Abstract:
The present disclosure provides a method of fabricating a semiconductor device. The method includes providing a semiconductor substrate, forming a dielectric layer over the semiconductor substrate, treating the dielectric layer with a carbon containing group, forming a conductive layer over the treated dielectric layer, and patterning and etching the dielectric layer and conductive layer to form a gate structure. The carbon containing group includes an OCH3 or CN species.
Abstract:
A semiconductor chip includes a semiconductor substrate 126, in which first and second active regions are disposed. A resistor 124 is formed in the first active region and the resistor 124 includes a doped region 128 formed between two terminals 136. A strained channel transistor 132 is formed in the second active region. The transistor includes a first and second stressor 141, formed in the substrate oppositely adjacent a strained channel region 143.
Abstract:
An exemplary system for processing a workpiece comprises a conveyor, a first liquid spraying device, a second liquid spraying device, and a substrate positioning device. The conveyor is configured for conveying the workpiece along a conveying direction. The first and second liquid spraying devices for spraying liquid onto the workpiece transported on the conveyor face the conveyor and are arranged along the conveying direction. The substrate positioning device for reorienting the workpiece on the conveyor is installed between the first and second liquid spraying devices and faces the conveyor.
Abstract:
A MOS device having optimized stress in the channel region and a method for forming the same are provided. The MOS device includes a gate over a substrate, a gate spacer on a sidewall of the gate wherein a non-silicide region exists under the gate spacer, a source/drain region comprising a recess in the substrate, and a silicide region on the source/drain region. A step height is formed between a higher portion of the silicide region and a lower portion of the silicide region. The recess is spaced apart from a respective edge of a non-silicide region by a spacing. The step height and the spacing preferably have a ratio of less than or equal to about 3. The width of the non-silicide region and the step height preferably have a ratio of less than or equal to about 3. The MOS device is preferably an NMOS device.
Abstract:
A multilayer printed circuit board includes a first printed circuit board, a second printed circuit board, an adhesive film, and a function layer. The adhesive film is sandwiched between the first printed circuit board and the second printed circuit board. The function layer is disposed between the first printed circuit board and the second printed circuit board for blocking water from passing therethrough and for screening electromagnetic interference between the first printed circuit board and the second printed circuit board.
Abstract:
A pre-plating solution for making a printed circuit board includes carbon nanotubes of 0.01-3 wt %, a surfactant of 0.01-4 wt %, an alkaline substance of 0.01-l wt % and a solvent. A method for preparing a pre-plating solution comprising the steps of: providing a plurality of carbon nanotubes; purifying the carbon nanotubes; treating the purified carbon nanotubes with an acid; mixing the treated carbon nanotubes, an alkaline substance and a solvent to form suspension; and adding surfactant into suspension.
Abstract:
A method for forming holes in making a printed circuit board includes the step of: providing a copper clad laminate including an insulation layer and a copper layer laminated on the insulation layer; forming a carbon nano-material on the copper layer of the copper clad laminate; and applying a laser beam onto a portion of the carbon nano-material to define a hole in the copper clad laminate beneath the portion of the carbon nano-material.
Abstract:
A semiconductor structure is provided. The semiconductor structure includes a semiconductor substrate; an insulating region extending from substantially a top surface of the semiconductor substrate into the semiconductor substrate; an embedded dielectric spacer adjacent the insulating region, wherein a bottom of the embedded dielectric spacer adjoins the semiconductor substrate; and a semiconductor material adjoining a top edge and extending on a sidewall of the embedded dielectric spacer.
Abstract:
Provided is a semiconductor device and a method for its fabrication. The device includes a semiconductor substrate, a first silicide in a first region of the substrate, and a second silicide in a second region of the substrate. The first silicide may differ from the second silicide. The first silicide and the second silicide may be an alloy silicide.
Abstract:
A preferred embodiment of the present invention comprises a dielectric/metal/2nd energy bandgap (Eg) semiconductor/1st Eg substrate structure. In order to reduce the contact resistance, a semiconductor with a lower energy bandgap (2nd Eg) is put in contact with metal. The energy bandgap of the 2nd Eg semiconductor is lower than the energy bandgap of the 1st Eg semiconductor and preferably lower than 1.1eV. In addition, a layer of dielectric may be deposited on the metal. The dielectric layer has built-in stress to compensate for the stress in the metal, 2nd Eg semiconductor and 1st Eg substrate. A process of making the structure is also disclosed.
Abstract translation:本发明的优选实施方案包括介电/金属/第二能带隙(E />)半导体/第一电极 g SUB>衬底结构。 为了降低接触电阻,将具有较低能量带隙(2Ω)的半导体与金属接触。 第二个和第二个半导体的能带隙比第一个第二半导体的能量带隙低, 半导体,优选低于1.1eV。 此外,可以在金属上沉积介电层。 电介质层具有内置应力以补偿金属,第二和第二半导体中的应力, g sub>衬底。 还公开了制造该结构的过程。