Abstract:
PROBLEM TO BE SOLVED: To provide a method for patterning a substrate in a way requiring no mask free of defects. SOLUTION: A first mask including a plurality of first features is inspected for defects in the features, and defect data are stored (step 20). A second mask is fabricated as a second sequentially used mask, for patterning a plurality of interconnections between individual regular elements and a plurality of interconnections between the regular elements and redundancy elements (step 50). The regular elements and the redundancy elements are patterned using the first mask (step 60), and the interconnections between the regular elements and the redundancy elements are patterned using the second mask (step 70). As a result, the interconnections are patterned in a way that corrects the detected defects in the first mask. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method of executing an electrical function such as a fusing operation by activation through a chip-embedded photodiode through spectrally selected external light activation, a corresponding structure, and a corresponding circuit. SOLUTION: In conjunction with additional circuit elements to an integrated circuit, incident light with specific intensity/wave length characteristics performs the implementation of repairs. More specifically, failing circuit elements are replaced with redundant ones for yield and/or reliability, and, after a packaged chip is placed in the system, the incident light makes an ESD protection device be disconnected from input pad. No additional pins on the package are necessary. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method and a structure for avoiding a floating body effect in an SOI structure. SOLUTION: A semiconductor device includes SOI FETs which include silicon bodies on an insulating layer on a conductive substrate. Gate dielectrics and gates are formed on the surfaces of the silicon bodies, and sources and drains are formed on two sides of the gates. Buried body contacts to substrate conductors are formed under the third side of the gate. The buried body contacts do not extend to the upper face of the silicon bodies. The buried body contacts are separated from the gates by second dielectrics whose thicknesses are generally larger than the thicknesses of the first gate dielectrics. The buried body contacts are plugs made of conductive materials, and the second dielectrics cover the body contacts under the gates. The FETs can be used in a SRAM circuit or any other type of circuit having the silicon on insulator(SOI) structure.
Abstract:
A double gated silicon-on-insulator (SOI) MOSFET is fabricated by forming epitaxially grown channels, followed by a damascene gate. The double gated MOSFET features narrow channels, which increases current drive per layout width and provides low out conductance.
Abstract:
PROBLEM TO BE SOLVED: To provide an improved manufacturing method of an integrated circuit which is made by incorporating both a FinFET and a thick-body device into a single chip. SOLUTION: This manufacturing method of a microelectronic circuit which is made by incorporating both a fin-type field-effect transistor (FinFET) 1801 and a thick-body device 1802 into a single chip can attain an efficiency higher than that of the conventional methods by utilizing common masks and processes. Reduction in the numbers of masks and processes is achieved by utilizing common masks and processes together with several reduction strategies. For example, a structure which usually accompanies a FinFET is formed on a side surface of a thick silicon mesa. A bulk of the silicon mesa is doped to connect to a body contact formed on the opposite side surface of the mesa. This invention also includes the FinFET, thick-body device, and a chip manufactured by the methods associated with the invention. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide an asymmetrical field effect transistor (FET) having a threshold voltage which is compatible with the present CMOS circuit design and a low-resistance gate electrode. SOLUTION: This asymmetrical FET contains a structure integrated with a p-type gate portion and an n-type gate portion provided on the main body of a vertical semiconductor and the interconnection between the gate portions and a flattened structure on the interconnection. Because of the integrated Fin FET/thick polycilicon-containing gate structure, an Fin FET having the threshold voltage which is compatible with the present CMOS circuit design and the gate electrode the resistivity of which is lower than that of the conventional symmetrical Fin FET can be manufactured. The asymmetrical FET contains the n-type gate portion and p-type gate portion on the main body of the vertical semiconductor and the interconnection between the gate portions and the flattened structure on the interconnection. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide efficient heat radiation which is related to an SOI structure, by forming a semiconductor device located beneath an embedded insulation layer, which is in turn electrically connected to an electrical structure body formed on the SOI structure. SOLUTION: The SOI structure is formed on a bulk semiconductor substrate. A trench, whose one end interfaces with the bulk semiconductor substrate is formed penetrating through the SOI layer. A semiconductor device, comprising a P diffusion region and N diffusion region, is formed on the bulk semiconductor substrate. A conductive plug, which self-matching with the P diffusion region and N diffusion region, while electrically contacting them, is formed in the trench. The semiconductor device formed in the bulk semiconductor substrate can contain an electrostatic discharge(ESD) device. The bulk semiconductor substrate functions as a medium for efficiently radiating heat generated by the (ESD) device, since its thermal conductivity is high.
Abstract:
PROBLEM TO BE SOLVED: To provide a dual/wrap-around gate field effect transistor particularly having a short gage length, a low off current and good performance and a method for manufacturing the same. SOLUTION: In the field effect transistor comprising gates each having a length of 10 nm or less and a conductive channel having a width maintained at 1/2 to 1/4 of the length of the gate so that the gates are disposed at least at two sides of the channel, a device having a complete depletion layer is formed without considering the off current. The above-mentioned channel is obtained by forming a groove in a minimum lithographic size, forming sidewalls in the groove and etching a gate structure in a self-alignment manner with the sidewalls. The channel is thereafter epitaxially grown from a source structure in the groove so that the source, the channel and a drain region are integrated in a single crystal structure.
Abstract:
Disclosed herein are embodiments of an interface device (100, 200) (e.g., a display, touchpad, touchscreen display, etc.) with integrated power collection functions. In one embodiment, a solar cell (110, 210) or solar cell array can be located within a substrate (10) at a first surface (11) and an array (120, 220) of interface elements can also be located within the substrate (10) at the first surface (11) such that portions of the solar cell(s) (110, 210) laterally surround the individual interface elements (121, 221) or groups thereof. In another embodiment, a solar cell (110, 210) or solar cell array (120, 220) can be located within the substrate (10) at a first surface (11) and an array of interface elements (120, 220) can be located within the substrate (10) at a second surface (12) opposite the first surface (11) (i.e., opposite the solar cell or solar cell array). In yet another embodiment, an array of diodes, which can function as either solar cells (110, 210) or sensing elements, can be within a substrate (10) at a first surface (11) and can be wired to allow for selective operation in either a power collection mode or sensing mode.
Abstract:
The present invention relates generally to semiconductor devices and, more specifically, to damascene gates (100; Fig 1C) having protected shorting regions (60) and related methods for their manufacture. A first aspect of the invention provides a method of forming a damascene gate (100) with protected shorting regions (60), the method comprising: forming a damascene gate having: a gate dielectric atop a substrate (12); a gate conductor (40) atop the gate dielectric; a conductive liner laterally adjacent the gate conductor (30); a spacer between the conductive liner and the substrate (20); and a first dielectric atop the gate conductor (60); removing a portion of the conductive liner (30); and depositing a second dielectric (60) atop a remaining portion of the conductive liner (30), such that the second dielectric is laterally adjacent both the first dielectric and the gate.