ACS Energy Letters · 2017 · 183 citations · 25 references
Natural SciencesMaterials EngineeringMaterials ScienceBiomaterialsElectrochemical EngineeringEnergy MaterialsBattery SystemsBattery TechnologyBiodegradable PolymersElectrochemical CellsElectrochemical Energy StorageEnergy Storage MaterialsBattery DegradationBattery Lifetime OptimizationEnergy Storage ApplicationsEnzymatic DegradationMagnesium-ion BatteriesSilk Fibroin BiomaterialsSpecific CapacityTissue Regeneration
Transient implantable medical bionics offer great promise in the field of smart controlled release and tissue regeneration. On-board energy storage is the ideal power system to drive them. In this work, a critical component of such a device, a biodegradable polymer electrolyte (silk fibroin–choline nitrate) has been developed. The efficiency of this electrolyte is demonstrated when deployed in a biodegradable thin-film magnesium battery. The battery, encapsulated in silk, offers a specific capacity of 0.06 mAh cm –2 . The enzymatic degradation of the whole device occurs over 45 days in the buffered protease XIV solution. A programmed battery lifetime can be achieved using silk protection layers. This battery system provides a new avenue for an on-board biodegradable power source for next-generation transient medical bionics.
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