第97回 アイセムスセミナー: 竹内 昌治 准教授

In this presentation, I am planning to talk about several MEMS/Microfluidic-based approaches for the rapid and reproducible construction of biomaterials such as lipids, cells and hydrogels.

Fluorescent hydrogels hold great promise for in vivo continuous glucose monitoring with wireless transdermal transmission and long-lasting activity. We synthesized a highly-sensitive fluorescent monomer, and then fabricated injectable-sized fluorescent polyacrylamide hydrogel beads and fibers with high uniformity and high throughput. We find that the fluorescent beads provide sufficient intensity to transdermally monitor glucose concentrations in vivo.

Large-scale 3D tissue architectures that mimic microscopic tissue structures in vivo are very important for not only in tissue engineering but also drug development without animal experiments. We demonstrated a construction method of 3D tissue structures by stacking the "cellular beads" in a 3D mold. We believe that various 3D shapes can be possible by changing the mold, and this method is useful to create more complex structures with multiple types of cells that functions as a living organism.

講演者
演題
竹内 昌治 准教授
東京大学 生産技術研究所 マイクロメカトロニクス国際研究センター
演題:Microfluidic Assembly for Biomedical Applications
日時 2011年12月16日(金)10:30-12:00
場所 京都大学 iCeMSコンプレックス1 本館 2階 セミナールーム (A207)
アクセスマップ
フライヤー PDF FilePDF (110KB)
主催 京都大学 物質-細胞統合システム拠点(iCeMS=アイセムス)
共催 京都大学医学研究科グローバルCOEプログラム「生命原理の解明を基とする医学研究教育拠点」
連絡先 iCeMS 北川グループ
kitagawa-g@icems.kyoto-u.ac.jp