Abstract:
A method is described for fabricating and antifuse structure (100) integrated with a semiconductor device such as a FINFET or planar CMOS devise. A region of semiconducting material (11) is provided overlying an insulator (3) disposed on a substrate (10); an etching process exposes a plurality of corners (111-114) in the semiconducting material. The exposed corners are oxidized to form elongated tips (111t-114t) at the corners; the oxide (31) overlying the tips is removed. An oxide layer (51), such as a gate oxide, is then formed on the semiconducting material and overlying the corners; this layer has a reduced thickness at the corners. A layer of conducting material (60) is formed in contact with the oxide layer (51) at the corners, thereby forming a plurality of possible breakdown paths between the semiconducting material and the layer of conducting material through the oxide layer. Applying a voltage, such as a burn-in voltage, to the structure converts at least one of the breakdown paths to a conducting path (103, 280).
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:
A robust ESD protection circuit, method and design structure for tolerant and failsafe designs are disclosed. A circuit (200) includes a middle junction control circuit (250) that turns off a top NFET (225) of a stacked NFET electrostatic discharge (ESD) protection circuit (pad 215, ground 220, top NFET 225, bottom NFET 230, top resistor 235, and bottom resistor 240) during an ESD event.
Abstract:
A robust ESD protection circuit, method and design structure for tolerant and failsafe designs are dis-closed. A circuit (200) includes a middle junction control circuit (250) that turns off a top NFET (225) of a stacked NFET electrostatic discharge (ESD) protection circuit (pad 215, ground 220, top NFET 225, bottom NFET 230, top resistor 235, and bottom resistor 240) during an ESD event.
Abstract:
A robust ESD protection circuit, method and design structure for tolerant and failsafe designs are disclosed. A circuit (200) includes a middle junction control circuit (250) that turns off a top NFET (225) of a stacked NFET electrostatic discharge (ESD) protection circuit (pad 215, ground 220, top NFET 225, bottom NFET 230, top resistor 235, and bottom resistor 240) during an ESD event.
Abstract:
A robust ESD protection circuit, method and design structure for tolerant and failsafe designs are disclosed. A circuit (200) includes a middle junction control circuit (250) that turns off a top NFET (225) of a stacked NFET electrostatic discharge (ESD) protection circuit (pad 215, ground 220, top NFET 225, bottom NFET 230, top resistor 235, and bottom resistor 240) during an ESD event.
Abstract:
Hierin werden gesteuerte Silicium-Gleichrichter (SCR), Herstellungsverfahren und Entwicklungsstrukturen offenbart. Das Verfahren weist das Bilden einer gemeinsamen P-Wanne (12) auf einer vergrabenen Isolatorschicht (28b) eines Silicium-auf-Isolator(SOI)-Wafers (28) auf. Das Verfahren weist ferner das Bilden einer Vielzahl von gesteuerten Silicium-Gleichrichtern (SCR) (10) in der gemeinsamen P-Wanne auf, so dass N+-Diffusionskathoden (20) von jedem aus der Vielzahl von SCRs durch die gemeinsame P-Wanne zusammengekoppelt sind.