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An improved method for constructing and selectively silanizing double-barreled, neutral liquid-carrier, ion-selective microelectrodesInward flux of lactate⁻ through monocarboxylate transporters contributes to regulatory volume increase in mouse muscle fibresThe effect of oral sodium acetate administration on plasma acetate concentration and acid-base state in horses.Do multiple ionic interactions contribute to skeletal muscle fatigue?Nutritional aspects of post exercise skeletal muscle glycogen synthesis in horses: a comparative review.Pulmonary gas exchange and acid-base balance during exercise.Effects of gas exchange on acid-base balance.Reduced Dental Plaque Formation in Dogs Drinking a Solution Containing Natural Antimicrobial Herbal Enzymes and Organic Matcha Green Tea.Lactate and glucose interactions during rest and exercise in men: effect of exogenous lactate infusion.Hematological and acid-base changes in men during prolonged exercise with and without sodium-lactate infusion.Oral acetate supplementation after prolonged moderate intensity exercise enhances early muscle glycogen resynthesis in horses.A Time Course Evaluation of Inflammatory and Oxidative Markers Following High Intensity Exercise in Horses: a Pilot Study.Simulated digest of a glucosamine-based equine nutraceutical modifies effect of IL-1 in a cartilage explant model of inflammation.Anti-inflammatory and chondroprotective effects of nutraceuticals from Sasha's Blend in a cartilage explant model of inflammation.Association of maximum voluntary dietary intake of freeze-dried garlic with Heinz body anemia in horses.Fine structure of the abdominal epidermis of the adult mudpuppy, Necturus maculosus (Rafinesque)Increased flow rate and papaverine increase K+ exchange in perfused rat hind-limb skeletal muscleExercise: a paradigm for multi-system control of acid-base stateDistribution of lactate and other ions in inactive skeletal muscle: influence of hyperkalemic lactacidosisCombating muscle fatigue: extracellular lactic acidosis and catecholaminesFrusemide results in an extracellular to intracellular fluid shift in horsesHydration of exercised standardbred racehorses assessed noninvasively using multi-frequency bioelectrical impedance analysisEffects of dietary strong acid anion challenge on regulation of acid-base balance in sheepIntracellular [H+]: a determinant of cell volume in skeletal muscleCounterpoint: Lactic acid is not the only physicochemical contributor to the acidosis of exerciseLast word on point:counterpoint: lactate is/is not the only physicochemical contributor to the acidosis of exerciseFactors contributing to plasma TCO2 and acid-base state in Ontario Standardbred racehorsesLactate: metabolic fuel or poison for racehorses?Volume regulation in mammalian skeletal muscle: the role of sodium-potassium-chloride cotransporters during exposure to hypertonic solutionsGastric emptying, intestinal absorption of electrolytes and exercise performance in electrolyte-supplemented horsesEvaluation of inflammatory responses induced via intra-articular injection of interleukin-1 in horses receiving a dietary nutraceutical and assessment of the clinical effects of long-term nutraceutical administration
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Q24815924-395BCDC9-FD89-4CD0-832B-F42343F7E666Q35078397-B40AE56B-07CF-4660-A63F-363D561820B2Q36456962-B0571359-BC83-4A1D-B0E3-A67CFC57CC54Q37203664-5CE90BD2-F06B-4206-9EB1-D90F859A0F88Q37757038-A1147939-7E8D-4EDE-BCDA-537A36E35DF8Q38110521-D92F36B8-663C-4FC7-9575-53455611101EQ38110759-61992CEF-2B6E-4C33-BD4B-5B79F0A6635CQ42108432-8CFC814C-6A37-4B62-8A03-5AAFDA44BDBDQ44201765-897910BE-05AD-4913-9597-43572F693264Q45099511-5904A4CA-3E51-451A-A998-3D796A049681Q46017604-330190EF-96E6-4F75-8376-D791F52D1CC0Q46273787-1ED65909-4275-47BF-9D19-E7A17FBD6402Q46602020-05661768-35F3-4152-BD37-6D124B2193BCQ50672933-10695FFD-C958-4CF0-ADBB-2B9385E80F94Q55040784-FCDFF613-AC39-4C60-A144-70B7DE7F9239Q70800573-46AA7A19-04AF-4483-99D1-B716EE1BC54DQ73118057-B8FFDB63-2AD0-4757-8C38-2D116EFE6EBCQ73436022-20D6A8D9-5A97-426A-AE1A-283053F8738CQ74422354-B6EEA692-A5A8-49C1-9DA7-8AC70BC2708AQ80018644-E4BA03DD-9CF2-4118-A32A-E1CEF9903D63Q80083026-D31AA293-9E19-4FF3-8C4D-BAC1B8648744Q80083066-0239CBE9-D25A-4533-80F3-CA78FDBC4A2EQ80341252-2CC3249A-B189-4E5C-852C-7C92FE5EE51EQ81269843-231A136A-6A3C-4D92-89B7-9D68FD8C4FA4Q81670588-FAA9BF14-0C98-4514-812B-056574F9431AQ81670594-BE44B138-5BF3-4032-915D-CDEF7D8DFA63Q82358898-6A3FF065-0F77-4C42-9D13-D24B8313E1B9Q83420221-AADE480D-A3D7-4432-B22E-C1770E39AE4BQ83842074-D3AAA101-BEFF-4AE6-A261-7F30374AD5BAQ84121187-5D13F0AF-956C-4D10-A44A-6D4CBC0FD9E0Q84145956-4F02B99E-FC84-4366-8DC9-86F1118A17B4
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description
researcher
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wetenschapper
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հետազոտող
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name
Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
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Michael I. Lindinger
@sl
P106
P1153
16401775700
P31
P496
0000-0003-1001-4302