2014Unpublished venueRequires access

Thermal management of surveillance equipments electronic components using pulsating heat pipes

Roger R. Riehl, Liomar de O. Cachuté

Open publisher page 4 citations

Abstract

Surveillance systems have presented to be important applications for high performance thermal control devices, especially passive ones using heat pipe technology. This is usually applied when the heat source is located far from the heat sink and the use of liquid cooling or any other active thermal control system is not possible. Design and application of pulsating heat pipes (PHPs) and heat pipes become an indicated solution especially for restricted areas for integration. This investigation is focused on presenting the thermal control management of electronic components of a surveillance system using an open loop PHP with conventional heat pipes. Despite the relatively high temperature differences observed between the heat source and sink (up to 25 °C), the open loop PHP was able to transport the rejected heat (up to 40 W) from the electronic components to a remote heat dissipation area, while keeping their temperatures within the required range (below 80 °C) with relatively high thermal conductances (up to 1.6 W/°C). The heat pipe has demonstrated the capability of spreading the heat, positively affecting the PHP operation, as this combined solution has proven to be stable and reliable with promising results.

About this research paper

What this paper is about

Surveillance systems have presented to be important applications for high performance thermal control devices, especially passive ones using heat pipe technology. This is usually applied when the heat source is located far from the heat sink and the use of liquid cooling or any other active thermal control system is not possible. Design and application of pulsating heat pipes (PHPs) and heat pipes become an indicated solution especially for restricted areas for integration. This investigation is focused on presenting the thermal control management of electronic components of a surveillance system using an open loop PHP with conventional heat pipes. Despite the relatively high temperature differences observed between the heat source and sink (up to 25 °C), the open loop PHP was able to transport the rejected heat (up to 40 W) from the electronic components to a remote heat dissipation area, while keeping their temperatures within the required range (below 80 °C) with relatively high thermal conductances (up to 1.6 W/°C). The heat pipe has demonstrated the capability of spreading the heat, positively affecting the PHP operation, as this combined solution has proven to be stable and reliable with promising results.

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OpenAlex reports 4 citations for this work. Citation counts describe recorded attention and do not establish research quality.

Key contribution

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Available abstract

Surveillance systems have presented to be important applications for high performance thermal control devices, especially passive ones using heat pipe technology. This is usually applied when the heat source is located far from the heat sink and the use of liquid cooling or any other active thermal control system is not possible. Design and application of pulsating heat pipes (PHPs) and heat pipes become an indicated solution especially for restricted areas for integration. This investigation is focused on presenting the thermal control management of electronic components of a surveillance system using an open loop PHP with conventional heat pipes. Despite the relatively high temperature differences observed between the heat source and sink (up to 25 °C), the open loop PHP was able to transport the rejected heat (up to 40 W) from the electronic components to a remote heat dissipation area, while keeping their temperatures within the required range (below 80 °C) with relatively high thermal conductances (up to 1.6 W/°C). The heat pipe has demonstrated the capability of spreading the heat, positively affecting the PHP operation, as this combined solution has proven to be stable and reliable with promising results.

Key concepts: Heat sink, Heat pipe, Thermal management of electronic devices and systems, Electronic component, Passive cooling, Thermal, Computer cooling, Heat spreader

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