methane has been researched along with Muscle Contraction in 27 studies
Methane: The simplest saturated hydrocarbon. It is a colorless, flammable gas, slightly soluble in water. It is one of the chief constituents of natural gas and is formed in the decomposition of organic matter. (Grant & Hackh's Chemical Dictionary, 5th ed)
methane : A one-carbon compound in which the carbon is attached by single bonds to four hydrogen atoms. It is a colourless, odourless, non-toxic but flammable gas (b.p. -161degreeC).
Muscle Contraction: A process leading to shortening and/or development of tension in muscle tissue. Muscle contraction occurs by a sliding filament mechanism whereby actin filaments slide inward among the myosin filaments.
Excerpt | Relevance | Reference |
---|---|---|
"Methane has been associated with constipation-predominant irritable bowel syndrome, slowing intestinal transit time by augmenting contractile activity." | 1.46 | The effects and mechanism of action of methane on ileal motor function. ( Hussain, Z; Lee, YH; Lee, YJ; Park, H; Park, YM, 2017) |
"Methane production was inversely correlated with fractional outflow rate for ruminal particulate matter (r = -." | 1.28 | Effects of changes in frequency of reticular contractions on fluid and particulate passage rates in cattle. ( Hardin, RT; Mathison, GW; Okine, EK, 1989) |
Timeframe | Studies, this research(%) | All Research% |
---|---|---|
pre-1990 | 5 (18.52) | 18.7374 |
1990's | 0 (0.00) | 18.2507 |
2000's | 4 (14.81) | 29.6817 |
2010's | 12 (44.44) | 24.3611 |
2020's | 6 (22.22) | 2.80 |
Authors | Studies |
---|---|
Park, YM | 1 |
Lee, YJ | 1 |
Hussain, Z | 1 |
Lee, YH | 1 |
Park, H | 2 |
Jahng, J | 1 |
Jung, IS | 1 |
Choi, EJ | 1 |
Conklin, JL | 1 |
Pimentel, M | 1 |
Lin, HC | 1 |
Enayati, P | 1 |
van den Burg, B | 1 |
Lee, HR | 1 |
Chen, JH | 1 |
Park, S | 1 |
Kong, Y | 1 |
Conklin, J | 1 |
Jouët, P | 1 |
Sabaté, JM | 1 |
Cuillerier, E | 1 |
Coffin, B | 1 |
Lémann, M | 1 |
Jian, R | 1 |
Flourié, B | 1 |
Okine, EK | 1 |
Mathison, GW | 1 |
Hardin, RT | 1 |
Kawazu, M | 1 |
Kanno, T | 1 |
Saito, S | 1 |
Tamaki, H | 1 |
Kilen, SM | 1 |
Harris, WS | 1 |
Van Stee, EW | 1 |
Back, KC | 1 |
Reid, CS | 1 |
Titchen, DA | 1 |
Dong, L | 2 |
Ren, M | 2 |
Wang, Y | 2 |
Qiao, J | 1 |
Wu, Y | 2 |
He, J | 2 |
Wei, X | 2 |
Di, J | 3 |
Li, Q | 2 |
Son, W | 1 |
Lee, JM | 1 |
Kim, SH | 3 |
Kim, HW | 1 |
Cho, SB | 1 |
Suh, D | 2 |
Chun, S | 1 |
Choi, C | 1 |
Xu, P | 2 |
Zhou, Y | 1 |
Zhou, T | 1 |
Chang, J | 1 |
Wang, X | 2 |
Chen, W | 1 |
Li, K | 1 |
Shen, H | 1 |
Xue, W | 1 |
Chu, H | 1 |
Hu, X | 1 |
Wang, Z | 1 |
Mu, J | 2 |
Li, N | 5 |
Zhou, X | 1 |
Fang, S | 3 |
Haines, CS | 4 |
Park, JW | 1 |
Qin, S | 1 |
Yuan, N | 1 |
Xu, J | 1 |
Tawfick, S | 1 |
Kim, H | 2 |
Conlin, P | 1 |
Cho, M | 1 |
Cho, K | 1 |
Oh, J | 2 |
Nielsen, S | 1 |
Alberto, KA | 1 |
Razal, JM | 1 |
Foroughi, J | 3 |
Spinks, GM | 4 |
Kim, SJ | 5 |
Ding, J | 1 |
Leng, J | 1 |
Baughman, RH | 6 |
Lee, JA | 1 |
Kim, KJ | 1 |
Lepró, X | 2 |
Ovalle-Robles, R | 1 |
Duduta, M | 1 |
Hajiesmaili, E | 1 |
Zhao, H | 1 |
Wood, RJ | 1 |
Clarke, DR | 1 |
Jung de Andrade, M | 2 |
Gao, E | 1 |
Wang, H | 1 |
Hou, C | 1 |
Zhang, Q | 1 |
Zhu, M | 1 |
Qian, D | 1 |
Lu, H | 1 |
Kongahage, D | 1 |
Talebian, S | 1 |
Spinks, G | 1 |
Ware, TH | 1 |
Sim, HJ | 1 |
Lee, DY | 1 |
Jang, Y | 1 |
Ramón-Azcón, J | 1 |
Ahadian, S | 1 |
Estili, M | 1 |
Liang, X | 1 |
Ostrovidov, S | 1 |
Kaji, H | 1 |
Shiku, H | 1 |
Ramalingam, M | 1 |
Nakajima, K | 1 |
Sakka, Y | 1 |
Khademhosseini, A | 1 |
Matsue, T | 1 |
Grasa, L | 1 |
Ansón-Casaos, A | 1 |
Martínez, MT | 1 |
Albendea, R | 1 |
De Martino, A | 1 |
Gonzalo, S | 1 |
Murillo, MD | 1 |
Kwon, CH | 1 |
Park, K | 1 |
Mun, TJ | 1 |
Aliev, AE | 1 |
Schulz, M | 1 |
Lima, MD | 1 |
Kozlov, ME | 1 |
Chen, Y | 1 |
Ware, T | 1 |
Shin, MK | 1 |
Machado, LD | 1 |
Fonseca, AF | 1 |
Madden, JD | 1 |
Voit, WE | 1 |
Galvão, DS | 1 |
Lookin, O | 1 |
Boulali, N | 1 |
Cazorla, O | 1 |
de Tombe, P | 1 |
Wu, F | 1 |
Gao, A | 1 |
Liu, J | 1 |
Shen, Y | 1 |
Meng, J | 1 |
Wen, T | 1 |
Xu, L | 1 |
Xu, H | 1 |
Sugiura, S | 1 |
Yasuda, S | 1 |
Yamashita, H | 1 |
Kato, K | 1 |
Saeki, Y | 1 |
Kaneko, H | 1 |
Suda, Y | 1 |
Nagai, R | 1 |
Sugi, H | 1 |
Crespi, F | 1 |
Campagnola, M | 1 |
Neudeck, A | 1 |
McMillan, K | 1 |
Rossetti, Z | 1 |
Pastorino, A | 1 |
Garbin, U | 1 |
Fratta-Pasini, A | 1 |
Reggiani, A | 1 |
Gaviraghi, G | 1 |
Cominacini, L | 1 |
Trial | Phase | Enrollment | Study Type | Start Date | Status | ||
---|---|---|---|---|---|---|---|
Evaluation of the Efficacy and Safety of Single, Daily Oral Doses of SYN-010 Compared to Placebo in Adult Patients With Irritable Bowel Syndrome With Constipation (EASE-DO)[NCT03763175] | Phase 2 | 59 participants (Actual) | Interventional | 2018-12-24 | Terminated (stopped due to Interim Futility Analysis) | ||
[information is prepared from clinicaltrials.gov, extracted Sep-2024] |
Change in exhaled methane level as a potential predictor of constipation improvement will be evaluated by comparing single-point breath tests pre- and post-treatment. (NCT03763175)
Timeframe: After completing course of SYN-010
Intervention | particles per million (Mean) |
---|---|
SYN-010 21 mg | -22.623 |
SYN-010 42 mg | -4.785 |
Placebo | -10.081 |
Subjects will record their daily bowel movements throughout the duration of the study. Change in weekly average number of CSBMs will be evaluated by comparing reported values pre- and post-treatment. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Weekly average CSBMs (Least Squares Mean) |
---|---|
SYN-010 21 mg | 1.53 |
SYN-010 42 mg | 0.32 |
Placebo | 0.51 |
Change in exhaled methane level as a potential predictor of constipation improvement will be evaluated by comparing lactulose breath tests pre- and post-treatment. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | particles per million * min (Mean) |
---|---|
SYN-010 21 mg | -18.678 |
SYN-010 42 mg | -20.137 |
Placebo | -39.199 |
An overall abdominal pain intensity responder is defined as a patient with a weekly abdominal pain intensity response in at least 50% of the weeks of treatment (6 of 12 weeks). A weekly response abdominal pain intensity response is defined as a decrease in the patient's weekly average score for worst abdominal pain in the past 24 hours of at least 30% compared to baseline, with stool frequency unchanged or improved compared with baseline. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Participants (Count of Participants) |
---|---|
SYN-010 21 mg | 4 |
SYN-010 42 mg | 4 |
Placebo | 7 |
An overall bloating responder is defined as a patient with a weekly bloating response in at least 50% of the weeks of treatment (6 of 12 weeks). A weekly bloating response is defined as a weekly average bloating score of at least 30% improvement compared to baseline, with stool frequency unchanged or improved compared with baseline. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Participants (Count of Participants) |
---|---|
SYN-010 21 mg | 3 |
SYN-010 42 mg | 3 |
Placebo | 1 |
An overall 12-week responder is defined as a patient with a weekly response in at least 50% of the weeks of treatment (6 of 12 weeks). A weekly response is defined as a decrease in the patient's weekly average score for worst abdominal pain in the past 24 hours of at least 30% compared to baseline and a stool frequency increase of 1 or more CSBMs per week compared with baseline. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Participants (Count of Participants) |
---|---|
SYN-010 21 mg | 1 |
SYN-010 42 mg | 2 |
Placebo | 6 |
An overall stool frequency responder is defined as a patient with a weekly stool frequency response in at least 50% of the weeks of treatment (6 of 12 weeks). A weekly stool frequency response is defined as a stool frequency increase of 1 or more CSBMs per week compared with baseline, with abdominal pain unchanged or improved compared with baseline. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Participants (Count of Participants) |
---|---|
SYN-010 21 mg | 4 |
SYN-010 42 mg | 6 |
Placebo | 9 |
Subjects will record their use of rescue medication throughout the study period. Proportion of patients using rescue medication after completing the 12-week course of treatment will be compared to those reporting usage at baseline screening period. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Participants (Count of Participants) |
---|---|
SYN-010 21 mg | 9 |
SYN-010 42 mg | 11 |
Placebo | 8 |
Outcome will be assessed by evaluating proportion of patients reporting adequate relief pre- and post-treatment on validated questionnaire. (NCT03763175)
Timeframe: After completing 12-week course of SYN-010
Intervention | Participants (Count of Participants) |
---|---|
SYN-010 21 mg | 1 |
SYN-010 42 mg | 2 |
Placebo | 6 |
1 review available for methane and Muscle Contraction
Article | Year |
---|---|
New twist on artificial muscles.
Topics: Biomimetic Materials; Mechanical Phenomena; Muscle Contraction; Muscles; Nanotubes, Carbon; Polymers | 2016 |
2 trials available for methane and Muscle Contraction
Article | Year |
---|---|
Methane, a gas produced by enteric bacteria, slows intestinal transit and augments small intestinal contractile activity.
Topics: Animals; Breath Tests; Dogs; Dose-Response Relationship, Drug; Gastrointestinal Motility; Guinea Pig | 2006 |
Low-dose lactulose produces a tonic contraction in the human colon.
Topics: Administration, Oral; Adult; Breath Tests; Cathartics; Colon; Enema; Female; Fermentation; Gastroint | 2006 |
24 other studies available for methane and Muscle Contraction
Article | Year |
---|---|
The effects and mechanism of action of methane on ileal motor function.
Topics: Animals; Enteric Nervous System; Gastrointestinal Motility; Guinea Pigs; Ileum; Male; Methane; Muscl | 2017 |
The effects of methane and hydrogen gases produced by enteric bacteria on ileal motility and colonic transit time.
Topics: Animals; Colon; Gastrointestinal Motility; Gastrointestinal Tract; Gastrointestinal Transit; Guinea | 2012 |
Effects of changes in frequency of reticular contractions on fluid and particulate passage rates in cattle.
Topics: Animal Feed; Animals; Cattle; Digestion; Gastrointestinal Motility; Hot Temperature; Male; Methane; | 1989 |
5-hydroxy-3-piperidylidenemethane derivatives as spasmolytics.
Topics: Animals; Depression, Chemical; Gastrointestinal Motility; Guinea Pigs; Ileum; In Vitro Techniques; L | 1972 |
Direct depression of myocardial contractility by the aerosol propellant gas, dichlorodifluoromethane.
Topics: Aerosols; Anaerobiosis; Animals; Anti-Arrhythmia Agents; Chlorine; Chromatography, Gas; Depression, | 1972 |
The mechanism of the peripheral vascular resistance change during exposure of dogs to bromotrifluoromethane.
Topics: Acetylcholine; Animals; Atropine; Blood Pressure; Dogs; Electric Stimulation; Fluorine; Hexamethoniu | 1972 |
Reflex stimulation of movements of the rumen in decerebrate sheep.
Topics: Animals; Atropine; Carbon Dioxide; Decerebrate State; Electric Stimulation; Eructation; Methane; Mus | 1965 |
Self-sensing coaxial muscle fibers with bi-lengthwise actuation.
Topics: Biomimetics; Muscle Contraction; Muscle Fibers, Skeletal; Nanotubes, Carbon; Robotics | 2021 |
High-Power Hydro-Actuators Fabricated from Biomimetic Carbon Nanotube Coiled Yarns with Fast Electrothermal Recovery.
Topics: Biomimetics; Electricity; Muscle Contraction; Nanotubes, Carbon; Water | 2022 |
Stepwise Artificial Yarn Muscles with Energy-Free Catch States Driven by Aluminum-Ion Insertion.
Topics: Aluminum; Ions; Muscle Contraction; Muscle, Skeletal; Nanotubes, Carbon | 2022 |
Wet-Driven Bionic Actuators from Wool Artificial Yarn Muscles.
Topics: Animals; Bionics; Muscle Contraction; Muscles; Nanotubes, Carbon; Wool | 2023 |
Unipolar stroke, electroosmotic pump carbon nanotube yarn muscles.
Topics: Artificial Organs; Muscle Contraction; Muscles; Nanotubes, Carbon | 2021 |
Electrochemically Powered, Energy-Conserving Carbon Nanotube Artificial Muscles.
Topics: Electrochemical Techniques; Muscle Contraction; Muscles; Nanotubes, Carbon; Robotics; Tensile Streng | 2017 |
Realizing the potential of dielectric elastomer artificial muscles.
Topics: Artificial Organs; Elastomers; Electricity; Electrodes; Humans; Muscle Contraction; Muscles; Nanotub | 2019 |
Sheath-run artificial muscles.
Topics: Artificial Organs; Carbon Fiber; Muscle Contraction; Muscle Fibers, Skeletal; Nanotubes, Carbon; Ten | 2019 |
Dielectrophoretically aligned carbon nanotubes to control electrical and mechanical properties of hydrogels to fabricate contractile muscle myofibers.
Topics: Animals; Biocompatible Materials; Cell Line; Cell Proliferation; Cell Survival; Elastic Modulus; Ele | 2013 |
Single-walled carbon nanotubes (SWCNTs) enhance KCl-, acetylcholine-, and serotonin-induced contractions and evoke oxidative stress on rabbit ileum.
Topics: Acetylcholine; Animals; Drug Synergism; Gastrointestinal Motility; Ileum; Male; Muscle Contraction; | 2014 |
Bio-inspired, Moisture-Powered Hybrid Carbon Nanotube Yarn Muscles.
Topics: Animals; Artificial Organs; Humans; Humidity; Micro-Electrical-Mechanical Systems; Microscopy, Elect | 2016 |
Materials science. Speeding up artificial muscles.
Topics: Muscle Contraction; Muscles; Nanotubes, Carbon; Tensile Strength | 2012 |
Electrically, chemically, and photonically powered torsional and tensile actuation of hybrid carbon nanotube yarn muscles.
Topics: Absorption; Electricity; Hot Temperature; Hydrogen; Muscle Contraction; Muscles; Nanotubes, Carbon; | 2012 |
Impact of stretch on sarcomere length variability in isolated fully relaxed rat cardiac myocytes.
Topics: Animals; Carbon Fiber; Muscle Contraction; Myocardium; Myocytes, Cardiac; Rats; Rest; Sarcomeres | 2023 |
High Modulus Conductive Hydrogels Enhance In Vitro Maturation and Contractile Function of Primary Cardiomyocytes for Uses in Drug Screening.
Topics: Animals; Antineoplastic Agents; Biocompatible Materials; Carbon Fiber; Cell Differentiation; Cell Pr | 2018 |
Measurement of force developed by a single cardiac myocyte using novel carbon fibers.
Topics: Animals; Biochemistry; Carbon; Carbon Fiber; Cell Membrane; Graphite; Heart Ventricles; Male; Muscle | 2003 |
Can voltammetry measure nitrogen monoxide (NO) and/or nitrites?
Topics: 2-Amino-5-phosphonovalerate; Animals; Aorta; Carbon; Carbon Fiber; Electrophysiology; Enzyme Inhibit | 2001 |