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   <subfield code="a">Wafer-scale integrated micro-supercapacitors on an ultrathin and highly flexible biomedical platform</subfield>
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   <subfield code="c">[Jimin Maeng, Chuizhou Meng, Pedro Irazoqui]</subfield>
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   <subfield code="a">We present wafer-scale integrated micro-supercapacitors on an ultrathin and highly flexible parylene platform, as progress toward sustainably powering biomedical microsystems suitable for implantable and wearable applications. All-solid-state, low-profile (&lt;30μm), and high-density (up to ~500μF/mm2) micro-supercapacitors are formed on an ultrathin (~20μm) freestanding parylene film by a wafer-scale parylene packaging process in combination with a polyaniline (PANI) nanowire growth technique assisted by surface plasma treatment. These micro-supercapacitors are highly flexible and shown to be resilient toward flexural stress. Further, direct integration of micro-supercapacitors into a radio frequency (RF) rectifying circuit is achieved on a single parylene platform, yielding a complete RF energy harvesting microsystem. The system discharging rate is shown to improve by ~17 times in the presence of the integrated micro-supercapacitors. This result suggests that the integrated micro-supercapacitor technology described herein is a promising strategy for sustainably powering biomedical microsystems dedicated to implantable and wearable applications.</subfield>
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