity against N-methyl-D-aspartate glutamate receptor using [3H]-CPP as radioligand.1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID93262Effective concentration against human GluR6 expressed in HEK293 cells2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID57553Whole-cell voltage clamp recordings made from acutely isolated dorsal root ganglion neurons and Rmax value is reported.2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID145264Compound was evaluated for the inhibition of binding of [3H]glycine to NMDA receptor1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID144838Compound was evaluated for the inhibition of binding of [3H]- CPP to NMDA receptor1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID337887Displacement of [3H]kainic acid from kainate receptor1993Journal of natural products, Apr, Volume: 56, Issue:4
The role of receptor binding in drug discovery.
AID422612Agonist activity at rat recombinant GluR4 flip isomer expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID330940Increase in P2Y6 receptor protein expression in Wistar rat brain at 10 mg/kg, ip after 72 hrs by Western blotting2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID697852Inhibition of electric eel AChE at 2 mg/ml by Ellman's method2012Bioorganic & medicinal chemistry, Nov-15, Volume: 20, Issue:22
Exploration of natural compounds as sources of new bifunctional scaffolds targeting cholinesterases and beta amyloid aggregation: the case of chelerythrine.
AID93392Binding affinity against human ionotropic glutamate receptor ionotropic kainate 2 in HEK293 cells using [3H]kainate as radioligand2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID330951Induction of neuronal loss in Wistar rat neurons at 10 mg/kg, ip after 2-3 days2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID93113Compound was tested for binding affinity against human Ionotropic glutamate receptor AMPA 4 in HEK293 cells using [3H]AMPA as radioligand2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID26365pKa value by 1H NMR titration experiments; pK11996Journal of medicinal chemistry, Jan-19, Volume: 39, Issue:2
Syntheses and conformational analyses of glutamate analogs: 2-(2-carboxy-3-substituted-cyclopropyl)glycines as useful probes for excitatory amino acid receptors.
AID205942Repolarization time for compound was measured by pattern firing by APN and KVN blockade1988Journal of medicinal chemistry, Apr, Volume: 31, Issue:4
Synthesis, resolution, and absolute configuration of the isomers of the neuronal excitant 1-amino-1,3-cyclopentanedicarboxylic acid.
AID478463Displacement of [3H]KA from KA receptor in Sprague-Dawley rat brain membranes2010Journal of medicinal chemistry, May-27, Volume: 53, Issue:10
4-hydroxy-1,2,5-oxadiazol-3-yl moiety as bioisoster of the carboxy function. Synthesis, ionization constants, and molecular pharmacological characterization at ionotropic glutamate receptors of compounds related to glutamate and its homologues.
AID93411Ability to bind to Ionotropic glutamate receptor kainate (kainate 2) was evaluated.2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID92795Ability to inhibit the binding of [3H]AMPA radioligand to Ionotropic glutamate receptor AMPA in rat brain membranes.1998Journal of medicinal chemistry, Jul-02, Volume: 41, Issue:14
Heteroaryl analogues of AMPA. 2. Synthesis, absolute stereochemistry, photochemistry, and structure-activity relationships.
AID605077Neuroprotective activity in C57BL/6J mouse assessed as inhibition of kainic acid-induced caspase 3 activation in hippocampus region at 5 mg/kg, po administered 2 to 8 hrs prior to kainic acid challenge measured after 2 hrs by immunoblotting2010Journal of medicinal chemistry, Dec-09, Volume: 53, Issue:23
A synthetic 7,8-dihydroxyflavone derivative promotes neurogenesis and exhibits potent antidepressant effect.
AID180197Neuroprotective effect evaluated for excitatory amino acid receptor antagonism with the concentration at 1 uL in the corpus striatum of 7 rats with choline acetyltransferase as the marker enzyme.1991Journal of medicinal chemistry, Jan, Volume: 34, Issue:1
Novel class of amino acid antagonists at non-N-methyl-D-aspartic acid excitatory amino acid receptors. Synthesis, in vitro and in vivo pharmacology, and neuroprotection.
AID180198Neuroprotective effect evaluated for excitatory amino acid receptor antagonism with the concentration at 1 uL in the corpus striatum of 7 rats with glutamic acid decarboxylase as the marker enzyme.1991Journal of medicinal chemistry, Jan, Volume: 34, Issue:1
Novel class of amino acid antagonists at non-N-methyl-D-aspartic acid excitatory amino acid receptors. Synthesis, in vitro and in vivo pharmacology, and neuroprotection.
AID330948Increase in phagocytosis in Wistar rat microglia assessed as uptake of microspheres by FACS2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID478462Displacement of [3H]AMPA from AMPA receptor in Sprague-Dawley rat brain membranes2010Journal of medicinal chemistry, May-27, Volume: 53, Issue:10
4-hydroxy-1,2,5-oxadiazol-3-yl moiety as bioisoster of the carboxy function. Synthesis, ionization constants, and molecular pharmacological characterization at ionotropic glutamate receptors of compounds related to glutamate and its homologues.
AID326373Excitotoxicity against C57BL/6N mouse hippocampal neurons after 48 hrs by MTT assay2008Bioorganic & medicinal chemistry, Mar-01, Volume: 16, Issue:5
Structure-activity study of 2,3-benzodiazepin-4-ones noncompetitive AMPAR antagonists: identification of the 1-(4-amino-3-methylphenyl)-3,5-dihydro-7,8-ethylenedioxy-4H-2,3-benzodiazepin-4-one as neuroprotective agent.
AID339927Displacement of [3H]SYM2081 from rat recombinant iGluR52008Journal of medicinal chemistry, Jul-24, Volume: 51, Issue:14
Chemo-enzymatic synthesis of a series of 2,4-syn-functionalized (S)-glutamate analogues: new insight into the structure-activity relation of ionotropic glutamate receptor subtypes 5, 6, and 7.
AID26848The dissociation constant at omega-carboxyl or hydroxyl group in water at 20 degree Centigrade. (evaluated by Madsen. U et. al.)1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID26873The dissociation constant at ammonium group in water at 20 degree Centigrade. (evaluated by Madsen. U et. al.)1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID196268Depolarizing potency in new born rat spinal cord1996Journal of medicinal chemistry, Jan-19, Volume: 39, Issue:2
Syntheses and conformational analyses of glutamate analogs: 2-(2-carboxy-3-substituted-cyclopropyl)glycines as useful probes for excitatory amino acid receptors.
AID391444Displacement of (R,S)-[5-methyl-3H]AMPA from rat recombinant flop iGluR3 expressed in Sf9 cells2008Journal of medicinal chemistry, Oct-23, Volume: 51, Issue:20
1H-cyclopentapyrimidine-2,4(1H,3H)-dione-related ionotropic glutamate receptors ligands. structure-activity relationships and identification of potent and Selective iGluR5 modulators.
AID91466In vitro inhibition of [3H]KAIN binding to Ionotropic glutamate receptor kainate.1996Journal of medicinal chemistry, Apr-12, Volume: 39, Issue:8
Synthesis and pharmacology of highly selective carboxy and phosphono isoxazole amino acid AMPA receptor antagonists.
AID187655Effect on fractional [3H]GABA release from rat forebrain neurons in culture1990Journal of medicinal chemistry, Jun, Volume: 33, Issue:6
Synthesis and bioactivity of a new class of rigid glutamate analogues. Modulators of the N-methyl-D-aspartate receptor.
AID196569Electropharmacology on rat cortical slice preparation for EAA-evoked depolarizations; Depolarization evoked by the compound is not antagonised by 5 uM of NBQX but fully antagonised by 20 uM of NBQX.1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID129535In Vivo evaluation of the Compound administered through icv for tonicity in presence of the compound along with the antagonist NBQX in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID478464Displacement of [3H]CGP39653 from NMDA receptor in Sprague-Dawley rat brain membranes2010Journal of medicinal chemistry, May-27, Volume: 53, Issue:10
4-hydroxy-1,2,5-oxadiazol-3-yl moiety as bioisoster of the carboxy function. Synthesis, ionization constants, and molecular pharmacological characterization at ionotropic glutamate receptors of compounds related to glutamate and its homologues.
AID129397Convulsant property on icv (intracervical) injection measured as tonus seizures in mouse.1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID92963Binding affinity of compound was determined against Ionotropic glutamate receptor AMPA 2 using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID1553722Displacement of [3H]KA from KA receptor in rat brain synaptic cortical membranes after 60 mins by scintillation counting method2019Journal of medicinal chemistry, 05-09, Volume: 62, Issue:9
Use of the 4-Hydroxytriazole Moiety as a Bioisosteric Tool in the Development of Ionotropic Glutamate Receptor Ligands.
AID391445Displacement of (R,S)-[5-methyl-3H]AMPA from rat recombinant flop iGluR4 expressed in Sf9 cells2008Journal of medicinal chemistry, Oct-23, Volume: 51, Issue:20
1H-cyclopentapyrimidine-2,4(1H,3H)-dione-related ionotropic glutamate receptors ligands. structure-activity relationships and identification of potent and Selective iGluR5 modulators.
AID93254Displacement of [3H]kainate from human Ionotropic glutamate receptor ionotropic kainate 1 expressed in HEK293 cells1997Journal of medicinal chemistry, Oct-24, Volume: 40, Issue:22
Synthesis of willardiine and 6-azawillardiine analogs: pharmacological characterization on cloned homomeric human AMPA and kainate receptor subtypes.
AID255267Percent inhibition against Kainate receptor at a compound concentration of 1 uM2005Journal of medicinal chemistry, Nov-03, Volume: 48, Issue:22
2-n-Butyl-9-methyl-8-[1,2,3]triazol-2-yl-9H-purin-6-ylamine and analogues as A2A adenosine receptor antagonists. Design, synthesis, and pharmacological characterization.
AID339929Displacement of [3H]SYM2081 from rat recombinant iGluR72008Journal of medicinal chemistry, Jul-24, Volume: 51, Issue:14
Chemo-enzymatic synthesis of a series of 2,4-syn-functionalized (S)-glutamate analogues: new insight into the structure-activity relation of ionotropic glutamate receptor subtypes 5, 6, and 7.
AID231239Potency ratio (the ratio between the CD50 value of the drug in the presence of antagonist versus its CD50 value) for compound in presence of CPP; range 1.6-2.21998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID547804Selectivity window, ratio of EC50 for BESM cells to EC50 for Trypanosoma cruzi amastigotes infected in BESM cells2010Antimicrobial agents and chemotherapy, Aug, Volume: 54, Issue:8
Image-based high-throughput drug screening targeting the intracellular stage of Trypanosoma cruzi, the agent of Chagas' disease.
AID93399Whole-cell voltage clamp recordings made from HEK293 cells stably transfected with human Ionotropic glutamate receptor ionotropic kainate 2.Results are expressed as % of maximum inward current evoked2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID977602Inhibition of sodium fluorescein uptake in OATP1B3-transfected CHO cells at an equimolar substrate-inhibitor concentration of 10 uM2013Molecular pharmacology, Jun, Volume: 83, Issue:6
Structure-based identification of OATP1B1/3 inhibitors.
AID91444Depolarizing potency in Ionotropic glutamate receptor kainate sensitive neurons in the immature rat dorsal roots1996Journal of medicinal chemistry, Jan-19, Volume: 39, Issue:2
Syntheses and conformational analyses of glutamate analogs: 2-(2-carboxy-3-substituted-cyclopropyl)glycines as useful probes for excitatory amino acid receptors.
AID477557Agonist activity at recombinant GluA1 receptor flip isoform expressed in Xenopus oocytes co-expressing gamma2-TARP2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID196183The compound was tested for anticonvulsive activity expressed as seizure score after 4 hr of injection of kainic acid (10 mg/kg) in 15 rats2001Bioorganic & medicinal chemistry letters, Jul-09, Volume: 11, Issue:13
Anticonvulsant effects of new morphinan derivatives.
AID330941Induction of neuronal loss in Wistar rat hippocampal CA1 region assessed as increase in number of microglia by immunohistochemical analysis2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID330953Reversal of drug-induced phagocytosis in Wistar rat hippocampal CA3 region assessed as increase in number of microglia at 10 mg/kg, ip in presence of MRS25782007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID197546The compound was evaluated for agonist sensitivity to antagonist NBQX1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID93266Inhibition of [3H]kainate binding at ionotropic glutamate receptor kainate 21996Journal of medicinal chemistry, Sep-13, Volume: 39, Issue:19
Synthesis of a series of aryl kainic acid analogs and evaluation in cells stably expressing the kainate receptor humGluR6.
AID339928Displacement of [3H]SYM2081 from rat recombinant iGluR62008Journal of medicinal chemistry, Jul-24, Volume: 51, Issue:14
Chemo-enzymatic synthesis of a series of 2,4-syn-functionalized (S)-glutamate analogues: new insight into the structure-activity relation of ionotropic glutamate receptor subtypes 5, 6, and 7.
AID93265Binding affinity of compound was determined against Ionotropic glutamate receptor ionotropic kainate 2 using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID477139Agonist activity at rat recombinant GluA2 receptor flip isoform expressed in HEK293 cells assessed as effect on cyclothiazide-induced calcium flux by Fluo-4/AM staining-based fluorescence assay2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID26366pKa value by 1H NMR titration experiments; pK21996Journal of medicinal chemistry, Jan-19, Volume: 39, Issue:2
Syntheses and conformational analyses of glutamate analogs: 2-(2-carboxy-3-substituted-cyclopropyl)glycines as useful probes for excitatory amino acid receptors.
AID92951Displacement of [3H]AMPA from human Ionotropic glutamate receptor AMPA 1 expressed in HEK293 cells1997Journal of medicinal chemistry, Oct-24, Volume: 40, Issue:22
Synthesis of willardiine and 6-azawillardiine analogs: pharmacological characterization on cloned homomeric human AMPA and kainate receptor subtypes.
AID330942Induction of neuronal loss in Wistar rat hippocampal CA3 region assessed as increase in number of microglia by immunohistochemical analysis2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID1594727Toxicity in ddY mouse assessed as induction of scratching at 1.1 nmol dosed via intracerebroventricular injection2019Journal of natural products, 06-28, Volume: 82, Issue:6
Possible Biosynthetic Products and Metabolites of Kainic Acid from the Red Alga Digenea simplex and Their Biological Activity.
AID57552Effective concentration required for evoking response in HEK293 cell2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID92962Displacement of [3H]AMPA from human Ionotropic glutamate receptor AMPA 2 expressed in HEK293 cells1997Journal of medicinal chemistry, Oct-24, Volume: 40, Issue:22
Synthesis of willardiine and 6-azawillardiine analogs: pharmacological characterization on cloned homomeric human AMPA and kainate receptor subtypes.
AID26367pKa value by 1H NMR titration experiments; pK31996Journal of medicinal chemistry, Jan-19, Volume: 39, Issue:2
Syntheses and conformational analyses of glutamate analogs: 2-(2-carboxy-3-substituted-cyclopropyl)glycines as useful probes for excitatory amino acid receptors.
AID93719Inhibition of specific binding of [3H]kainate to Ionotropic glutamate receptor kainate in rat brain membranes1997Journal of medicinal chemistry, Sep-26, Volume: 40, Issue:20
Structure--activity studies for alpha-amino-3-hydroxy-5-methyl-4-isoxazolepropanoic acid receptors: acidic hydroxyphenylalanines.
AID93558Binding affinity against Ionotropic glutamate receptor kainate using [3H]KAIN as radioligand.1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID74822Binding affinity of compound was determined against Glutamate receptor (KA2) using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID93554Ability to inhibit the binding of [3H]-kainic acid radioligand to Ionotropic glutamate receptor kainate in rat brain membranes.1998Journal of medicinal chemistry, Jul-02, Volume: 41, Issue:14
Heteroaryl analogues of AMPA. 2. Synthesis, absolute stereochemistry, photochemistry, and structure-activity relationships.
AID422608Agonist activity at rat recombinant GluR2(Q) RNA-edited isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID477559Agonist activity at recombinant GluA3 receptor flop isoform expressed in Xenopus oocytes co-expressing gamma2-TARP2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID391447Displacement of [3H]kainic acid from rat recombinant iGluR6(V,C,R) receptor expressed in Sf9 cells2008Journal of medicinal chemistry, Oct-23, Volume: 51, Issue:20
1H-cyclopentapyrimidine-2,4(1H,3H)-dione-related ionotropic glutamate receptors ligands. structure-activity relationships and identification of potent and Selective iGluR5 modulators.
AID144607Compound was evaluated for binding affinity at N-methyl-D-aspartate glutamate receptor using [3H]CPP as radioligand1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID566256Inhibition of rat kainate receptor2010Bioorganic & medicinal chemistry, Nov-01, Volume: 18, Issue:21
Discovery of {1-[4-(2-{hexahydropyrrolo[3,4-c]pyrrol-2(1H)-yl}-1H-benzimidazol-1-yl)piperidin-1-yl]cyclooctyl}methanol, systemically potent novel non-peptide agonist of nociceptin/orphanin FQ receptor as analgesic for the treatment of neuropathic pain: de
AID93243Effective concentration against GluR5 expressed in HEK293 cells2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID74817Agonistic activity of compound on Glutamate receptor 5 using cell membranes prepared from HEK293 cells was expressed as percentage Rmax2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID330943Increase in P2Y6 receptor protein expression in Wistar rat microglia2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID92964Compound was tested for binding affinity against human Ionotropic glutamate receptor AMPA 2 in HK293 cells using [3H]AMPA as radioligand2000Journal of medicinal chemistry, May-18, Volume: 43, Issue:10
4-Alkyl- and 4-cinnamylglutamic acid analogues are potent GluR5 kainate receptor agonists.
AID330947Increase in UTP level in Wistar rat hippocampal neuron at 100 uM after 1 hr by microdialysis in presence of ARL671562007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID92354Compound was evaluated for binding affinity at Ionotropic glutamate receptor AMPA using [3H]AMPA as radioligand1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID422606Agonist activity at rat recombinant GluR1 flip isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID231235Potency ratio (the ratio between the CD50 value of the drug in the presence of antagonist versus its CD50 value) for compound in presence of CPP compound in presence of NBQX; range 6.3-14.61998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID611793Antagonist activity at non-desensitized homomeric rat GluK2 mutant expressed in Xenopus oocytes assessed as inhibition of (S)-glutamate-induced current by two-electrode voltage-clamp electrophysiology2011Journal of medicinal chemistry, Jul-14, Volume: 54, Issue:13
Selective kainate receptor (GluK1) ligands structurally based upon 1H-cyclopentapyrimidin-2,4(1H,3H)-dione: synthesis, molecular modeling, and pharmacological and biostructural characterization.
AID93112Binding affinity of compound was determined against Ionotropic glutamate receptor AMPA 4 using cell membranes prepared from HEK293 cells2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID330952Induction of phagocytosis in Wistar rat hippocampal CA3 region assessed as increase in number of microglia at 10 mg/kg, ip2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID129398In Vivo evaluation of the Compound administered through icv for the Clonic seizure presence alone in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID93400Electrophysiological activity at 1 uM domoate from HEK293 cells transfected with ionotropic glutamate receptor kainate 21996Journal of medicinal chemistry, Sep-13, Volume: 39, Issue:19
Synthesis of a series of aryl kainic acid analogs and evaluation in cells stably expressing the kainate receptor humGluR6.
AID26635The dissociation constant at alpha-carboxyl group in water at 20 degree Centigrade. (evaluated by Madsen. U et. al.)1999Journal of medicinal chemistry, Oct-07, Volume: 42, Issue:20
Synthesis and enantiopharmacology of new AMPA-kainate receptor agonists.
AID723868Binding affinity to rat GluA2-LBD (GluR2-S1S2J)2013Journal of medicinal chemistry, Feb-28, Volume: 56, Issue:4
Chemoenzymatic synthesis of new 2,4-syn-functionalized (S)-glutamate analogues and structure-activity relationship studies at ionotropic glutamate receptors and excitatory amino acid transporters.
AID197547The compound was evaluated for agonist sensitivity to antagonist R-APPA1994Journal of medicinal chemistry, Apr-01, Volume: 37, Issue:7
Resolution, absolute stereochemistry, and pharmacology of the S-(+)- and R-(-)-isomers of the apparent partial AMPA receptor agonist (R,S)-2-amino-3-(3-hydroxy-5-phenylisoxazol-4-yl)propionic acid [(R,S)-APPA].
AID547621Cytotoxicity against BESM cells after 88 hrs by HTS assay2010Antimicrobial agents and chemotherapy, Aug, Volume: 54, Issue:8
Image-based high-throughput drug screening targeting the intracellular stage of Trypanosoma cruzi, the agent of Chagas' disease.
AID477560Agonist activity at recombinant GluA4 receptor flop isoform expressed in Xenopus oocytes co-expressing gamma2-TARP2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID144320Compound was evaluated for the affinity of the N-methyl-D-aspartate glutamate receptor at 10 uM, partially antagonized by 5 uM NBQX and fully antagonized by 20 uM NBQX.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID422616Agonist activity at rat recombinant GluR6(Q) RNA-edited isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID179409Concentration that produces 50% displacement of [3H]-kainic acid from nerve cell membrane receptor sites1984Journal of medicinal chemistry, Jan, Volume: 27, Issue:1
Palladium (II)-catalyzed olefin-coupling reactions of kainic acid: effects of substitution on the isopropenyl group on receptor binding.
AID391442Displacement of (R,S)-[5-methyl-3H]AMPA from rat recombinant flop iGluR1 expressed in Sf9 cells2008Journal of medicinal chemistry, Oct-23, Volume: 51, Issue:20
1H-cyclopentapyrimidine-2,4(1H,3H)-dione-related ionotropic glutamate receptors ligands. structure-activity relationships and identification of potent and Selective iGluR5 modulators.
AID477558Agonist activity at recombinant GluA2 receptor flop isoform expressed in Xenopus oocytes co-expressing gamma2-TARP2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID93570Compound was evaluated for binding affinity at Ionotropic glutamate receptor kainate using [3H]- KAIN as radioligand1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID477135Agonist activity at recombinant GluA1 receptor flip isoform expressed in Xenopus oocytes2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID477119Agonist activity at recombinant GluA1 receptor flop isoform expressed in Xenopus oocytes2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID144459Ability to inhibit the binding of [3H]CPP radioligand to N-methyl-D-aspartate glutamate receptor in rat brain membranes.1998Journal of medicinal chemistry, Jul-02, Volume: 41, Issue:14
Heteroaryl analogues of AMPA. 2. Synthesis, absolute stereochemistry, photochemistry, and structure-activity relationships.
AID92946In vitro inhibition of [3H]CNQX binding to Ionotropic glutamate receptor AMPA.1996Journal of medicinal chemistry, Apr-12, Volume: 39, Issue:8
Synthesis and pharmacology of highly selective carboxy and phosphono isoxazole amino acid AMPA receptor antagonists.
AID93564Binding affinity was measured by [3H]- Ionotropic glutamate receptor ionotropic kainate binding assay.1992Journal of medicinal chemistry, Jan, Volume: 35, Issue:1
Heterocyclic excitatory amino acids. Synthesis and biological activity of novel analogues of AMPA.
AID330944Increase in P2Y6 receptor protein expression in Wistar rat astrocytes2007Nature, Apr-26, Volume: 446, Issue:7139
UDP acting at P2Y6 receptors is a mediator of microglial phagocytosis.
AID93557Binding affinity against Ionotropic glutamate receptor kainate by displacing [3H]KA from purified rat synaptic membranes1985Journal of medicinal chemistry, May, Volume: 28, Issue:5
Synthesis and structure-activity studies on excitatory amino acids structurally related to ibotenic acid.
AID93402Electrophysiological activity at 30 uM domoate from HEK293 cells transfected with ionotropic glutamate receptor kainate 21996Journal of medicinal chemistry, Sep-13, Volume: 39, Issue:19
Synthesis of a series of aryl kainic acid analogs and evaluation in cells stably expressing the kainate receptor humGluR6.
AID129519In Vivo evaluation of the Compound administered through icv for the Clonic seizure presence along with the radioligand [3H]- CPP in mice.1998Journal of medicinal chemistry, Sep-24, Volume: 41, Issue:20
Synthesis and pharmacology of a new AMPA-kainate receptor agonist with potent convulsant activity.
AID1594729Toxicity in ddY mouse assessed as induction of sudden jumping at 1.1 nmol dosed via intracerebroventricular injection2019Journal of natural products, 06-28, Volume: 82, Issue:6
Possible Biosynthetic Products and Metabolites of Kainic Acid from the Red Alga Digenea simplex and Their Biological Activity.
AID143782Binding affinity was measured by N-methyl-D-aspartate glutamate receptor 1/2A/2B/2C/2D binding assay.1992Journal of medicinal chemistry, Jan, Volume: 35, Issue:1
Heterocyclic excitatory amino acids. Synthesis and biological activity of novel analogues of AMPA.
AID93569Compound tested for binding affinity towards Ionotropic glutamate receptor kainate1984Journal of medicinal chemistry, May, Volume: 27, Issue:5
Ibotenic acid analogues. Synthesis and biological and in vitro activity of conformationally restricted agonists at central excitatory amino acid receptors.
AID92342Binding affinity at Ionotropic glutamate receptor AMPA, using [3H]AMPA receptor binding assay.1992Journal of medicinal chemistry, Jan, Volume: 35, Issue:1
Heterocyclic excitatory amino acids. Synthesis and biological activity of novel analogues of AMPA.
AID391443Displacement of (R,S)-[5-methyl-3H]AMPA from rat recombinant flop iGluR2(R) expressed in Sf9 cells2008Journal of medicinal chemistry, Oct-23, Volume: 51, Issue:20
1H-cyclopentapyrimidine-2,4(1H,3H)-dione-related ionotropic glutamate receptors ligands. structure-activity relationships and identification of potent and Selective iGluR5 modulators.
AID391446Displacement of [3H]SYM2081 from rat recombinant iGluR5(Q)1b expressed in Sf9 cells2008Journal of medicinal chemistry, Oct-23, Volume: 51, Issue:20
1H-cyclopentapyrimidine-2,4(1H,3H)-dione-related ionotropic glutamate receptors ligands. structure-activity relationships and identification of potent and Selective iGluR5 modulators.
AID477147Agonist activity at recombinant GluA2A4 receptor flip isoform expressed in Xenopus oocytes2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID57550Agonistic activity of compound on rat dorsal root ganglion cells was expressed as percentage Rmax2000Bioorganic & medicinal chemistry letters, Aug-21, Volume: 10, Issue:16
4-Alkylidenyl glutamic acids, potent and selective GluR5 agonists.
AID422617Agonist activity at rat recombinant GluR6(Q) RNA-edited isoform expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay relative to glutamic acid2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID422611Agonist activity at rat recombinant GluR3 flip isomer expressed in HEK293 cells assessed as increase in intracellular calcium level by Fluo-4/AM assay relative to glutamic acid2009Journal of medicinal chemistry, Aug-13, Volume: 52, Issue:15
The glutamate receptor GluR5 agonist (S)-2-amino-3-(3-hydroxy-7,8-dihydro-6H-cyclohepta[d]isoxazol-4-yl)propionic acid and the 8-methyl analogue: synthesis, molecular pharmacology, and biostructural characterization.
AID477140Agonist activity at rat recombinant GluA3 receptor flip isoform expressed in HEK293 cells assessed as effect on cyclothiazide-induced calcium flux by Fluo-4/AM staining-based fluorescence assay2010Bioorganic & medicinal chemistry, Feb-15, Volume: 18, Issue:4
Developing a complete pharmacology for AMPA receptors: a perspective on subtype-selective ligands.
AID977611Experimentally measured binding affinity data (Kd) for protein-ligand complexes derived from PDB2003Proceedings of the National Academy of Sciences of the United States of America, May-13, Volume: 100, Issue:10
Tuning activation of the AMPA-sensitive GluR2 ion channel by genetic adjustment of agonist-induced conformational changes.
AID1811Experimentally measured binding affinity data derived from PDB2003Proceedings of the National Academy of Sciences of the United States of America, May-13, Volume: 100, Issue:10
Tuning activation of the AMPA-sensitive GluR2 ion channel by genetic adjustment of agonist-induced conformational changes.
AID588501High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Lethal Factor Protease, MLPCN compound set2010Current protocols in cytometry, Oct, Volume: Chapter 13Microsphere-based flow cytometry protease assays for use in protease activity detection and high-throughput screening.
AID588501High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Lethal Factor Protease, MLPCN compound set2006Cytometry. Part A : the journal of the International Society for Analytical Cytology, May, Volume: 69, Issue:5
Microsphere-based protease assays and screening application for lethal factor and factor Xa.
AID588501High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Lethal Factor Protease, MLPCN compound set2010Assay and drug development technologies, Feb, Volume: 8, Issue:1
High-throughput multiplex flow cytometry screening for botulinum neurotoxin type a light chain protease inhibitors.
AID588499High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Botulinum neurotoxin light chain A protease, MLPCN compound set2010Current protocols in cytometry, Oct, Volume: Chapter 13Microsphere-based flow cytometry protease assays for use in protease activity detection and high-throughput screening.
AID588499High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Botulinum neurotoxin light chain A protease, MLPCN compound set2006Cytometry. Part A : the journal of the International Society for Analytical Cytology, May, Volume: 69, Issue:5
Microsphere-based protease assays and screening application for lethal factor and factor Xa.
AID588499High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Botulinum neurotoxin light chain A protease, MLPCN compound set2010Assay and drug development technologies, Feb, Volume: 8, Issue:1
High-throughput multiplex flow cytometry screening for botulinum neurotoxin type a light chain protease inhibitors.
AID588497High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Botulinum neurotoxin light chain F protease, MLPCN compound set2010Current protocols in cytometry, Oct, Volume: Chapter 13Microsphere-based flow cytometry protease assays for use in protease activity detection and high-throughput screening.
AID588497High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Botulinum neurotoxin light chain F protease, MLPCN compound set2006Cytometry. Part A : the journal of the International Society for Analytical Cytology, May, Volume: 69, Issue:5
Microsphere-based protease assays and screening application for lethal factor and factor Xa.
AID588497High-throughput multiplex microsphere screening for inhibitors of toxin protease, specifically Botulinum neurotoxin light chain F protease, MLPCN compound set2010Assay and drug development technologies, Feb, Volume: 8, Issue:1
High-throughput multiplex flow cytometry screening for botulinum neurotoxin type a light chain protease inhibitors.
AID1794808Fluorescence-based screening to identify small molecule inhibitors of Plasmodium falciparum apicoplast DNA polymerase (Pf-apPOL).2014Journal of biomolecular screening, Jul, Volume: 19, Issue:6
A High-Throughput Assay to Identify Inhibitors of the Apicoplast DNA Polymerase from Plasmodium falciparum.
AID1794808Fluorescence-based screening to identify small molecule inhibitors of Plasmodium falciparum apicoplast DNA polymerase (Pf-apPOL).
AID1159550Human Phosphogluconate dehydrogenase (6PGD) Inhibitor Screening2015Nature cell biology, Nov, Volume: 17, Issue:11
6-Phosphogluconate dehydrogenase links oxidative PPP, lipogenesis and tumour growth by inhibiting LKB1-AMPK signalling.
AID1159607Screen for inhibitors of RMI FANCM (MM2) intereaction2016Journal of biomolecular screening, Jul, Volume: 21, Issue:6
A High-Throughput Screening Strategy to Identify Protein-Protein Interaction Inhibitors That Block the Fanconi Anemia DNA Repair Pathway.
[information is prepared from bioassay data collected from National Library of Medicine (NLM), extracted Dec-2023]

Research

Studies (9,267)

TimeframeStudies, This Drug (%)All Drugs %
pre-19901831 (19.76)18.7374
1990's3104 (33.50)18.2507
2000's2344 (25.29)29.6817
2010's1611 (17.38)24.3611
2020's377 (4.07)2.80
[information is prepared from research data collected from National Library of Medicine (NLM), extracted Dec-2023]

Market Indicators

Research Demand Index: 46.09

According to the monthly volume, diversity, and competition of internet searches for this compound, as well the volume and growth of publications, there is estimated to be strong demand-to-supply ratio for research on this compound.

MetricThis Compound (vs All)
Research Demand Index46.09 (24.57)
Research Supply Index9.16 (2.92)
Research Growth Index4.57 (4.65)
Search Engine Demand Index78.94 (26.88)
Search Engine Supply Index2.00 (0.95)

This Compound (46.09)

All Compounds (24.57)

Study Types

Publication TypeThis drug (%)All Drugs (%)
Trials3 (0.03%)5.53%
Reviews212 (2.22%)6.00%
Case Studies7 (0.07%)4.05%
Observational0 (0.00%)0.25%
Other9,318 (97.67%)84.16%
[information is prepared from research data collected from National Library of Medicine (NLM), extracted Dec-2023]