Industrial Technology Research Institute

Tsinghua University

Fanghei Tsau

Chi-Chang Chen

Huan-Ruei Shiu

Wen-Chen Chang

Shiqah-Ping Jung

Ming-Shan Jeng

Jie-Ren Ku

Chen-Chi Martin Ma

Chun-Hsing Wu

Chien-Chang Hung

Ya-Yi Hsu

Reiko Ohara

Chun-Ju Huang

Cheng-Yen Chen

Shen-Chuan Lo

Chan-Li Hsueh

Shing-Fen Tsai

Tu Chen

Pei-Shan Yen

Chingchih Lin

Peiyi Tsai

Jibin Horng

Bin-Hao Chen

Hsinhsin Shen

Hsu Chiang Kuan

Yi Yie Yan

Ken Hung Chen

WenChen Chang

Shih Ming Chen

Hongjen Lai

Ming Huang Tsai

A medical composite material, a method for fabricating the same and applications thereof are disclosed, wherein the medical composite material includes an interface layer, a polymer layer and a metal layer. The interface layer has a first surface, a second surface opposite to the first surface and a plurality protrusion portions protruding outwards from the first surface, wherein each of the protrusion portions has an aspect ratio substantially ranging from 1 &#x3bc;m to 4000 &#x3bc;m. The polymer layer is conformally in contact with the first surface and the protrusion portions. The metal layer is in contact with the second surface.

Medical composite material, method for fabricating the same and applications thereof

A fluid flow plate for fuel cells may include a first surface and a second surface. The first surface has a first fluid inlet for receiving a first fluid, a plurality of first flow channels extending substantially along a first direction for transporting the first fluid, and a first fluid outlet for releasing the first fluid. The second surface having a second fluid inlet for receiving a second fluid, a plurality of second flow channels extending substantially along the first direction for transporting the second fluid, and a second fluid outlet for releasing the second fluid. The first fluid inlet and the second fluid outlet each is located near a first side of the fluid flow plate, and the first fluid outlet and second fluid inlet each is located near a second side of the fluid flow plate. The second side of the fluid flow plate is opposite to its first side. Each of the first and second flow channels has substantially the same length.

Fluid flow plate assemblies for use in fuel cells having flow channels with substantially same length

A fuel cell module may include a membrane electrode assembly, two gas diffusion layers, two current collectors, two sealing members, a fluid flow plate assembly. The fluid flow plate assembly may include a first manifold, a second manifold, and a fluid flow channel. The membrane electrode assembly may include at least one membrane for fuel cell reactions. The two gas diffusion layers may be respectively coupled with two opposite sides of the membrane electrode assembly. The two current collectors respectively coupled with the two gas diffusion layers, and the two sealing members respectively coupled with the two current collectors. The fluid flow plate assembly may be coupled with the membrane electrode assembly at a first side of the two opposite sides of the membrane electrode assembly, with at least a corresponding one of the two gas diffusion layers, at least a corresponding one of the two current collectors, and at least a corresponding one of the two sealing members coupled between the fluid flow plate assembly and the first side of the membrane electrode.

Modularized fuel cell devices and fluid flow plate assemblies

A fuel cell module may include a membrane electrode assembly two gas diffusion layers, two current collectors, two sealing members, and a fluid flow plate assembly. The membrane electrode assembly may include at least one membrane for fuel cell reactions, and the two gas diffusion layers may be respectively coupled with the two opposite sides of the membrane electrode assembly. The fluid flow plate assembly is coupled with the membrane electrode assembly at a first side of the two opposite sides of the membrane electrode assembly. At least one of the membrane electrode assembly, the two gas diffusion layers, the two current collectors, and the two sealing members has a non-planar surface prior to an assembly of the membrane electrode assembly, the two gas diffusion layers, the two current collectors, and the two sealing members, and the non-planar surface is at least partially flattened when the assembly occurs.

Fuel cell module having non-planar component surface

According to embodiments of the invention, a fuel cell fluid flow field plate is provided. The fuel cell fluid flow field plate includes a flexible substrate including a fluid distribution zone having at least one flow channel, a manifold penetrating the flexible substrate and next to the fluid distribution zone, an upward extending portion extending upward at a position near an interface between the manifold and the fluid distribution zone, wherein a bend angle is between the upward extending portion and the fluid distribution zone, and the upward extending portion has at least one through-hole penetrating through the flexible substrate to expose the manifold, and a cover extending portion linking with the upward extending portion and covering a portion of the fluid distribution zone.

Method for forming fuel cell fluid flow field plate

Solid-state hydrogen fuel with a polymer matrix and fabrication methods thereof are presented. The solid-state hydrogen fuel includes a polymer matrix, and a crushed mixture of a solid chemical hydride and a solid-state catalyst uniformly dispersed in the polymer matrix. The fabrication method for the solid-state hydrogen fuel includes crushing and mixing a solid chemical hydride and a solid-state catalyst in a crushing/mixing machine, and adding the polymer matrix into the mixture of the solid chemical hydride and the solid-state catalyst to process a flexible solid-state hydrogen fuel. Moreover, various geometric and/or other shapes may be formed and placed into suitable vessels to react with a particular liquid and provide a steady rate of hydrogen release.

Solid-state hydrogen fuel with polymer matrix and fabrication methods thereof

A fluid flow plate of a fuel cell includes a main body and a supporting frame. The main body includes a plurality of fluid channels and an opening, wherein the fluid channels converge at the opening. The supporting frame, mounted on the periphery of the opening, is annular shaped and frames the fluid channels. The supporting frame includes a pair of supporting walls respectively disposed on two sides of the fluid channels.

Fluid flow plate with a supporting frame for a fuel cell

Fuel cell fluid flow field plate comprising an upward extending portion and a cover extending portion

The invention utilizes a carbon nano material to nanotize a magnesium-based hydrogen storage material, thereby forming single or multiple crystals to enhance the surface to volume ratio and hydrogen diffusion channel of the magnesium-based hydrogen storage material. Therefore, the hydrogen storage material has higher hydrogen storage capability, higher absorption/desorption rate, and lower absorption/desorption temperature.

Nanotization of magnesium-based hydrogen storage material

A composite bipolar plate of polymer electrolyte membrane fuel cells (PEMFC) is prepared as follows: a) preparing a bulk molding compound (BMC) material containing a vinyl ester resin and a graphite powder, the graphite powder content of BMC material ranging from 60 wt % to 80 wt %, based on the compounded mixture; b) molding the BMC material from step a) to form a bipolar plate having a desired shape at 80&#x2013;200&#xb0; C. and 500&#x2013;4000 psi, wherein the graphite powder is of 40 mesh&#x2013;80 mesh.

Preparation of fuel cell composite bipolar plate

Growing community of inventors

Kaohsiung, Taiwan

Fanghei Tsau