Preservation of myocyte contractile function after hypothermic, hyperkalemic cardioplegic arrest with 2,3-butanedione monoximeDORMAN, B. H; CAVALLO, M. J; HINTON, R. B et al.Journal of thoracic and cardiovascular surgery. 1996, Vol 111, Num 3, pp 621-629, issn 0022-5223Article

Direct effects of oxygenated crystalloid or blood cardioplegia on isolated myocyte contractile functionHANDY, J. R; DORMAN, B. H; CAVALLO, M. J et al.Journal of thoracic and cardiovascular surgery. 1996, Vol 112, Num 4, pp 1064-1072, issn 0022-5223Article

The direct and interactive effects of phosphodiesterase inhibition and β-adrenergic stimulation on myocyte contractile function after hypothermic cardioplegic arrestDORMAN, B. H; CAVALLO, M. J; ROY, R. C et al.Anesthesia and analgesia. 1995, Vol 81, Num 5, pp 925-931, issn 0003-2999Article

Cellular basis for improved left ventricular pump function after digoxin therapy in experimental left ventricular failureMCMAHON, W. S; HOLZGREFE, H. H; WALKER, J. D et al.Journal of the American College of Cardiology. 1996, Vol 28, Num 2, pp 495-505, issn 0735-1097Article

Myocyte contractile responsiveness after hypothermic, hyperkalemic cardioplegic arrest : disparity between exogenous calcium and β-adrenergic stimulationCAVALLO, M. J; DORMAN, B. H; SPINALE, F. G et al.Anesthesiology (Philadelphia). 1995, Vol 82, Num 4, pp 926-939, issn 0003-3022Article