Abstract: In the present electronic test structure comprising, a conductor is provided, overlying a substrate. An electronic device overlies a portion of the conductor and includes a first electrode connected to the conductor, a second electrode, and an insulating layer between the first and second electrodes. A portion of the conductor is exposed for access thereto.

Abstract: In an electronic device, a diode and a resistive memory device are connected in series. The diode may take a variety of forms, including oxide or silicon layers, and one of the layers of the diode may make up a layer of the resistive memory device which is in series with that diode.

Abstract: A method of forming a semiconductor structure comprises providing a semiconductor substrate comprising a first transistor element and a second transistor element. The first transistor element comprises at least one first amorphous region and the second transistor element comprises at least one second amorphous region. A stress-creating layer is formed over the first transistor element. The stress-creating layer does not cover the second transistor element. A first annealing process is performed. The first annealing process is adapted to re-crystallize the first amorphous region and the second amorphous region. After the first annealing process, a second annealing process is performed. The stress-creating layer remains on the semiconductor substrate during the second annealing process.

Abstract: In an electronic device, a diode and a resistive memory device are connected in series. The diode may take a variety of forms, including oxide or silicon layers, and one of the layers of the diode may make up a layer of the resistive memory device which is in series with that diode.

Abstract: In the present electronic test structure comprising, a conductor is provided, overlying a substrate. An electronic device overlies a portion of the conductor and includes a first electrode connected to the conductor, a second electrode, and an insulating layer between the first and second electrodes. A portion of the conductor is exposed for access thereto.

Abstract: In the present electronic test structure comprising, a conductor is provided, overlying a substrate. An electronic device overlies a portion of the conductor and includes a first electrode connected to the conductor, a second electrode, and an insulating layer between the first and second electrodes. A portion of the conductor is exposed for access thereto.

Abstract: The present resistive memory device includes first and second electrodes. An active layer is situated between the first and second electrodes. The active layer with advantage has a thermal conductivity of 0.02 W/Kcm or less, and is surrounded by a body in contact with the layer, the body having a thermal conductivity of 0.01 W/Kcm or less.

Abstract: An electronic device includes a first electrode, a second electrode and an insulating layer between the first and second electrodes, which insulating layer may be susceptible to reduction by H2. A gettering layer is provided on and in contact with the first electrode, the gettering layer acting as a protective layer for substantially avoiding reduction of the insulating layer by capturing and immobilizing H2. A glue layer may be provided between the first layer and first electrode. An additional gettering layer may be provided on and in contact with the second electrode, and a glue layer may be provided between the second electrode and additional gettering layer.

Abstract: In the present electronic test structure comprising, a conductor is provided, overlying a substrate. An electronic device overlies a portion of the conductor and includes a first electrode connected to the conductor, a second electrode, and an insulating layer between the first and second electrodes. A portion of the conductor is exposed for access thereto.

Abstract: The present method of fabricating a memory device includes the steps of providing a dielectric layer, providing an opening in the dielectric layer, providing a first conductive body in the opening in the dielectric layer, providing a switching body in the opening, and providing a second conductive body in the opening.

Abstract: A present method of fabricating a memory device includes the steps of providing a dielectric layer;, providing an opening in the dielectric layer, providing a first conductive body in the opening, providing a switching body in the opening, the first conductive body and switching body filling the opening, and providing a second conductive body over the switching body. In an alternate embodiment, a second dielectric layer is provided over the first-mentioned dielectric layer, and the switching body is provided in an opening in the second dielectric layer.

Abstract: A method of forming a semiconductor structure comprises providing a semiconductor substrate comprising a first transistor element and a second transistor element. The first transistor element comprises at least one first amorphous region and the second transistor element comprises at least one second amorphous region. A stress-creating layer is formed over the first transistor element. The stress-creating layer does not cover the second transistor element. A first annealing process is performed. The first annealing process is adapted to re-crystallize the first amorphous region and the second amorphous region. After the first annealing process, a second annealing process is performed. The stress-creating layer remains on the semiconductor substrate during the second annealing process.

Abstract: In one embodiment, a method of fabricating an integrated circuit includes the steps of: (i) forming composite spacers on sidewalls of a transistor gate, each of the composite spacers comprising a first liner having a stepped portion and a disposable spacer material over the stepped portion; (ii) forming a source/drain region by performing ion implantation through a portion of the first liner over the source/drain region; (iii) replacing the disposable spacer material with a second liner formed over the first liner after forming the source/drain region; (iv) forming a pre-metal dielectric over the second liner; and (v) forming a self-aligned contact through the pre-metal dielectric. Among other advantages, the method allows for an increased contact area for a self-aligned contact.

Abstract: A method of forming oxide-nitride-oxide (ONO) dielectric of a SONOS-type nonvolatile storage device is disclosed. According to a first embodiment, a method may include the steps of forming a tunneling dielectric (step 102), forming a charge storing dielectric (step 104), and forming a top insulating layer (step 106) all in the same wafer processing tool. According to various aspects of the embodiments, all layers of an ONO dielectric of a SONOS-type device may be formed in the same general temperature range. Further, a tunneling dielectric may include a tunnel oxide formed with a long, low pressure oxidation, and a top insulating layer may include silicon dioxide formed with a preheated source gas.

Abstract: A method of forming a charge storing layer is disclosed. According to an embodiment, a method may include the steps of forming a first portion of a charge storing layer with a first gas flow rate ratio (step 102), forming at least a second portion of the charge storing layer by changing to a second gas flow rate ratio that is different than the first gas flow rate ratio (step 104), and forming at least a third portion of the charge storing layer by changing to a third gas flow rate ratio that is different than the second gas flow rate ratio (step 106).

Abstract: A method of making a semiconductor structure, includes annealing a structure in a deuterium-containing atmosphere. The structure includes (i) a substrate, (ii) a gate dielectric on the substrate, (iii) a gate on the gate dielectric, (iv) an etch-stop layer on the gate, and (v) an interlayer dielectric on the etch-stop layer.

Abstract: A method of making a semiconductor structure, includes annealing a structure in a deuterium-containing atmosphere. The structure includes (i) a substrate, (ii) a gate dielectric on the substrate, (iii) a gate on the gate dielectric, (iv) an etch-stop layer on the gate, and (v) an interlayer dielectric on the etch-stop layer.

Abstract: A method of making a semiconductor structure, includes annealing a structure in a deuterium-containing atmosphere. The structure includes (i) a substrate, (ii) a gate dielectric on the substrate, (iii) a gate on the gate dielectric, (iv) an etch-stop layer on the gate, and (v) an interlayer dielectric on the etch-stop layer.

Abstract: A plasma etch chemistry and etch methodology is provided to improve critical dimension control for openings formed into and/or through a semiconductor thin film. According to an embodiment, the plasma etch chemistry includes an etchant mixture comprising a first etchant of the formula CxHyFz (where x≧2, y≧1 and z≧2) and a second etchant other than the first etchant to form the openings. The relationship of x, y and z may be such that y+z equals an even number ≦2x+2. According to an alternative embodiment, the plasma etch chemistry further includes strained cyclic (hydro)fluorocarbon. The plasma etch chemistry may be used to form openings in the layer in a single-etch step. In a further embodiment, the plasma etch chemistry described herein may etch less than the entire thickness of the layer, and a second plasma etch chemistry substantially free of the first etchant and strained cyclic (hydro)fluorocarbons etches the remainder of the layer to form the openings.