Abstract:
A sliding shell comprises a first shell body with a first surface, a first interface layer formed by coating a smooth material on the first surface, a first sliding assembly formed on the first surface of the first shell body, a second shell body with a second surface, and a second sliding assembly formed on the second surface of the second shell body. The second sliding. assembly is correspondingly connected to the first sliding assembly to allow the first shell body sliding between the first position and the second position on the second shell body. In addition, the first interface layer overlaps the second surface, and thus the first interface layer can make the sliding between two shell bodies with benefits of smooth sliding and abrasion prevention.
Abstract:
A method includes testing a first device and a second device identical to each other and comprising integrated circuits. The testing of the first device is performed according to a first test sequence of the first device, wherein the first test sequence includes a plurality of ordered test items, and wherein the first test sequence includes a test item. A test priority of the test item is calculated based on a frequency of fails of the test item in the testing of a plurality of devices having an identical structure as the first device. The first test sequence is then adjusted to generate a second test sequence in response to the test priority of the test item, wherein the second test sequence is different from the first test sequence. The second device is tested according to the second test sequence.
Abstract:
In a method of testing a plurality of through silicon vias (TSVs) chained together by interconnect on a substrate, a test signal is applied to a first test pad among a plurality of test pads, and a return signal is measured at a second test pad among the plurality of test pads. At least one test pad of the plurality of test pads is grounded to the substrate. The remaining test pads of the plurality of test pads are either connected to the plurality of chained TSVs or are grounded.
Abstract:
A plurality of sets of test conditions of a die in a stacked system is established, wherein the plurality of test conditions are functions of temperatures of the die, and wherein the stacked system comprises a plurality of stacked dies. A temperature of the die is measured. A respective set of test conditions of the die is found from the plurality of sets of test conditions, wherein the set of test conditions corresponds to the temperature. The die is at the temperature using the set of test conditions to generate test results.
Abstract:
A backlight module includes a light guide plate, a back plate, a heat-dissipating element, a light-emitting element, and at least one high-performance heat sink. The heat-dissipating element is disposed adjacent to a light incident surface of the light guide plate, and the heat-dissipating element has a bottom portion and a side portion forming an angle with the bottom portion. The light-emitting element is disposed on one side of the heat-dissipating element facing the light guide plate. The high-performance heat sink is disposed on the back plate, one end of the high-performance heat sink overlaps the heat-dissipating element, and another end of the high-performance heat sink extends away from the light-emitting element.
Abstract:
A package component includes a stack-probe unit, which includes a first-type connector, and a second-type connector connected to the first-type connector. The first-type connector and the second-type connector are exposed through a surface of the package component.
Abstract:
A plurality of through silicon vias (TSVs) on a substrate or in a 3 dimensional integrated circuit (3DIC) are chained together. TSVs are chained together to increase the electrical signal. A plurality of test pads are used to enable the testing of the TVSs. One of the test pads is grounded. The remaining test pads are either electrically connected to TSVs in the chain or grounded.
Abstract:
A device, such as a 3DIC stacked device includes a first device under test (DUT) connected to a first force pad by a first through substrate via (TSV) stack and connected to a first sense pad by a second TSV stack. The device further includes a second DUT stacked above the first DUT and connected to a second force pad and a second force pad by a second third TSV and connected to a second sense pad by a fourth TSV. Functional blocks on either the first or second blocks can be accessed for testing by way of the TSVs. In some applications the TSVs are vertically aligned to form TSV stacks.
Abstract:
A three-dimensional integrated circuit (3DIC) and wireless information access methods thereof are provided. The proposed 3DIC includes a semiconductor structure, and a wireless power device (WPD) formed on the semiconductor structure for wirelessly receiving a power for operating a function selected from a group consisting of probing the semiconductor structure, testing the semiconductor structure and accessing a first information from the semiconductor structure.
Abstract:
An embodiment is a method. The method comprises providing a substrate comprising a die area. The die area comprises sections of pad patterns, and first sections of the sections each comprise a first uniform pad pattern. The method further comprises probing a first one of the first sections with a first probe card; stepping the first probe card to a second one of the first sections; and probing the second one of the first sections with the first probe card.