brine and triphosphoric-acid

brine has been researched along with triphosphoric-acid* in 2 studies

Other Studies

2 other study(ies) available for brine and triphosphoric-acid

ArticleYear
Nitrite-cured color and phosphate-mediated water binding of pork muscle proteins as affected by calcium in the curing solution.
    Journal of food science, 2012, Volume: 77, Issue:7

    Calcium is a mineral naturally present in water and may be included into meat products during processing thereby influencing meat quality. Phosphates improve myofibril swelling and meat water-holding capacity (WHC) but can be sensitive to calcium precipitation. In this study, pork shoulder meat was used to investigate the impact of calcium at 0, 250, and 500 ppm and phosphate type [sodium pyrophosphate (PP), tripolyphosphate (TPP), and hexametaphopshate (HMP)] at 10 mM on nitrite-cured protein extract color at various pH levels (5.5, 6.0, and 6.5) and crude myofibril WHC at pH 6.0. Neither calcium nor phosphates present in the curing brines significantly affected the cured color. Increasing the pH tended to promote the formation of metmyoglobin instead of nitrosylmyoglobin. The ability of PP to enhance myofibril WHC was hampered (P < 0.05) by increasing the calcium concentration due to PP precipitation. Calcium also decreased the solubility of TPP but did not influence its enhancement of WHC. On the other hand, HMP was more tolerant of calcium but the soluble Ca-HMP complex was less effective than free HMP to promote water binding by myofibrils. The depressed muscle fiber swelling responding to added calcium as evidenced by phase contrast microscopy substantiated, to a certain extent, the deleterious effect of calcium, suggesting that hardness of curing water can significantly affect the quality of cured meat products.. Although not affecting nitrite-cured color, calcium hampers the efficacy of phosphates to promote water binding by muscle proteins, underscoring the importance of water quality for brine-enhanced meat products.

    Topics: Animals; Calcium; Color; Diphosphates; Food Handling; Hydrogen-Ion Concentration; Meat Products; Muscle Proteins; Myofibrils; Myoglobin; Nitrites; Phosphates; Polyphosphates; Salts; Solubility; Solutions; Swine; Water; Water Quality

2012
Evaluation of 0.1% ammonium hydroxide to replace sodium tripolyphosphate in fresh meat injection brines.
    Journal of food science, 2009, Volume: 74, Issue:7

    Paired USDA Select beef strip loins (n = 10), aged 2 d, were injected with either an alkaline-based (3.6% sodium chloride, 1% Herbalox seasoning, adjusted to pH 10 with ammonium hydroxide [approximately 0.1%, FFC grade]) or a phosphate-based (3.6% sodium chloride, 1% Herbalox seasoning, 4.5% sodium tripolyphosphate) brine. Steaks were evaluated for 19 d. Overall, phosphate-injected steaks performed better than alkaline-injected steaks with respect to cook yield, water holding capacity, lipid oxidation, color stability, tenderness, and juiciness. Phosphate-injected steaks also had less purge than alkaline-injected steaks, as confirmed by composition analysis. Phosphate-injected steaks were higher in moisture and ash content, and were nearly 2% lower in protein content. Alkaline-injected steaks had significantly lower aerobic (approximately 1 log lower) and anaerobic (approximately 2 log lower) plate counts. Final meat pH probably contributed to the differences observed between treatments. The final pH of phosphate-injected steak was 5.99 while that of alkaline-injected steak was 5.73. Further research should be conducted to determine the concentration of ammonium hydroxide needed in the alkaline-based brine to increase the final meat pH to similar levels found in the phosphate-injected steaks.

    Topics: Ammonium Hydroxide; Animals; Cattle; Colony Count, Microbial; Flavoring Agents; Food Handling; Humans; Hydrogen-Ion Concentration; Hydroxides; Lipid Peroxidation; Meat; Pigmentation; Polyphosphates; Quality Control; Quaternary Ammonium Compounds; Salts; Sensation; Shear Strength

2009