Biomaterials Medical Devices and Artificial Organs · 1976 · 38 citations · 9 references
EngineeringBioengineeringBiomedical EngineeringBiocompatibilityBiomaterialsElectrophysiologyCardiac PacingCardiac PhysiologyCardiovascular BiomaterialsElectrochemical CellsFuel CellsGalvanic CellsHigh-power-density DesignPacemaker CellsPhysiological PacingPower DensityStatistical Reliability Analysis
Animal experiments with biogalvanic cells have demonstrated that an average power of 80 muW can be derived continously for at least 2 years. There is a further scope to stabilize the power at 100 muW for considerable longer periods so that the chances of cardiac pacing with biogalvanic power have become bright. However, large scale efforts are necessary in in establishing the statistical reliability and the secured performance which are expensive and time consuming. Animal experiments with biofuel cells are still in preliminary stages. We derived a continous power of 40 muW (4MUW/cm2) at 575 mV over 150 days so far. This is the longest recorded period with such a high power density. The main problem in deriving higher power over longer period is to properly encapsulate the cell with materials which are hydrophilic and essentially biocompatible.
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Fred R. Sias · Science · 1961 · 179 citations
From electrocatalysis to fuel cells
A T.K. · Journal of Molecular Structure · 1973 · 113 citations
VALIDATION AND BIOENGINEERING ASPECTS OF AN IMPLANTABLE GLUCOSE SENSOR
Kuo Wei Chang, S. Aisenberg, J. Stuart Soeldher et al. · ASAIO Journal · 1973 · 63 citations