IEEE Transactions on Biomedical Engineering · 1983 · 101 citations · 9 references
MedicineCardiologyPhysiologyBiomedical Signal ProcessingElectrophysiologyNeurophysiologyAction PotentialsCardiac Action PotentialsCardiac PhysiologyElectrocardiographyIntracardiac ElectrophysiologyVentricular ElectrophysiologyAction Potential ModelingAction Potential ShapeAction Potential WaveformCardiac Action Potential PhysiologyElectrocardiographic PhysiologyVentricular Action PotentialsVentricular ConductionVentricular Repolarization
The ventricular gradient G is shown to be related to the area μ under the cellular action potential. For ac-coupled amplifiers, μ is calculated by taking the resting potential for each cell to be zero. The contribution to G for a small volume of the heart is then proportional to the gradient of μ weighted by the transfer impedance or lead field Z. An expression is developed which relates the secondary T wave to the QRS complex and the shape of the action potential. This expression is evidently equivalent to a procedure originally proposed by Abildskov et al. [6].
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A Theoretic Model of the T Wave
Kenichi Harumi, Mary Jo Burgess, J.A. Abildskov · Circulation · 1966 · 119 citations · Full text
A theoretical elucidation of the notion “ventricular gradient”
Heiko Bürger · American Heart Journal · 1957 · 93 citations · Full text
Medicine, Cardiology, Physiology +10
A contemporary view of the ventricular gradient of Wilson
Robert Plonsey · Journal of Electrocardiology · 1979 · 88 citations
Medicine, Cardiology, Physiology +12