A STUDY OF EXPERIMENTAL HEAT-STROKE
W. W. Hall, E. G. Wakefield · 1952
Browse 6,486 peer-reviewed studies on electromagnetic field health effects from 4 research libraries.
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W. W. Hall, E. G. Wakefield · 1952
H. M. Hines, J. E. Randall · 1952
H. F. Cook · 1952
Clark WB · 1952
Cook HF · 1952
Herman P. Schwan, Edwin L. Carstensen · 1952
B. ALAJMO · 1951
Cook, H.F. · 1951
A. W. Richardson, T. D. Duane, H. M. Hines · 1951
O. Cimitan · 1951
Maurizio Terni, Pietro Lombardini · 1951
H. F. Cook · 1951
Louis Daily Jr. et al. · 1951
Albert DE LOZ · 1951
G. H. Haggis, T. J. Buchanan, J. B. Hasted · 1951
Grynbaum BB, Megibow RS, Bierman W · 1950
Giorgio Piccardi · 1950
David G. Cogan, M.D. · 1950
J. W. Clark · 1950
MILTON L. BERLINER, M.D. · 1950
Herbert Jonas · 1950
George Smith · 1950
Eleven Wistar rats weighing 150 g received implants of tantalum wire, stainless steel wire, or stainless steel wire gauze. Long-wave coagulation diathermy for three minutes produced no burning in rats with any of the three implant types.
Boyle AC, Cook HF, Buchanan TJ · 1950
Alfred W. Richardson et al. · 1950
Joseph P. Engel et al. · 1950
Researchers exposed anesthetized and trained dogs to microwave diathermy at 2,450 megacycles per second and measured temperature changes in tibial cortex, marrow, muscle, and subcutaneous tissue. For subcutaneously located bone, 30 minutes at 65 watts raised tibial cortex temperature by 5.0 degrees (C.) and marrow by 3.4 degrees (C.). For submuscularly located bone, the same exposure raised cortex by 3.8 degrees (C.) and marrow by 3.0 degrees (C.). A rectangular director allowed higher temperatures in subcutaneously located bone without excessively heating adjacent soft tissue. An impedance-matching transformer increased tissue temperature rises by approximately 300 per cent.