The present invention relates to an aging test system and an aging test method for a thermal interface material and an electronic device testing apparatus having the system, wherein a controller controls a movable carrier to move to a high temperature generating device so that the thermal interface material on the movable carrier is brought into contact with the high temperature generating device; the controller further controls a temperature sensor to detect the temperature of the thermal interface material; the controller compares an output temperature datum of the high temperature generating device with a temperature measurement datum detected by the temperature sensor. Accordingly, the thermal conductivity of the thermal interface material can be obtained for immediately determining the quality and the performance degradation of the thermal interface material, which can be used as a reference for selection or replacement of the thermal interface material.

A testing apparatus for Devices Under Test (DUTs) includes at least one intake damper and at least one exhaust damper. At least one fan moves recirculated fluid and exterior fluid across one or more DUTs inside the testing apparatus. In one aspect, the testing apparatus includes a door to provide access to a chamber and the door includes at least one channel. At least a portion of the fluid flows through the at least one channel of the door. In another aspect, the door is configured to provide access to a chamber from the front of the chamber and the fluid is moved in a direction across the one or more DUTs substantially from the front of the chamber towards a rear of the chamber.

A testing apparatus for Devices Under Test (DUTs) includes at least one intake damper and at least one exhaust damper. At least one fan moves recirculated fluid and exterior fluid across one or more DUTs inside the testing apparatus. In one aspect, the testing apparatus includes a door to provide access to a chamber and the door includes at least one channel. At least a portion of the fluid flows through the at least one channel of the door. In another aspect, the door is configured to provide access to a chamber from the front of the chamber and the fluid is moved in a direction across the one or more DUTs substantially from the front of the chamber towards a rear of the chamber.

A control method is provided and used to place a target object on a test platform in a cabin of a testing device, to sense the temperature of the target object by a temperature response structure, and then to receive temperature signals of the temperature response structure by a controller, where the controller can regulate the pressure inside the cabin to control the air pressure of the cabin, so that the target object can still maintain good heat dissipation under high power consumption.

A control method is provided and used to place a target object on a test platform in a cabin of a testing device, to sense the temperature of the target object by a temperature response structure, and then to receive temperature signals of the temperature response structure by a controller, where the controller can regulate the pressure inside the cabin to control the air pressure of the cabin, so that the target object can still maintain good heat dissipation under high power consumption.

A plurality of resistors are disclosed herein. The resistor may include one or more resistive elements and a plurality of conductive portions. Openings or slots, which can be configured to adjust temperature coefficient or resistance (TCR) values of the resistor, are formed in the resistive elements. The shape, quantity, and orientation of the openings or slots can vary. In one aspect, header assemblies are provided for securing or holding pins relative to the resistors.

An inspection apparatus includes a stage on which a substrate is placed, a cooler, a probe card, a light irradiator and a controller. The cooler cools the substrate placed on the stage. The probe card has probes to be in contact with the substrate to supply electric power. The light irradiator irradiates light to an upper surface of the substrate, opposite to a bottom surface of the substrate placed on the stage. Further, the controller controls the light irradiator.

An inspection apparatus includes a stage on which a substrate is placed, a cooler, a probe card, a light irradiator and a controller. The cooler cools the substrate placed on the stage. The probe card has probes to be in contact with the substrate to supply electric power. The light irradiator irradiates light to an upper surface of the substrate, opposite to a bottom surface of the substrate placed on the stage. Further, the controller controls the light irradiator.

A probing system includes a chuck configured to support a device under test (DUT); and a manipulator disposed above the chuck and including a first probe protruding from the manipulator toward the chuck, wherein the first probe includes a temperature-sensing device for sensing a temperature adjacent to a front surface of the DUT. A probing device includes a chuck; a DUT disposed over the chuck; a manipulator disposed above the DUT, wherein the manipulator includes a first probe protruding from the manipulator toward the DUT and including a temperature-sensing device for sensing a temperature, the DUT is moved toward the manipulator for sensing a temperature of the DUT by the first probe.

A probing system includes a chuck configured to support a device under test (DUT); and a manipulator disposed above the chuck and including a first probe protruding from the manipulator toward the chuck, wherein the first probe includes a temperature-sensing device for sensing a temperature adjacent to a front surface of the DUT. A probing device includes a chuck; a DUT disposed over the chuck; a manipulator disposed above the DUT, wherein the manipulator includes a first probe protruding from the manipulator toward the DUT and including a temperature-sensing device for sensing a temperature, the DUT is moved toward the manipulator for sensing a temperature of the DUT by the first probe.