Abstract: Incorporation of metallic quantum dots (e.g., silver bromide (AgBr) films) into the source and drain regions of a MOSFET can assist in controlling the transistor performance by tuning the threshold voltage. If the silver bromide film is rich in bromine atoms, anion quantum dots are deposited, and the AgBr energy gap is altered so as to increase Vt. If the silver bromide film is rich in silver atoms, cation quantum dots are deposited, and the AgBr energy gap is altered so as to decrease Vt. Atomic layer deposition (ALD) of neutral quantum dots of different sizes also varies Vt. Use of a mass spectrometer during film deposition can assist in varying the composition of the quantum dot film. The metallic quantum dots can be incorporated into ion-doped source and drain regions. Alternatively, the metallic quantum dots can be incorporated into epitaxially doped source and drain regions.

Abstract: A plurality of metal tracks are formed in a plurality of intermetal dielectric layers stacked in an integrated circuit die. Thin protective dielectric layers are formed around the metal tracks. The protective dielectric layers act as a hard mask to define contact vias between metal tracks in the intermetal dielectric layers.

Abstract: Metal quantum dots are incorporated into doped source and drain regions of a MOSFET array to assist in controlling transistor performance by altering the energy gap of the semiconductor crystal. In a first example, the quantum dots are incorporated into ion-doped source and drain regions. In a second example, the quantum dots are incorporated into epitaxially doped source and drain regions.

Abstract: A semiconductor device having a gate positioned in a recess between the source region and a drain region that are adjacent either side of the gate electrode. A channel region is below a majority of the source region as well as a majority of the drain region and the entire gate electrode.

Abstract: An apparatus for performing metrology of a wafer. The apparatus may include a substrate with a plurality of microprobes. A plurality of light sources may direct light onto each of the microprobes. Light reflected from the microprobes may be detected by a plurality of photodetectors thereby generating a detection signal associated with each of the microprobes. A controller may send a driving signal to each of the plurality of microprobes and determine a height profile and a surface charge profile of the wafer based on each of the detection signals.

Abstract: An integrated tool to reduce defects in manufacturing a semiconductor device by reducing queue times during a manufacturing process. The integrated tool may include at least one a polishing tool comprising at least one polishing module and at least one deposition tool comprising at least one deposition chamber. At least one pump-down chamber may connect the polishing tool to the deposition tool. The at least one pump-down chamber includes a passage through which the semiconductor device is passed. Defects in the semiconductor device are reduced by reducing the queue time at various stages of the fabrication process.

Abstract: A semiconductor processing device and a method of operating the same. The method may include measuring at least one property of a semiconductor wafer and determining a recipe for processing the semiconductor wafer based on the at least one property. The semiconductor wafer may be processed with a plurality of chemical mechanical polishing (CMP) modules based on the determined recipe, wherein the recipe comprises a value of at least one parameter for use by each of the plurality of CMP modules. The measurements may be made in situ or by an inline metrology device. The recipe and various parameters associated with the recipe may be determined by a controller of the semiconductor processing device.

Abstract: A device is provided that includes a first die having a first alignment structure that includes a plurality of first transmission columns arranged in a pattern and a second die positioned on the first die, the second die having a second alignment structure that includes a plurality of second transmission columns arranged in the same pattern as the first transmission columns. The first and second transmission columns are each coplanar with a first surface and a second surface of the first and second die, respectively.

Abstract: Chemical-Mechanical Polishing can be used to planarize a semiconductor wafer having a patterned overlapping layer. Isotropic etching can remove a portion of the patterned overlapping layer to produce tapered sidewalls of reduced height. A portion of the overlapping layer can be removed using CMP. The overlapping layer can have a higher polishing rate than the underlying layer so that the underlying layer remains substantially intact after removing the overlying layer.

Abstract: The present disclosure is directed to fluid filtering systems and methods for use during semiconductor processing. One or more embodiments are directed to fluid filtering systems and methods for filtering ions and particles from a fluid as the fluid is being provided to a semiconductor wafer processing tool, such as to a semiconductor wafer cleaning tool.

Abstract: The present invention relates to methods and pharmaceutical compositions for treating obesity or obesity-related disorders in a subject suffering from or predisposed to developing obesity or an obesity-related disorder, or for inhibiting the infectivity of HIV, by administering oleuropein, an analogue or derivative thereof, or the major metabolites of oleuropein including oleuropein aglycone, hydroxytyrosol, and elenolic acid or their analogues, or derivatives thereof, an iridoid glycoside, or a secoiridoid glycoside or analogues or derivatives thereof, or any combination of the foregoing including olive leave extract. The invention also relates to methods for screening/diagnosing a subject having, or predisposed to having obesity or a related disorder by measuring the expression profiles of an adipogenic gene selected from PPAR?2, LPL and ?P2 gene and gene product, or other adipogenic, lipogenic, or lipolytic genes and gene products in an individual.

Abstract: A device is provided that includes a first die having a first alignment structure that includes a plurality of first transmission columns arranged in a pattern and a second die positioned on the first die, the second die having a second alignment structure that includes a plurality of second transmission columns arranged in the same pattern as the first transmission columns. The first and second transmission columns are each coplanar with a first surface and a second surface of the first and second die, respectively.

Abstract: A method for uniformly planarizing a wafer that includes determining a first wafer warped value at a first zone on the wafer, determining a second wafer warped value at a second zone on the wafer, and calculating a pressure difference based on the first and second wafer warped values at the first and second zones is provided. The method also includes performing a chemical mechanical polishing of the wafer, applying a first pressure based on the first wafer warped value to the wafer at the first zone during the chemical mechanical polishing, and applying a second pressure based on the second wafer warped value to the wafer at the second zone during the chemical mechanical polishing, a difference between the first pressure and the second pressure based on the pressure difference.

Abstract: Disclosed herein are methods and compositions for treating neuropathies by modulating endogenous NT-3 of GDNF gene expression.

Abstract: A semiconductor processing apparatus includes a semiconductor processing station for a semiconductor wafer, and an endpoint detector associated with the semiconductor processing station. The endpoint detector includes a non-contact probe configured to probe the semiconductor wafer, an optical transmitter configured to transmit an optical signal to the non-contact probe, and an optical receiver configured to receive a reflected optical signal from the non-contact probe. The controller controls the semiconductor processing station based on the reflected optical signal.

Abstract: A cleaning apparatus for cleaning a semiconductor wafer includes a rotary brush to be positioned to clean the semiconductor wafer, and an optical sensing device associated with the rotary brush to sense a separation distance between a reference position thereon and the semiconductor wafer. An actuator is coupled to the optical sensing device to position the rotary brush based upon the sensed separation distance.

Abstract: A drying apparatus for drying a semiconductor wafer includes a processing chamber including a rinsing section and a drying section adjacent thereto. The rinsing section has a chamber loading slot associated therewith for receiving the semiconductor wafer. The drying section has a chamber unloading slot associated therewith for outputting the semiconductor wafer. An exhaust control cap is carried by the processing chamber and includes a bottom wall, a top wall, at least one intermediate wall between the bottom and top walls, and a side wall coupled to the top, bottom and the at least one intermediate wall to define stacked exhaust sections. The exhaust control cap has a cap loading slot aligned with the chamber loading slot, a cap unloading slot aligned with the chamber unloading slot, and at least one exhaust port configured to be coupled to a vacuum source.

Abstract: A method of forming dummy structures in accordance with the golden ratio to reduce dishing and erosion during a chemical mechanical polish. The method includes determining at least one unfilled portion of a die prior to a chemical mechanical planarization and filling the at least one unfilled portion with a plurality of dummy structures, a ratio of the dummy structures to a total area of the unfilled portion being in the range of 36 percent and 39 percent. A die formed in accordance with the method may include a plurality of metal levels and a plurality of regions at each metal level, each region having a plurality of dummy structures formed as golden rectangles.

Abstract: A method that includes forming a first level of active circuitry on a substrate, forming a first probe pad electrically connected to the first level of active circuitry where the first probe pad having a first surface, contacting the first probe pad with a probe tip that displaces a portion of the first probe pad above the first surface, and performing a chemical mechanical polish on the first probe pad to planarize the portion of the first probe pad above the first surface. The method also includes forming a second level of active circuitry overlying the first probe pad, forming a second probe pad electrically connected to the second level of active circuitry, contacting the second probe pad with a probe tip that displaces a portion of the probe pad, and chemically mechanically polishing the second probe pad to remove the portion displaced.

Abstract: A method that includes forming a first level of active circuitry on a substrate, forming a first probe pad electrically connected to the first level of active circuitry where the first probe pad having a first surface, contacting the first probe pad with a probe tip that displaces a portion of the first probe pad above the first surface, and performing a chemical mechanical polish on the first probe pad to planarize the portion of the first probe pad above the first surface. The method also includes forming a second level of active circuitry overlying the first probe pad, forming a second probe pad electrically connected to the second level of active circuitry, contacting the second probe pad with a probe tip that displaces a portion of the probe pad, and chemically mechanically polishing the second probe pad to remove the portion displaced.