Title :
Optimizing a polydimethylsiloxone(PDMS) into flexographic printing process for RFID biomedical devices and cell cultures
Author :
Maksud, M.I. ; Yusof, M.S. ; Mahadi Abd Jamil, M.
Author_Institution :
Fac. of Mech. & Manuf. Eng, Univ. Tun Hussam Onn Malaysia, Batu Pahat, Malaysia
Abstract :
It is demonstrated that cell culture can be printed into flexible polymer substrates for bio-sensor making by flexographic, utilizing a PDMS stamp. And addition multiple micro-scale fine solid line was successfully printed as fundamental work toward development of micron scale and low cost mass production of UHF passive RFID sensor for biomedical such monitoring the movement of healing limbs, to warn about too large movement or for monitoring chest breathing movements. In term of cell culture printing, acknowledge that it is very important to stop and detects are biological pathogens such as bacteria and viruses in order to control diseases apparition and to insure the environmental reliability of air, water or food. The flexible substrates like a thin polymer films is ideal to be used due to their flexibility, low cost and ease of fabrication, to support bio-medical sensors.
Keywords :
UHF detectors; biomedical equipment; biomedical materials; biosensors; cellular biophysics; materials preparation; patient monitoring; pneumodynamics; polymer films; printing; radiofrequency identification; thin film sensors; PDMS optimization; PDMS stamp; RFID biomedical device; UHF passive RFID sensor development; air environmental reliability; bacterial pathogen; biological pathogen detection; biological pathogen stopping; biomedical sensor; biosensor making; cell culture printing; chest breathing movement monitoring; disease apparition control; flexible polymer substrate; flexible substrate; flexographic printing process; food environmental reliability; healing limb movement monitoring; large movement warning; low cost polymer film; mass production; multiple microscale fine solid line printing; polydimethylsiloxone; polymer film fabrication; polymer film flexibility; thin polymer film; viral pathogen; water environmental reliability; Biomedical engineering; Conferences; Decision support systems; Biomedical; Flexographic; PDMS; RFID;
Conference_Titel :
Biomedical Engineering International Conference (BMEiCON), 2013 6th
Conference_Location :
Amphur Muang
Print_ISBN :
978-1-4799-1466-1
DOI :
10.1109/BMEiCon.2013.6687715