The measurement of fluid energy loss during flow
Siroky, M.B.; Willischer, M.K.; Krane, R.J.
Investigative Urology 17(6): 514-517
1980
ISSN/ISBN: 0021-0005 PMID: 7189515 Document Number: 164568
Urethral resistance is related to fluid energy degradation during flow. Hydrodynamic theory predicts that fluid energy loss in urethral obstruction can be estimated by measuring total fluid pressure during flow. In vitro experiments using a microtransducer catheter show the feasibility of this approach.
Document emailed within 1 workday
Related Documents
Valtueña, S.; Blanch, S.; Barenys, M.; Solà, R.; Salas-Salvadó, J. 1995: Changes in body composition and resting energy expenditure after rapid weight loss: is there an energy-metabolism adaptation in obese patients? International Journal of Obesity and Related Metabolic Disorders: Journal of the International Association for the Study of Obesity 19(2): 119-125Reid, P.C.; Virtanenkari, S. 2005: Randomised comparative trial of the levonorgestrel intrauterine system and mefenamic acid for the treatment of idiopathic menorrhagia : a multiple analysis using total menstrual fluid loss, menstrual blood loss and pictorial blood loss assessment charts Bjog (Oxford. Print) 112(8): 1121-1125
Axelsson, B.; Lohm, U.; Persson, T.; Tenow, O. 1974: Energy flow through a larval population of phytodecta pallidus coleoptera chrysomelidae on corylus avellana part 2 population of energy budget ZOON 2(2): 153-160
Nürnberger, N. 1984: Measurement of urinary flow velocity and peak flow rate in the detection of subvesical obstructions in boys Wiener Klinische Wochenschrift 96(17): 656-658
Fujino, S.; Inoue, S.; Okada, Y. 1986: Endoscopic measurement of blood flow in human bronchial mucosa by an electrolytic regional blood flow meter Nihon Geka Gakkai Zasshi 87(5): 582
Depresseux, J.C. 1972: General principles in the measurement of organ blood flow using radioisotopes. Study of cerebral blood flow Nuclear-Medizin 11(2): 101-131
Thorin, D.; Chiolero, R. 1990: Principles of the measurement of energy expenditure Agressologie: Revue Internationale de Physio-Biologie et de Pharmacologie Appliquees Aux Effets de l'Agression 31(1): 59-61
Consolazio, C.F.; Johnson, H.L. 1971: Measurement of energy cost in humans Federation Proceedings 30(4): 1444-1453
Pilat, I.M.; Pirozhenko, S.I.; Shabashkevich, B.G. 1994: Devices for measurement of non-ionizing radiation energy Meditsinskaia Tekhnika 5: 41-42
Larsson, I.; Sandqvist, M.én.; Werling, M.; Wiklund, M.; Bergh, C.; Eliasson, B.ör. 2017: Energy restriction and adherence required for weight loss without surgery Lakartidningen 114
Cohen, N.; Sasso, T.L.; Lei, W. 1980: 133,135Xe interference with in vivo low-energy measurement systems Health Physics 38(3): 414-416
Jeanguillaume, C.; Tencé, M.; Zhang, L.; Ballongue, P. 1996: Practical aspects of electron energy loss spectroscopy (EELS) in biology Cellular and Molecular Biology 42(3): 439-450
Geissler, C.A. 1993: Effects of weight loss, ephedrine and aspirin on energy expenditure in obese women International Journal of Obesity and Related Metabolic Disorders: Journal of the International Association for the Study of Obesity 17(Suppl 1): S45-S48
Xiao, B.L. 1980: Measurement of menstrual blood loss Zhonghua Fu Chan Ke Za Zhi 15(3): 159-160
Scheller, D.; Tegtmeier, F.; Urenjak, J.; Kolb, J.; Peters, U.; Bock, A.; Höller, M. 1989: Influence of flunarizine on postischemic flow and energy metabolism in the isolated rat brain Biomedica Biochimica Acta 48(2-3): S161-S165
Van der Westhuysen, J.M.; Jones, J.J. 1974: Effect of protein energy malnutrition on the renal function and extracellular fluid volume of the rat South African Medical Journal 48(60): 2534-2536
Seale, J.L.; Thorp, J.W.; Conway, J.M.; Rumpler, W.V.; Haberman, K.J. 1994: Energy expenditure and fluid production in hyperbaric He-O2 environments using doubly labeled water Undersea and Hyperbaric Medicine: Journal of the Undersea and Hyperbaric Medical Society Inc 21(2): 199-208
Freer, D.E.; Statland, B.E. 1981: Measurement of amniotic fluid surfactant Clinical Chemistry 27(10): 1629-1641
Kodama, T. 1988: Stopped-flow calorimetry of myosin ATP hydrolysis: an implication of chemomechanical energy transduction Advances in Experimental Medicine and Biology 226: 671-676
Frol'kis, R.A. 1981: Effect of measured reduction of coronary blood flow on energy metabolism in the myocardium Vrachebnoe Delo 11: 65-67