Export to citation manager.
A tissue implantable fuel cell power supply.
Drake rf kusserow bk messinger s matsuda s.
Next abstract article tools.
A tissue implantable fuel cell power supply.
Noble metals activated carbon are a newly rediscovered approach to realize a battery independent power supply for medical implants with this concept electricity is directly generated from glucose and oxygen available in body fluids.
We present an improved abiotically catalyzed glucose fuel cell intended as tissue implantable power supply for medical implants.
Get content permissions.
This chapter provides readers from different disciplines with an overview of the technology and state of the art in implantable biofuel cells as power source for implantable systems.
Home april 1970 volume 16 issue 1 a tissue implantable fuel cell power supply previous abstract.
A sustainable fuel cell power supply for medical implants implantable glucose fuel cells employing abiotic catalyst e g.
Alert me when cited.
Implantable glucose fuel cells employing abiotic catalyst e g.
Glucose fuel cell intended as tissue implantable power supply for medical implants.
With this concept electricity is directly generated.
A novelty is the application of binder less platinum electrodes for both anode and cathode.
Biomaterials medical devices and artificial organs.
Trans am soc artif intern organs.
Weidlich e richter g von sturm f rao jr.
Noblemetals activatedcarbon areanewlyrediscoveredapproach to realize a battery independent power supply for medical implants 1.
A tissue implantable fuel cell power supply.
Transactions of the american society for artificial internal organs asaio journal 1970.
Still fuel cell research in medical field went temporarily into the trough due to the successful integration of.
A novelty is the application of binder less platinum electrodes for both anode and cathode.
Animal experiments with biogalvanic and biofuel cells.
A sustainable fuel cell power supply for medical implants.
In 1964 yahiro proposed fuel cells as a power supply for implantable medical devices.
This overcomes the limited chemical stability of glucose fuel cells fabricated from activated carbon particles dispersed in a hydrogel matrix.
This would be sufficient to power a 30 μw pacemaker with a cell surface area of 10 cm 2.
Article as pdf 512 kb print this article.