Tehran University of Medical Sciences

Science Communicator Platform

Stay connected! Follow us on X network (Twitter):
Share this content! By
Nanoporous Platinum Needle for Cancer Tumor Destruction by Echt and Impedance-Based Intra-Therapeutic Monitoring Publisher Pubmed



Miripour ZS1 ; Aghaee P1 ; Mahdavi R1 ; Khayamian MA1 ; Mamdouh A1 ; Esmailinejad MR2 ; Mehrvarz S1 ; Yousefpour N1 ; Namdar N1 ; Mousavikiasary SMS1 ; Vajhi AR2 ; Abbasvandi F3 ; Hoseinpour P4 ; Ghafari H1 Show All Authors
Authors
  1. Miripour ZS1
  2. Aghaee P1
  3. Mahdavi R1
  4. Khayamian MA1
  5. Mamdouh A1
  6. Esmailinejad MR2
  7. Mehrvarz S1
  8. Yousefpour N1
  9. Namdar N1
  10. Mousavikiasary SMS1
  11. Vajhi AR2
  12. Abbasvandi F3
  13. Hoseinpour P4
  14. Ghafari H1
  15. Abdolahad M1

Source: Nanoscale Published:2020


Abstract

Herein, we present a new design on the Single Needle Electrochemical Therapy (SNEChT) method by introducing some major improvements, including a nanoporous platinum electrode, tunable in situ anode size that depends on the width and location of the tumor, and the capability of measuring the efficacy of therapy based in intra-therapeutic impedance recording by the same EChT needle. It could have significant implications in optimizing EChT operative conditions. The nanoporous Pt electrode increased the interactive surface with a tumor, and produced a higher amount of current with lower stimulating DC voltage. The tunable anode size prevents the over-acidification of treated or non-desired lesions. Hence, this feature reduced the over distribution of tissue. Monitoring the impedance during the therapy clearly informs us about the local destruction of the tumor in each location. Thus, we can be informed about the threshold of tissue acidosis with the lowest electrical stimulation. The insertion of one needle with a tunable anode length for both precise therapy and impedance-based intra-therapeutic monitoring will shed new light on the applications of EChT. © The Royal Society of Chemistry.
Other Related Docs
13. Electrospun-Based Systems in Cancer Therapy, Electrospun Materials for Tissue Engineering and Biomedical Applications: Research# Design and Commercialization (2017)