Abstract:
PROBLEM TO BE SOLVED: To measure a flip-chip LED without causing deformation due to negative pressure during fixing.SOLUTION: A test device 3 for a flip-chip LED includes a transparent substrate 30, a spacer member 32, a soft and transparent support stage 34, and a vacuum generator 36. The spacer member 32 is formed on a first surface 300 of the transparent substrate 30. The soft and transparent support stage 34 for substrate is detachably fitted into the spacer member 32 so as to form a closed space S1 by the soft and transparent support stage 34, the spacer member 32, and the first surface 300 of the transparent substrate 30. The vacuum generator 36 is connected to the closed space S1 to suck out air from the closed space S1, and a part of the soft and transparent support stage 34 is stuck to the first surface 300 to form a test area 340 in which a flip-chip LED is set.
Abstract:
PROBLEM TO BE SOLVED: To provide a light emitting component measuring system and a method thereof, capable of measuring the optical proprieties of a plurality of devices under test (DUT).SOLUTION: Each DUT 2 is capable of receiving electricity so as to output an initial ray, in which each initial ray has a first wavelength range. A light emitting component measuring system 1 comprises a filtering device 14 and a sensing device 16. The filtering device 14 comprises a first filtering portion 142 which can filter a corresponding third wavelength of the initial rays and output a plurality of first filtered rays 24 simultaneously. Each first filtered ray 24 has a second wavelength range respectively. The sensing device 16 receives the ray outputted from the filtering device 14 and generates optical data accordingly.
Abstract:
It s a type of top mount surface airflow heatsink, utilizing the upper ceiling wall separated by an air gap, working together with the upper surface of a heating device (microprocessor) producing an air current. It's a simple device, with a low cost using the Reynolds Equation Re=(?u m d)/µ=2,500; with ? being the fluid density, u m being the free- stream fluid velocity, d being the pipe distance or diameter, µ being the fluid viscosity. Since the airflow produces air turbulence, it causes the frequent heat exchanges in the air. It also causes the obvious temperature changes within the different layers of air. Therefore, it increases tremendously, the efficiency of dissipating the heat. It requires only the input of the air. The operation is simple and it allows the usage of even higher heat generating devices. Thus it promotes the alternative usage of this top mount heatsink device within the installation of circuit board components.
Abstract translation:它是一种顶部安装表面气流散热器,利用由气隙隔开的上部顶壁,与加热装置(微处理器)的上表面一起产生气流。 这是一种简单的设备,使用雷诺方程Re =(?u m D d)/μ= 2,500,成本低廉; 与? 作为流体密度,u> m是自由流体流速,d是管道距离或直径,μ是流体粘度。 由于气流产生空气湍流,导致空气中频繁的热交换。 它也会导致不同层次空气中明显的温度变化。 因此,它大大增加了散热的效率。 它只需要空气的输入。 操作简单,可以使用更高的发热装置。 因此,它可以在电路板组件的安装中促进该顶部安装散热装置的替代使用。
Abstract:
It's a type of top mount surface airflow heatsink, utilizing the upper ceiling wall separated by an air gap, working together with the upper surface of a heating device (microprocessor) producing an air current. It's a simple device, with a low cost using the Reynolds Equation Re=(?u m d)/µ=2,500; with p being the fluid density, u m being the free-stream fluid velocity, d being the pipe distance or diameter, µ being the fluid viscosity. Since the airflow produces air turbulence, it causes the frequent heat exchanges in the air. It also causes the obvious temperature changes within the different layers of air. Therefore, it increases tremendously, the efficiency of dissipating the heat. It requires only the input of the air. The operation is simple and it allows the usage of even higher heat generating devices. Thus it promotes the alternative usage of this top mount heatsink device within the installation of circuit board components.
Abstract translation:它是一种顶部安装表面气流散热器,利用由气隙隔开的上部顶壁,与加热装置(微处理器)的上表面一起产生气流。 这是一种简单的设备,使用雷诺方程Re =(?u m D d)/μ= 2,500,成本低廉; 其中p是流体密度,u是自由流体流速,d是管道距离或直径,μ是流体粘度。 由于气流产生空气湍流,导致空气中频繁的热交换。 它也会导致不同层次空气中明显的温度变化。 因此,它大大增加了散热的效率。 它只需要空气的输入。 操作简单,可以使用更高的发热装置。 因此,它可以在电路板组件的安装中促进该顶部安装散热装置的替代使用。