Abstract: Embodiments of the present disclosure generally relate to optical devices, and more specifically, protective coatings for optical devices and methods for preparing protective coatings on optical devices and other devices. In one or more embodiments, a method for protecting a photoresist on a workpiece is provided and includes depositing a photoresist layer on a first surface of a substrate, and depositing a protective coating on the photoresist layer disposed on the first surface, wherein the protective coating contains a water-soluble polymeric material. Thereafter, the method includes exposing a second surface of the substrate to one or more fabrication processes, where the first surface is covered by the photoresist layer and the protective coating, and the second surface is uncovered. Thereafter, the method further includes removing the protective coating by at least partially dissolving the water-soluble polymeric material with a removal solution containing water or an aqueous solution.

Abstract: A display device is disclosed that includes a backlight comprising light-emitting diodes. The disclosed display device includes a liquid crystal panel configured to control transmission of light from the backlight to a viewer. The display device also includes one or more optical films that incorporate one or more light conversion materials.

Abstract: A display device is disclosed that includes a backlight comprising light-emitting diodes. The disclosed display device includes a liquid crystal panel configured to control transmission of light from the backlight to a viewer. The display device also includes one or more optical films that incorporate one or more light conversion materials.

Abstract: Embodiments of the invention generally include apparatus and methods for depositing nanowires in a predetermined pattern during an electrospinning process. An apparatus includes a nozzle for containing and ejecting a deposition material, and a voltage source coupled to the nozzle to eject the deposition material. One or more electric field shaping devices are positioned to shape the electric field adjacent to a substrate to control the trajectory of the ejected deposition material. The electric field shaping device converges an electric field at a point near the surface of the substrate to accurately deposit the deposition material on the substrate in a predetermined pattern. The methods include applying a voltage to a nozzle to eject an electrically-charged deposition material towards a substrate, and shaping one or more electric fields to control the trajectory of the electrically-charged deposition material. The deposition material is then deposited on the substrate in a predetermined pattern.

Abstract: A system for remote device management includes in a network an auto-configuration server managing device, at least one database, and a plurality of auto-configuration servers. The auto-configuration server managing device and the database are coupled in a communicative connection. The database holds information for identification of electronic devices. The auto-configuration server managing device is arranged for communication with a manageable electronic device over the network. The auto-configuration server manager is further being arranged for: receiving a request from the manageable electronic device for configuration data, determining an identification of the manageable electronic device by comparing the request with the information for identification of electronic devices of the database, determining an identification of an auto-configuration server from the plurality of auto-configuration servers in accordance with the identification of the manageable electronic device.

Abstract: The present invention generally relates to a thin film semiconductor device having a buffer layer formed between the semiconductor layer and one or more layers. In one embodiment, a thin film semiconductor device includes a semiconductor layer having a first work function and a first electron affinity level, a buffer layer having a second work function greater than the first work function and a second electron affinity level that is less than the first electron affinity level; and a gate dielectric layer having a third work function less than the second work function and a third electron affinity level that is greater than the second electron affinity level.

Abstract: A system for remote device management includes in a network an auto-configuration server managing device, at least one database, and a plurality of auto-configuration servers. The auto-configuration server managing device and the database are coupled in a communicative connection. The database holds information for identification of electronic devices. The auto-configuration server managing device is arranged for communication with a manageable electronic device over the network. The auto-configuration server manager is further being arranged for: receiving a request from the manageable electronic device for configuration data, determining an identification of the manageable electronic device by comparing the request with the information for identification of electronic devices of the database, determining an identification of an auto-configuration server from the plurality of auto-configuration servers in accordance with the identification of the manageable electronic device.

Abstract: A system for remote device management includes in a network an auto-configuration server managing device, at least one database, and a plurality of auto-configuration servers. The auto-configuration server managing device and the database are coupled in a communicative connection. The database holds information for identification of electronic devices. The auto-configuration server managing device is arranged for communication with a manageable electronic device over the network. The auto-configuration server manager is further being arranged for: receiving a request from the manageable electronic device for configuration data, determining an identification of the manageable electronic device by comparing the request with the information for identification of electronic devices of the database, determining an identification of an auto-configuration server from the plurality of auto-configuration servers in accordance with the identification of the manageable electronic device.

Abstract: Embodiments of the invention generally provide a silicon-based photovoltaic (PV) device containing a high work-function (HWF) buffer layer disposed between a transparent conductive oxide (TCO) layer and a p-type silicon-based layer of a p-i-n junction. The PV device generally has a transparent substrate, a first TCO layer disposed on the transparent substrate, a HWF buffer layer disposed on the first TCO layer, a p-i-n junction disposed on the high work-function buffer layer, a second TCO layer disposed on the n-type silicon-based layer, and a metallic reflective layer disposed on the second TCO layer. The p-i-n junction contains an intrinsic layer disposed between a p-type silicon-based layer and an n-type silicon-based layer, and the p-type silicon-based layer is in contact with the HWF buffer layer.

Abstract: Embodiments of the invention generally include apparatus and methods for depositing nanowires in a predetermined pattern during an electrospinning process. An apparatus includes a nozzle for containing and ejecting a deposition material, and a voltage source coupled to the nozzle to eject the deposition material. One or more electric field shaping devices are positioned to shape the electric field adjacent to a substrate to control the trajectory of the ejected deposition material. The electric field shaping device converges an electric field at a point near the surface of the substrate to accurately deposit the deposition material on the substrate in a predetermined pattern. The methods include applying a voltage to a nozzle to eject an electrically-charged deposition material towards a substrate, and shaping one or more electric fields to control the trajectory of the electrically-charged deposition material. The deposition material is then deposited on the substrate in a predetermined pattern.

Abstract: A system for remote device management includes in a network an auto-configuration server managing device, at least one database, and a plurality of auto-configuration servers. The auto-configuration server managing device and the database are coupled in a communicative connection. The database holds information for identification of electronic devices. The auto-configuration server managing device is arranged for communication with a manageable electronic device over the network. The auto-configuration server manager is further being arranged for: receiving a request from the manageable electronic device for configuration data, determining an identification of the manageable electronic device by comparing the request with the information for identification of electronic devices of the database, determining an identification of an auto-configuration server from the plurality of auto-configuration servers in accordance with the identification of the manageable electronic device.

Abstract: The present invention generally includes an apparatus and process of forming a conductive layer on a surface of a host substrate, which can be directly used to form a portion of an electronic device. More specifically, one or more of the embodiments disclosed herein include a process of forming a conductive layer on a surface of a substrate using an electrospinning type deposition process. Embodiments of the conductive layer forming process described herein can be used to reduce the number of processing steps required to form the conductive layer, improve the electrical properties of the formed conductive layer and reduce the conductive layer formation process complexity over current state-of-the-art conductive layer formation techniques. Typical electronic device formation processes that can benefit from one or more of the embodiments described herein include, but are not limited to processes used to form solar cells, electronic visual display devices and touchscreen type technologies.

Abstract: A system for remote device management includes in a network an auto-configuration server managing device, at least one database, and a plurality of auto-configuration servers. The auto-configuration server managing device and the database are coupled in a communicative connection. The database holds information for identification of electronic devices. The auto-configuration server managing device is arranged for communication with a manageable electronic device over the network. The auto-configuration server manager is further being arranged for: receiving a request from the manageable electronic device for configuration data, determining an identification of the manageable electronic device by comparing the request with the information for identification of electronic devices of the database, determining an identification of an auto-configuration server from the plurality of auto-configuration servers in accordance with the identification of the manageable electronic device.

Abstract: The present invention generally relates to a thin film semiconductor device having a buffer layer formed between the semiconductor layer and one or more layers. In one embodiment, a thin film semiconductor device includes a semiconductor layer having a first work function and a first electron affinity level, a buffer layer having a second work function greater than the first work function and a second electron affinity level that is less than the first electron affinity level; and a gate dielectric layer having a third work function less than the second work function and a third electron affinity level that is greater than the second electron affinity level.

Abstract: Embodiments of the invention generally relate to solar cell devices and methods for manufacturing such solar cell devices. In one embodiment, a method for forming a solar cell device includes depositing a conversion layer over a first surface of a substrate, depositing a first transparent conductive oxide layer over a second surface of the substrate that is opposite the first surface, depositing a first p-doped silicon layer over the first transparent conductive oxide layer, depositing a first intrinsic silicon layer over the first p-doped silicon layer, and depositing a first n-doped silicon layer over the first intrinsic silicon layer. The method further includes depositing a second transparent conductive oxide layer over the first n-doped silicon layer, and depositing an electrically conductive contact layer over the second transparent conductive oxide layer.

Abstract: Embodiments described herein generally relate to methods of creating super-hydrophobic and super-oleophobic layers and the resulting composition of matter. A method for creating a super-hydrophobic and super-oleophobic surface can include positioning a substrate with an exposed surface in a processing chamber, injecting an electrically charged silicon-containing deposition material towards the surface of the substrate, depositing silicon-containing nanofibers onto the exposed surface of the substrate, and depositing a thin low surface energy layer over the exposed surface of the substrate and the silicon-containing nanofibers. A substrate with a super-hydrophobic and super-oleophobic surface can include a substrate with an exposed surface, one or more layers of nanofibers disposed on the exposed surface, and a thin low surface energy material deposited over both the nanofibers and the exposed surface.

Abstract: Embodiments of the invention generally include apparatus and methods for depositing nanowires in a predetermined pattern during an electrospinning process. An apparatus includes a nozzle for containing and ejecting a deposition material, and a voltage source coupled to the nozzle to eject the deposition material. One or more electric field shaping devices are positioned to shape the electric field adjacent to a substrate to control the trajectory of the ejected deposition material. The electric field shaping device converges an electric field at a point near the surface of the substrate to accurately deposit the deposition material on the substrate in a predetermined pattern. The methods include applying a voltage to a nozzle to eject an electrically-charged deposition material towards a substrate, and shaping one or more electric fields to control the trajectory of the electrically-charged deposition material. The deposition material is then deposited on the substrate in a predetermined pattern.

Abstract: Embodiments of the invention generally provide core-sheath nanostructures and methods for forming such nanostructures. In one embodiment, a method for forming core-sheath nanostructures includes stirring an aqueous dispersion containing silver nanostructures while adding a catalytic metal salt solution to the aqueous dispersion and forming catalytic metal coated silver nanostructures during a galvanic replacement process. The method further includes stirring an organic solvent dispersion containing the catalytic metal coated silver nanostructures dispersed in an organic solvent while adding a nickel salt solution to the organic solvent dispersion, and thereafter, adding a reducing solution to the organic solvent dispersion to form silver-nickel core-sheath nanostructures during a nickel coating process.

Abstract: Embodiments of the invention are directed to photovoltaic cells comprising a textured superstrate, a front contact layer, a photoabsorber layer and a back contact layer. The textured superstrate has a plurality of craters with an average opening angle, an average aspect ratio and an average depth. Methods of making such photovoltaic cells and photovoltaic modules are also described.

Abstract: Embodiments of the invention are directed to photovoltaic cells comprising a substantially optically transparent buffer layer on a superstrate and a photoabsorber layer on the buffer layer. The buffer layer of detailed embodiments has a work function greater than or equal to about the work function of the photoabsorber layer. Additional embodiments of the invention are directed to photovoltaic modules comprises a plurality of photovoltaic cells and methods of making photovoltaic cells and photovoltaic modules.