The Moyer model and hadron transport calculations
Thomas, R.H.
Health Physics 53(4): 425
1987
ISSN/ISBN: 0017-9078 PMID: 3654232 Document Number: 296160
Document emailed within 1 workday
Related Documents
Petricciani, J.C.; Regan, P.J. 1987: Risk of neoplastic transformation from cellular DNA: calculations using the oncogene model Developments in Biological Standardization 68: 43-49Matthies, M.; Eisfeld, K.; Paretzke, H.; Wirth, E. 1981: Stochastic calculations for radiation risk assessment: a Monte-Carlo approach to the simulation of radiocesium transport in the posture--cow--milk food chain Health Physics 40(5): 764-769
Klempt, H.W.; Bachour, G.; Bender, F. 1972: Diagnosis of mitral insufficiency from indicator dilution curves. An analysis with the aid of model calculations Die Medizinische Welt 23(40): 1369-1370
Dinkel, R.H. 1996: Development of dementia to the year 2050. Model calculations for Germany with special reference to future mortality progress Gesundheitswesen ) 58(1 Suppl): 50-55
Samiĭlenko, S.P.; Potiahaĭlo, A.L.; Stepaniuhin, A.V.; Bohdan, T.V.; Dzerzhyns'kyĭ, M.E.; Hovorun, D.M. 2001: Specific interactions of isoguanine with the neutral and deprotonated carboxylic group of amino acids: results of model quantum chemical calculations Ukrains'kyi Biokhimichnyi Zhurnal 73(3): 147-151
Fields, D.E.; Raridon, R.J. 1977: Numerical simulation of watershed response using the unified transport model; Part I, Model structure Pages 140-150 1977
Liang, X.-L.; Zhu, M.-L.; Zhao, L.-J.; Zhao, G.-W.; Liao, Z.-G.; Cao, Y.-C.; Yang, M. 2013: Study on transport mechanism of baicalin in Scutellariae radix extracts and effect of Angelica dahurica extracts on transport of baicalin by Caco-2 cell monolayer model Zhongguo Zhong Yao Za Zhi 38(14): 2389-2393
Orecchia, R.; Fossati, P.; Rossi, S. 2009: The National Center for Oncological Hadron Therapy: status of the project and future clinical use of the facility Tumori 95(2): 169-176
Doonan, B. 1977: Membrane fluidity gradient model of cell transport Physiological Chemistry and Physics 9(2): 189-201
Rippe, B.; Simonsen, O.; Stelin, G. 1991: Clinical implications of a three-pore model of peritoneal transport Advances in Peritoneal Dialysis. Conference on Peritoneal Dialysis 7: 3-9
Weinstein, A.M. 1998: A mathematical model of the inner medullary collecting duct of the rat: pathways for Na and K transport American Journal of Physiology 274(5): F841-F855
Alhaique, F.; Marchetti, M.; Riccieri, F.M.; Santucci, E. 1972: The effect of nonmicellar surfactants on the transport of drugs in a model system Il Farmaco; Edizione Scientifica 27(2): 145-155
Gyenge, C.C.; Bowen, B.D.; Reed, R.K.; Bert, J.L. 1999: Transport of fluid and solutes in the body II. Model validation and implications American Journal of Physiology 277(3): H1228-H1240
Kuznetsova, I.N.; Chaplygina, Z.A. 1974: Erythrocyte model for evaluation of gas transport capacity of blood substitutes in vitro Problemy Gematologii i Perelivaniia Krovi 19(4): 53-55
Fridman, K.B.; Lim, T.E.; Shustalov, S.N. 2011: Conceptual model for assessment and management of human risk from transport pollution Gigiena i Sanitariia 3: 20-25
Stachowska-Pietka, J.; Waniewski, J.; Flessner, M.F.; Lindholm, B. 2007: A distributed model of bidirectional protein transport during peritoneal fluid absorption Advances in Peritoneal Dialysis. Conference on Peritoneal Dialysis 23: 23-27
Wilson, J.J.; Randles, J.; Kimmich, G.A. 1996: A model for the kinetic mechanism of sodium-coupled L-alanine transport in LLC-PK1 cells American Journal of Physiology 270(1 Pt 1): C49-C56
Titov, I.I.; Schroeder, N.K. 2001: Revealing key interactions in the metabolic network: a model of primary phosphate transport in bacteria Molekuliarnaia Biologiia 35(6): 1105-1109
Grefner, N.M.; Gromova, L.V.; Gruzdkov, A.A.; Komissarchik, I.I. 2012: Caco 2 cell culture as intestinal epithelium model for hexose transport studying Tsitologiia 54(4): 318-323
Cestaro, B.; Cervato, G.; Carandente, O.; Girardi, A.M.; Pozza, G. 1988: Erythrocyte D-glucose transport activity in reconstituted model membranes of different lipid composition Biochemistry International 16(2): 323-329