초록 ▼

A thermal energy management system for solid oxide fuel cells includes a monolithic small cell extrusion type heat exchanger coupled to an SOFC stack. In operation, a flow of air having a selected temperature is passed through the heat exchanger cells and thermal energy flowing into and out of the S

A thermal energy management system for solid oxide fuel cells includes a monolithic small cell extrusion type heat exchanger coupled to an SOFC stack. In operation, a flow of air having a selected temperature is passed through the heat exchanger cells and thermal energy flowing into and out of the SOFC stack is managed primarily by radiation coupling between the SOFC stack and the heat exchanger. The system further provides management of the temperature distribution around the SOFC to meet outer skin temperature design targets and to control the inlet gas temperatures for the SOFC. The system provides a compact, efficient method for SOFC thermal energy management and is particularly well suited for transportation applications.

대표청구항 ▼

A thermal energy management system for solid oxide fuel cells includes a monolithic small cell extrusion type heat exchanger coupled to an SOFC stack. In operation, a flow of air having a selected temperature is passed through the heat exchanger cells and thermal energy flowing into and out of the S

A thermal energy management system for solid oxide fuel cells includes a monolithic small cell extrusion type heat exchanger coupled to an SOFC stack. In operation, a flow of air having a selected temperature is passed through the heat exchanger cells and thermal energy flowing into and out of the SOFC stack is managed primarily by radiation coupling between the SOFC stack and the heat exchanger. The system further provides management of the temperature distribution around the SOFC to meet outer skin temperature design targets and to control the inlet gas temperatures for the SOFC. The system provides a compact, efficient method for SOFC thermal energy management and is particularly well suited for transportation applications. ensity polyethylene, and from 95 to 50 wt % propylene resin, a layer (B) laminated to one side of the base layer (A) and consisting of a uniaxially stretched film of a resin composition comprising from 35 to 65 wt % fine inorganic particles, from 0 to 10 wt % high density polyethylene, and from 55 to 35 wt % propylene resin, and a layer (C) laminated to the base layer (A) on the side opposite to the layer (B) and consisting of a uniaxially stretched film of a resin composition comprising from 35 to 65 wt % fine inorganic particles, from 0 to 10 wt % high density polyethylene, and from 55 to 35 wt % propylene resin, the base layer (I) having printed matter on the layer (B) side and having the heat sealable resin layer (II) on the layer (C) side. 24. The in-mold label