Abstract:
A new method based on measuring the weight of a wafer (on which the layer of HSG has been deposited) before (W1) and after (W2) the surface of the HSG layer is coated with a layer of either photoresist or SOG. The difference delta W=W2−W1 provides an indicator of the roughness or smoothness of the surface of the deposited layer of HSG. This new method can also be based on measuring the weight W of rejected or dropped PR or SOG after the surface of the HSG layer has been coated with a layer of either photoresist or SOG. The weight of the rejected or dropped PR or SOG also provides an indicator of the roughness or smoothness of the surface of the deposited layer of HSG.
Abstract:
A method was achieved for making improved self-aligned contacts (SAC) to a patterned polysilicon layer, such as gate electrodes for FETs. Lightly doped source/drain areas are implanted. A second insulating layer is deposited and etched back to form first sidewall spacers. A silicon nitride etch-stop layer and a first interpolysilicon oxide (IPO1) layer are deposited. First SAC openings are etched in the IPO1 layer to the etch-stop layer, and concurrently openings are etched for the gate electrodes, eliminating a masking step. The etch-stop layer is etched in the SAC openings to form second sidewall spacers that protect the first sidewall spacers during BOE cleaning of the contacts. A patterned polycide layer is used to make SACs and electrical interconnections. A second IPO layer is deposited to provide insulation, and an interlevel dielectric layer is deposited. Second SAC openings are etched to the etch-stop layer for the next level of metal interconnections, while the contact openings to the gate electrodes are etched to completion. The etch-stop layer is etched in the second SAC openings to form second sidewall spacers to protect the first sidewall spacers during cleaning. Metal plugs are formed from a first metal in the second SAC openings and in the openings to the gate electrodes. A second metal is patterned to complete the structure to the first level of metal interconnections.
Abstract:
A method of forming a grooved fuse (plug fuse) in the same step that via plugs are formed in the guard ring area 14 and in product device areas. A key point of the invention is to form fuses from the via plug layer, not from the metal layers. Also, key guard rings are formed around the plug guise. The invention can include the following: a semiconductor structure is provided having a fuse area, a guard ring area surrounding the fuse area; and a device area. First and second conductive strips are formed. First and second insulating layers are formed over the first and second conductive strips. Plug contacts and fuse plugs are formed through the first and second insulating layers to the first and second conductive strips. A third insulating layer is formed over the second insulating layer. Metal lines are formed over the third insulating layer in the device area. A fuse via opening is formed in the third insulating layer. A plug fuse is formed in the fuse via opening. A fourth insulating layer is formed over the plug fuse and the third insulating layer. A fuse opening is formed at least partially though the fourth insulating layer over the fuse area.
Abstract:
A data storage device carrier system includes a carrier configured to support one or more data storage devices, a backplane, including one or more coupling connector devices configured to electrically couple with a motherboard, and an interposer board operable to couple a plurality of the data storage devices supported by the carrier with the backplane. In an embodiment, the one or more coupling connector devices are operable to transfer communication signals and electrical power. The interposer board is operable to provide the electrical power from a single port on the backplane to each of the plurality of the data storage devices. The interposer board is also operable to pass communication signals between a primary port on the backplane to a first one of the plurality of the data storage devices, and to pass communication signals between a secondary port on the backplane to a second one of the plurality of the data storage devices.
Abstract:
The present disclosure describes a method of forming a memory device. The method includes receiving a wafer substrate, forming a poly stack pattern on the wafer substrate, performing an ion implantation process to form a source and a drain in the wafer substrate, forming a memory gate and a control gate in the defined poly stack pattern, and forming a control gate in the control poly stack pattern. Forming the memory gate further includes performing a memory gate recess to bury the memory gate in an oxide layer.
Abstract:
An embedded transistor for an electrical device, such as a DRAM memory cell, and a method of manufacture thereof is provided. A trench is formed in a substrate and a gate dielectric and a gate electrode formed in the trench of the substrate. Source/drain regions are formed in the substrate on opposing sides of the trench. In an embodiment, one of the source/drain regions is coupled to a storage node and the other source/drain region is coupled to a bit line. In this embodiment, the gate electrode may be coupled to a word line to form a DRAM memory cell.
Abstract:
A hand-held device includes a first body, a second body, a sliding module, and a guiding module. The sliding module is disposed between the first body and the second body, so that the second body is able to be slid on a two-dimensional plane relative to the first body. The guiding module includes a first guiding part and a second guiding part. The first guiding part is fixed to the first body. The second guiding part is fixed to the second body and coupled to the first guiding part. Besides, the second guiding part is able to be moved along a guiding path relative to the first guiding part, so that the second body is able to be slid along the guiding path on the two-dimensional plane relative to the first body.
Abstract:
An information handling system circuit board has an opening formed through it proximate a coupling point of an integrated circuit to the circuit board. The opening manages stress at the coupling point of the integrated circuit to the circuit board to reduce the risk of damage to the coupling point during deformation of the circuit board, such as when the circuit board is coupled to a chassis or when a component is pressed into the circuit board. In one embodiment, rectangular openings are formed at diagonally opposed corners of a BSA integrated circuit. In alternative embodiments, openings of varying shape, such as slots or curved slots, are formed at selected corners of the integrated circuit.
Abstract:
Semiconductor devices and methods for fabricating the same are provided. An exemplary embodiment of a semiconductor device comprises a substrate with a plurality of isolation structures formed therein, defining first and second areas over the substrate. A transistor is formed on a portion of the substrate in the first and second areas, respectively, wherein the transistor in the second area is formed with merely a pocket doping region in the substrate adjacent to a drain region thereof. A first dielectric layer is formed over the substrate, covering the transistor formed in the first and second areas. A plurality of first contact plugs is formed through the first dielectric layer, electrically connecting a source region and a drain region of the transistor in the second area, respectively. A second dielectric layer is formed over the first dielectric layer with a capacitor formed therein, wherein the capacitor electrically connects one of the first contact plugs.
Abstract:
A belt tension adjustment apparatus and an optical scanner using the same. The belt tension adjustment apparatus includes a plate spring and/or a tension spring. Utilizing the elasticity of the plate spring or the elastic forces provided by the plate spring and the tension spring, a section of the transmission belt bends to produce a tension in the belt. With the belt tension adjustment apparatus, belt tension in the transmission belt can be easily adjusted and hence the belt can be easily mounted or dismounted from the belt wheels during installation, maintenance or adjustment.