The authors have developed a new type of heat spreader based on the integration of heat pipes directly within a thin planar structure suitable for use as a heat spreader or as the base layer in a substrate. The process uses micromachining methods to produce micron scale patterns that act as a wick in these small scale heat pipes. By using silicon or a low expansion metal as the wall material of these spreaders, they achieve a good match to the thermal coefficient of expansion of the die. The match allows the use of a thin high performance die attachment even on large size die. The embedded heat pipes result in high effective thermal conductivity for the new spreader technology
Nickel plated copper heat spreader acts as a medium to dissipate heat from silicon die towards heat-...
A miniature heat pipe is a passive heat transfer mechanism that can transport large quantities of he...
[[abstract]]Thermal characteristics for a horizontal heated chip mounted with three types of nominal...
We describe the development of a new technology for cooling microelectronics. This report documents ...
The increasing thermal losses of power semiconductors components led the LEG to work on the integrat...
Thin, low-profile phase change thermal spreaders can provide cooling solutions for some of today's m...
Multichip modules (MCMs) containing power components need a substrate with excellent heat spreading ...
Wicking and thermal characteristics of micropillared structures for use in passive heat spreader
[[abstract]]Thermal spreading is a technology of decreasing the hot spot for electronic cooling and ...
International audienceThe goal of this research work is to develop and validate the design of a doub...
A new heat spreader that operates on a principle similar to heat pipes has been developed in Low Tem...
The reported research work presents numerical studies validated by experimental results of a flat mi...
Micromachining is a chemical means of etching three-dimensional structures, typically in single-crys...
Heat pipe embedded aluminum silicon carbide (AlSiC) plates are innovative heat spreaders that provid...
[[abstract]]A novel heat spreader was developed with its main cavity of copper tube, where copper me...
Nickel plated copper heat spreader acts as a medium to dissipate heat from silicon die towards heat-...
A miniature heat pipe is a passive heat transfer mechanism that can transport large quantities of he...
[[abstract]]Thermal characteristics for a horizontal heated chip mounted with three types of nominal...
We describe the development of a new technology for cooling microelectronics. This report documents ...
The increasing thermal losses of power semiconductors components led the LEG to work on the integrat...
Thin, low-profile phase change thermal spreaders can provide cooling solutions for some of today's m...
Multichip modules (MCMs) containing power components need a substrate with excellent heat spreading ...
Wicking and thermal characteristics of micropillared structures for use in passive heat spreader
[[abstract]]Thermal spreading is a technology of decreasing the hot spot for electronic cooling and ...
International audienceThe goal of this research work is to develop and validate the design of a doub...
A new heat spreader that operates on a principle similar to heat pipes has been developed in Low Tem...
The reported research work presents numerical studies validated by experimental results of a flat mi...
Micromachining is a chemical means of etching three-dimensional structures, typically in single-crys...
Heat pipe embedded aluminum silicon carbide (AlSiC) plates are innovative heat spreaders that provid...
[[abstract]]A novel heat spreader was developed with its main cavity of copper tube, where copper me...
Nickel plated copper heat spreader acts as a medium to dissipate heat from silicon die towards heat-...
A miniature heat pipe is a passive heat transfer mechanism that can transport large quantities of he...
[[abstract]]Thermal characteristics for a horizontal heated chip mounted with three types of nominal...