4.7 Article

Bioresorbable, Wireless, Passive Sensors as Temporary Implants for Monitoring Regional Body Temperature

Journal

ADVANCED HEALTHCARE MATERIALS
Volume 9, Issue 16, Pages -

Publisher

WILEY
DOI: 10.1002/adhm.202000942

Keywords

biomedical implants; bioresorbable devices; LC-resonance; regional body temperature; wireless sensors

Funding

  1. Soft and Hybrid Nanotechnology Experimental (SHyNE) Resource (NSF) [ECCS-1542205]
  2. Materials Research Science and Engineering Center (NSF) at the Materials Research Center [DMR-1720139]
  3. International Institute for Nanotechnology (IIN)
  4. Keck Foundation
  5. State of Illinois through the IIN, Northwestern University
  6. Querrey Simpson Institute for Bioelectronics
  7. National Cancer Institute [P30 CA060553]
  8. National Science Foundation Graduate Research Fellowship (NSF) [1842165]
  9. Ford Foundation Predoctoral Fellowship
  10. Division Of Graduate Education
  11. Direct For Education and Human Resources [1842165] Funding Source: National Science Foundation

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Measurements of regional internal body temperatures can yield important information in the diagnosis of immune response-related anomalies, for precisely managing the effects of hyperthermia and hypothermia therapies and monitoring other transient body processes such as those associated with wound healing. Current approaches rely on permanent implants that require extraction surgeries after the measurements are no longer needed. Emerging classes of bioresorbable sensors eliminate the requirements for extraction, but their use of percutaneous wires for data acquisition leads to risks for infection at the suture site. As an alternative, a battery-free, wireless implantable device is reported here, which is constructed entirely with bioresorbable materials for monitoring regional internal body temperatures over clinically relevant timeframes. Ultimately, these devices disappear completely in the body through natural processes. In vivo demonstrations indicate stable operation as subcutaneous and intracranial implants in rat models for up to 4 days. Potential applications include monitoring of healing cascades associated with surgical wounds, recovery processes following internal injuries, and the progression of thermal therapies for various conditions.

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