Flexible substrates on biomedical implants and wireless power transfer :- trends ,its future and the practical applications

This paper should be a 12–13 page short review that gives the reader a clear, complete understanding of flexible antenna design for biomedical implants — especially those that integrate wireless power transfer (WPT). It should:

• Be concise but informative
• Use diagrams and tables to simplify complex ideas
• Be well-structured and visually appealing
• Present the current state, challenges, and a small new conceptual idea for future work.
  

  🧱 Paper Structure (Follow this closely):

  ✅ 1. Abstract (half page max) Summarize the importance of flexible antennas in implants, mention WPT, highlight review nature and conceptual design. ✅ 2. Introduction (1–1.5 pages)

  • Importance of implantable medical devices
  • Limitations of traditional rigid antennas
  • Need for flexible, biocompatible antennas with wireless charging
  • What this paper covers and why it’s important

  ✅ 3. Basics of Antennas in Implants (1–1.5 pages)

  • Types of antennas used in implants (microstrip, slot, spiral)
  • Communication bands (MICS, ISM)
  • Key parameters (SAR, return loss, gain)

  ✅ 4. Flexible Substrate Materials (2 pages)

  • Compare materials like PDMS, LCP, Ecoflex, Hydrogels, Silk, Parylene-C
  • Create a comparison table of flexibility, biocompatibility, dielectric constant, etc.
  • Show their impact on antenna performance and implant safety

  ✅ 5. Wireless Power Transfer for Implants (1.5–2 pages)

  • Explain types: inductive, magnetic resonance, radiative
  • Challenges: alignment, heating, efficiency
  • Give examples of WPT antennas used in literature

  ✅ 6. Review of State-of-the-Art Designs (1.5–2 pages)

  • Create a summary table of 5–7 key research papers
  • Mention authors, year, substrate used, frequency, innovation, and limitations

  ✅ 7. Conceptual Proposed Design (1–1.5 pages)

  • Propose a dual-layer flexible antenna:
    • Top layer: slot or patch for MICS band (402–405 MHz)
    • Bottom layer: spiral coil for 13.56 MHz WPT
  • Substrate: Graphene-PDMS hybrid
  • Benefits: one device, two functions, compact, stretchable

  ✅ 8. Applications / Case Study (1 page)

  • Apply the concept to a use case like an implantable glucose sensor or nerve stimulator
  • Explain how the antenna communicates and receives power from an external wearable

  ✅ 9. Challenges and Future Scope (1 page)

  • Material degradation, heating, misalignment
  • Future ideas: AI optimization, reconfigurable antennas, biodegradable electronics

  ✅ 10. Conclusion (half page)

  • Summarize key insights
  • Reinforce importance of integrated flexible antennas in next-gen biomedical systems
  • and lastly references and also add diagrams or figures to look good for the reviewrs .

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  🔍 Writing Style Guidelines:

  • Keep it scientific, but readable
  • Use short paragraphs, clear headings, and diagrams
  • Include 2–3 tables and at least 2 figures or diagrams
  • Keep references to around 3 0–35, recent and relevant (IEEE/Springer preferred)

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  📚 Reference Suggestion (for Writer):

  Ask the writer to pull content from recent papers like:

  • IEEE Transactions on Biomedical Engineering
  • Sensors (MDPI)
  • IEEE Access
  • ScienceDirect (Elsevier)
  • Advanced Healthcare Materials (Wiley)

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  🎁 Deliverables:

  • Final paper in Word or LaTeX (IEEE format preferred)
  • Editable diagrams and tables (if possible)
  • Plagiarism-checked, properly cited