Abstract: The disclosure provides an electronic device. The electronic device includes a substrate, a transistor, and a variable capacitor. The transistor is disposed on the substrate. The variable capacitor is disposed on the substrate and adjacent to the transistor. A material of the transistor and a material of the variable capacitor both a include a III-V semiconductor material. The electronic device of an embodiment of the disclosure may simplify manufacturing process, reduce costs, or reduce dimensions.

Abstract: A semiconductor device includes a first substrate, a first chip, a second chip, and a first substrate conductive pillar. The first chip is disposed on the first substrate and has a first lateral surface. The second chip is disposed on the first chip and includes a first protrusion protruding relative to the first lateral surface. The first substrate conductive pillar connects the first protrusion with the first substrate.

Abstract: Routing substrates, methods of manufacture, and electronic assemblies including routing substrates are described. In an embodiment, a routing substrate includes a plurality of metal routing layers, a plurality of dielectric layers including a top dielectric layer forming a topmost surface, and a cavity formed in the topmost surface. The cavity may include a bottom cavity surface, a first plurality of first surface mount (SMT) metal bumps embedded within the top dielectric layer and protruding from the topmost surface of the top dielectric layer, and a second plurality of second SMT metal bumps embedded within an intermediate dielectric layer of the plurality of dielectric layers and protruding from the bottom cavity surface.

Abstract: A vacuum forming method for a membrane-like object having a protruding structure and its forming apparatus, the forming method includes the following steps: fixing a flat membrane having a protruding structure on a sealing device; fixing a product model on a vacuum pumping device; clamping a transfer device on the protruding structure; utilizing a heating device to heat the flat membrane for softening the flat membrane; controlling the transfer device to move the protruding structure to a predetermined forming position; fitting the sealing device tightly to the vacuum pumping device; pumping out air between the flat membrane and the product model by the vacuum pumping device to generate negative pressure, so that the flat membrane is completely attached to a surface of the product model to form a final membrane having the protruding structure; after cooling, the final membrane having the protruding structure is taken out of the cooling room.

Abstract: A modified polyphenylene ether resin having a structure represented by [Formula 1] is provided.

Abstract: An optical member driving mechanism for connecting an optical member is provided, including a fixed portion and a first adhesive member. The fixed portion includes a first member and a second member, wherein the first member is fixedly connected to the second member via the first adhesive member.

Abstract: Source/drain silicide that improves performance and methods for fabricating such are disclosed herein. An exemplary device includes a first channel layer disposed over a substrate, a second channel layer disposed over the first channel layer, and a gate stack that surrounds the first channel layer and the second channel layer. A source/drain feature disposed adjacent the first channel layer, second channel layer, and gate stack. The source/drain feature is disposed over first facets of the first channel layer and second facets of the second channel layer. The first facets and the second facets have a (111) crystallographic orientation. An inner spacer disposed between the gate stack and the source/drain feature and between the first channel layer and the second channel layer. A silicide feature is disposed over the source/drain feature where the silicide feature extends into the source/drain feature towards the substrate to a depth of the first channel layer.

Abstract: A memory device and method of making the same, the memory device including bit lines disposed on a substrate; memory cells disposed on the bit lines; a first dielectric layer disposed on the substrate, surrounding the bit lines and the memory cells; a second dielectric layer disposed on the first dielectric layer; thin film transistors (TFTs) embedded in the second dielectric layer and configured to selectively provide electric power to corresponding memory cells, the TFTs comprising drain lines disposed on the memory cells, source lines disposed on the first dielectric layer, and selector layers electrically connected to the source lines and the drain lines; and word lines disposed on the second dielectric layer and electrically connected to the TFTs.

Abstract: A memory structure includes: first and second word lines; a high-k dielectric layer disposed on the first and second word lines; a channel layer disposed on the high-k dielectric layer and comprising a semiconductor material; first and second source electrodes electrically contacting the channel layer; a first drain electrode disposed on the channel layer between the first and second source electrodes; a memory cell electrically connected to the first drain electrode; and a bit line electrically connected to the memory cell.

Abstract: A method performed by at least one processor includes the following steps: generating a layout of an integrated circuit (IC), the layout comprising a cell and a layout context in a vicinity of the cell; receiving from a library a set of context groups and a set of timing tables, wherein each of the context groups is associated with one of the set of timing tables; determining a representative context group for the cell through comparing the layout context of the cell with the set of context groups; and performing a timing analysis on the layout according to a representative timing table associated with the representative context group for the cell.

Abstract: A semiconductor structure includes a substrate and a dielectric material disposed over the substrate. A void is disposed within the dielectric material. A dielectric liner is disposed along inner sidewalls of the dielectric material proximate to the void. An inner surface of the dielectric liner defines an outer extent of the void, and the dielectric liner includes an inner liner layer and an outer liner layer.

Abstract: An optical sensing apparatus including: a substrate including a first material; an absorption region including a second material different from the first material; an amplification region formed in the substrate and configured to collect at least a portion of the photo-carriers from the absorption region and to amplify the portion of the photo-carriers; an interface-dopant region formed in the substrate between the absorption region and the amplification region; a buffer layer formed between the absorption region and the interface-dopant region; one or more field-control regions formed between the absorption region and the interface-dopant region and at least partially surrounding the buffer layer; and a buried-dopant region formed in the substrate and separated from the absorption region, where the buried-dopant region is configured to collect at least a portion of the amplified portion of the photo-carriers from the amplification region.

Abstract: A nebulizer includes a medication adjustment member and a nebulizing module. The medication adjustment device includes a liquid reservoir and a medication adjustment member. The liquid reservoir includes a first opening and a second opening. The liquid reservoir includes an accommodating cavity, and the first opening communicates with the second opening through the accommodating cavity. The medication adjustment member is detachably disposed on the first opening and located in the accommodating cavity. The medication adjustment member includes a third opening and an adjustment opening. The medication adjustment member includes an adjustment chamber therein. The third opening communicates with the adjustment opening, and the adjustment opening communicates with the second opening. The nebulizing module is disposed inside the liquid reservoir. The nebulizing module is located at a connection position between the second opening and the accommodating cavity.

Abstract: Systems and methods for context aware circuit design are described herein. A method includes: identifying at least one cell to be designed into a circuit; identifying at least one context parameter having an impact to layout dependent effect of the circuit; generating, for each cell and for each context parameter, a plurality of abutment environments associated with the cell; estimating, for each cell and each context parameter, a sensitivity of at least one electrical property of the cell to the context parameter by generating a plurality of electrical property values of the cell under the plurality of abutment environments; and determining whether each context parameter is a key context parameter for a static analysis of the circuit, based on the sensitivity of the at least one electrical property of each cell and based on at least one predetermined threshold.

Abstract: A system is provided. The system comprises a memory device and a test device. The test device that is operatively coupled to the memory device and transmits a plurality of glitch signals and a plurality of control signals after the plurality of glitch signals for a write operation of the memory device according to a data signal. The test device determines, based on write data of the data signal, whether read data outputted in a read operation of the memory device are bitwise shifted to generate a test result indicating a disturbance to the write operation induced by the plurality of glitch signals.

Abstract: The present disclosure provides a memory device and the forming method thereof. The memory device includes a bit line on a substrate, a multilayer spacer covering the bit line, a low-k dielectric layer and an air gap interposed in the multilayer spacer, and a cell contact adjacent to the multilayer spacer. The multilayer spacer, the low-k dielectric layer, and the air gap are disposed between the bit line and the cell contact. The top surface of the low-k dielectric layer is lower than a top surface of the bit line. The air gap is above the low-k dielectric layer, and an orthogonal projection of the air gap onto the substrate is partially overlapped with that of the low-k dielectric layer onto the substrate.

Abstract: A semiconductor memory device includes a substrate, a memory cell contact formed over the substrate, a bit line conductive structure formed over the substrate and a dielectric spacer located between the memory cell contact and the bit line conductive structure. The dielectric spacer includes an air gap having a rectangular cross-section, and the rectangular cross-section has a height H and a width W, wherein a H/W ratio is equal to or greater than 40.

Abstract: An integrated circuit is provided and includes first transistors of a first circuit arranged in a first cell row having a first number of fin structures and a second transistor of a second circuit. The second transistor is coupled in parallel with a first element in the first transistors between first and second terminals of the first circuit, and arranged in a second cell row having a second number, different from the first number, of fin structures. The first element and the second transistor share a first gate extending in a first direction to pass through the first and second cell rows in a layout view. The second transistor is a duplication of the first element.

Abstract: A semiconductor structure includes a circuit with a redistribution layer (RDL) formed over the circuit. The redistribution layer comprises a plurality of metal layers. An inductor is formed in a topmost metal layer, and the circuit is located directly under the inductor. An under bump metallization (UBM) layer formed on the topmost metal layer and a conductive connector formed on the UBM layer.