52results about How to "Maximize heat transfer efficiency" patented technology

An insulated shipping container system for transferring a temperature sensitive product comprising a substantially hollow insulated body having inner walls and outer walls defining a payload cavity to receive a payload and supports to space the payload from the insulated body thereby defining an internal air filled space to facilitate heat transfer. The insulated shipping container system further comprises a heat transfer element cavity configured to receive a heat transfer element and supports to space the heat transfer element from the insulated body thereby defining an internal air filled space to facilitate heat transfer. Also provided are methods for shipping temperature sensitive products and goods comprised of packing and assembling the insulated shipping container system disclosed herein.

Disclosed is a battery pack having improved manufacturing efficiency, high energy density, and improved product stability. The battery pack according to the present invention for achieving the above objective comprises: a mounting structure including a first frame having a plate shape having both ends bent in an upper direction to form an inner space, and a second frame coupled to the lower portion of the first frame and having a plate shape having both ends bent in a lower direction to form an inner space; a first battery module group accommodated in the inner space of the first frame and provided with a plurality of battery modules; and a second battery module group accommodated in the inner space of the second frame and provided with a plurality of battery modules.

The invention discloses a loop heat pipe type terrestrial heat exploitation system with adjustable and controllable working medium circular flow. The loop heat pipe type terrestrial heat exploitation system comprises a casing pipe type loop heat pipe, an earth surface heat exchanger and a liquid storage box. The earth surface heat exchanger and the liquid storage box are both located on the ground. The casing pipe type loop heat pipe comprises an evaporation section, a heat insulation section and a backflow section. The evaporation section is located in a high temperature heat reservoir. The earth surface heat exchanger is provided with a condensation section, and the condensation section and the outside carry out heat exchange. A one-way valve or a steam pump is arranged between the heat insulation section and the condensation section. A one-way throttle valve is arranged between the liquid storage box and the backflow section. The evaporation section, the heat insulation section, the condensation section, the liquid storage box and the backflow section are communicated in sequence end to end. Working medium fluid of the liquid storage box enters the evaporation section through the backflow section, and the liquid working medium fluid entering the evaporation section generates film boiling after absorbing heat. According to the loop heat pipe type terrestrial heat exploitation system, the working medium fluid of the liquid storage box passes through the backflow section, the liquid phase backflow mode and the boiling mode of the evaporation section are controlled, the effective filling factor of the terrestrial heat pipe can be adjusted in real time, and therefore terrestrial heat energy is stably and efficiently extracted.

The invention relates with the feed-back control system of a heat exchanger by use of the flow resonance phenomenon which maximizes the heat transfer efficiency by generating the flow disturbances of a heat transfer medium. If a heat transfer medium is periodically stimulated at the characteristic frequency of a heat exchanger, the flow resonance frequency, which is dependent upon the flow conditions of heat transfer medium and the geometries of a heat exchanger, the disturbances of heat transfer medium is increased to the extent that heat transfer is dramatically high. This system is composed of the detecting part for the detection of flow characteristics, the processing part for the determination of flow resonance frequency, and the stimulating part which excites a heat transfer medium at the calculated flow resonance frequency.