• DocumentCode
    1885318
  • Title

    Multi-patch: a chip-based ion-channel assay system for drug screening

  • Author

    Picollet-D´hahan, Nathalie ; Sauter, Fabien ; Ricoul, Florence ; Pudda, Catherine ; Marcel, Frédérique ; Sordel, Thomas ; Chatelain, François ; Chartier, Isabelle

  • Author_Institution
    DSV Branch, Commissariat a l´´Energie Nucleaire, Grenoble, France
  • fYear
    2003
  • fDate
    20-23 July 2003
  • Firstpage
    251
  • Lastpage
    254
  • Abstract
    Ion channels are cellular membrane proteins that act as specific signal transducers. They have crucial roles in physiology and pathophysiology and are important drug targets. Patch-damp is the gold-standard for assessing ion channel function but does not have the potential to be automated and parallelized. This fact underlies current efforts in developing parallel patch-on-chip platforms in order to provide higher throughput and better reproducibility. Our approach is to develop a bio-electronic sandwich interface between microstructured substrates and printed circuits. ´Multi-patch´ is a patch-on-a-chip device replacing patch pipettes by micrometer-sized holes and enabling multiple simultaneous single-cell electrical measurements. We present here a comparative approach of different substrates in view of the development of a chip-based device. We emphasize on the silicon technology pointing out its advantages in terms of microstructuration and development of an integrated electronics.
  • Keywords
    biomembranes; cellular biophysics; elemental semiconductors; integrated circuit design; monolithic integrated circuits; physiology; polymers; proteins; silicon; Si; assessing ion channel function; bio-electronic sandwich interface; cellular membrane proteins; chip-based device; chip-based ion-channel assay system; drug screening; integrated electronics; micrometer-sized holes; microstructuration; microstructured substrates; parallel patch-on-chip platforms; patch-on-a-chip device; pathophysiology; physiology; printed circuits; signal transducers; silicon technology; single-cell electrical measurements; Biomembranes; Drugs; Electric variables measurement; Physiology; Printed circuits; Proteins; Reproducibility of results; Semiconductor device measurement; Throughput; Transducers;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    MEMS, NANO and Smart Systems, 2003. Proceedings. International Conference on
  • Print_ISBN
    0-7695-1947-4
  • Type

    conf

  • DOI
    10.1109/ICMENS.2003.1222001
  • Filename
    1222001