Abstract:
A method for forming an interconnect wiring structure, such as a fuse structure, comprises forming an opening in an insulating layer using a phase shift mask (the opening having vertical sidewalls sloped sidewalls and horizontal surfaces), depositing a conductive material in the opening and removing the conductive material from the sloped sidewalls and horizontal surfaces, wherein the conductive material remains on the vertical sidewalls as fuse links.
Abstract:
A modularized capacitor array includes a plurality of capacitor modules. Each capacitor module includes a capacitor and a switching device that is configured to electrically disconnect the capacitor. The switching device includes a sensing unit configured to detect the level of leakage of the capacitor so that the switching device disconnects the capacitor electrically if the leakage current exceeds a predetermined level. Each capacitor module can include a single capacitor plate, two capacitor plates, or more than two capacitor plates. The leakage sensors and switching devices are employed to electrically disconnect any capacitor module of the capacitor array that becomes leaky, thereby protecting the capacitor array from excessive electrical leakage.
Abstract:
A DRAM cell and method of fabrication are provided that eliminate critical photolithography fabrication steps by merging stacked capacitor formation with electrical contacts. The a single lithography step can be used to form the electrical contacts (28) because the stacked capacitors (46,48,50) are co-planar with the bit lines (36) and the stacked capacitors are located in the insulating material provided between the bit lines. Unlike conventional capacitor-over-bit line (COB) DRAM cells, this capacitor-beside-bit line DRAM cell eliminates the need to dedicate contacts to the capacitor, making it possible to achieve higher capacitance with lower global topography.
Abstract:
An automatic method for the generation of a logical hardware test pattern in memory circuits is based on a given physical pattern. The method includes the backwards transformation from a given set of logical data pattern. Since the method is automatic, no knowledge of the data scrambling inside the memory circuit is required.
Abstract:
PROBLEM TO BE SOLVED: To provide a method for fabricating a microwave circuit and a radio frequency circuit in a silicon on a sapphire substrate. SOLUTION: An improved method for fabricating a silicon on sapphire structure and/or device is disclosed. In one suitable embodiment, a single silicon oxide layer is interposed between a silicon layer and a sapphire layer by attaching the silicon oxide layer onto the silicon layer through growth or deposition and then attaching the sapphire layer to the oxide layer through wafer bonding. In another embodiment, a first silicon oxide layer is attached to the silicon layer through growth or deposition. Subsequently, a second silicon oxide layer is attached to the sapphire layer by deposition, for example. Thereafter, the first silicon oxide layer and the second silicon oxide layer are bonded by wafer bonding technology. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a MOSFET(metal oxide semiconductor field effect transistor) and a method for manufacturing the MOSFET capable of eliminating the overlap of a gate dielectric and a source/drain region with high reliability. SOLUTION: This method for manufacturing a MOSFET comprises the process of patterning a gate laminate constituted of a gate dielectric 20 arid a gate conductor 30 formed on a substrate 10, and the process of modifying the gate dielectric 20 beneath the gate dielectric 30 so that the gate dielectric 20 can have a central portion and a modified dielectric region 70 adjacent to the central portion. The modified dielectric region 70 has a lower dielectric constant than that of the gate dielectric 20, and the central portion is shorter than the gate conductor 30. COPYRIGHT: (C)2003,JPO
Abstract:
A DRAM cell and method of fabrication are provided that eliminate critical photolithography fabrication steps by merging stacked capacitor formation with electrical contacts. The a single lithography step can be used to form the electrical contacts because the stacked capacitors are co-planar with the bit lines and the stacked capacitors are located in the insulating material provided between the bit lines. Unlike conventional capacitor-over-bit line (COB) DRAM cells, this capacitor-beside-bit line DRAM cell eliminates the need to dedicate contacts to the capacitor, making it possible to achieve higher capacitance with lower global topography.
Abstract:
Improved transistor array device performance is obtained by use of bias voltage regulation which tracks with a fraction of a monitor transistor threshold voltage. The circuitry and methods are especially useful for improving the performance of transistor array devices such as DRAM and embedded DRAM. These benefits are obtained especially when at least two bias voltages normally supplied to the array are regulated by tracking with a fraction of an actual threshold voltage of at least one monitor transistor. Performance improvements include improved reliability, wider operational bias conditions, reduced power consumption and (in the case of memory cells) improved retention time.
Abstract:
Halbleiterstruktur, welche eine Matrix von Kondensatormodulen (100) umfasst, wobei jedes der Kondensatormodule das Folgende umfasst: einen Kondensator (C), welcher eine erste Elektrode (110), eine zweite Elektrode (120) und ein dielektrisches Material umfasst, das zwischen der ersten Elektrode und der zweiten Elektrode angeordnet ist; und eine Schalteinheit (140), welche dafür konfiguriert ist, den Kondensator von einem Spannungsversorgungsknoten (Vdd) elektrisch zu trennen, wobei die Schalteinheit einen Feldeffekttransistor (P2) und eine Sensoreinheit (142) umfasst, welche dafür konfiguriert ist, einen Leckstrom durch den Kondensator hindurch zu erkennen und wobei die Sensoreinheit einen ersten Feldeffekttransistor des p-Typs (P1) umfasst, es sich bei dem Feldeffekttransistor um einen zweiten Feldeffekttransistor des p-Typs handelt und der erste und zweite Feldeffekttransistor des p-Typs in einer Parallelschaltung zwischen den Spannungsversorgungsknoten und einen Knoten (Knoten B) des Kondensators geschaltet sind.
Abstract:
Eine modulare Kondensatormatrix umfasst mehrere Kondensatormodule. Jedes Kondensatormodul umfasst einen Kondensator und eine Schalteinheit, welche dafür konfiguriert ist, den Kondensator elektrisch abzutrennen. Die Schalteinheit umfasst eine Sensoreinheit, welche dafür konfiguriert ist, die Stärke des Leckstroms des Kondensators zu erkennen, so dass die Schalteinheit den Kondensator elektrisch abtrennt, wenn der Leckstrom eine vorgegebene Stärke übersteigt. Jedes Kondensatormodul kann eine einzelne Kondensatorplatte, zwei Kondensatorplatten oder mehr als zwei Kondensatorplatten umfassen. Die Leckstromsensoren und Schalteinheiten werden verwendet, um jedes Kondensatormodul aus der Kondensatormatrix elektrisch abzutrennen, das zu lecken beginnt, wodurch die Kondensatormatrix vor einem übermäßigen elektrischen Leckstrom geschützt wird.