Abstract: Systems, methods, devices, and products of processes consistent with the innovations herein relate to thin-film solar cells having contacts on the backside, only. In one exemplary implementation, there is provided a thin film device. Moreover, such device may comprise a substrate, and a layer of silicon or silicon-containing material positioned on a first side of the substrate, wherein the layer comprises a n-doped region and a p-doped region. In some exemplary implementations, the device may be fabricated such that the n-doped region and the p-doped region are formed on the backside surface of the layer to create an electrical structure characterized by a P-type anode and an N-type cathode forming a junction positioned along the backside surface of the layer.

Abstract: The threshold voltages of particular nonvolatile memory cells on a word line are selectively increased on a column by column (cell by cell) basis. A selective program is performed on some of the cells, and simultaneously a program inhibit on other of the cells, resulting in all of the cells having a threshold voltage that falls between a minimum acceptable value and a maximum acceptable value.

Abstract: The present innovations relate to optical/electronic structures, and, more particularly, to methods and products consistent with composite structures for optical/electronic applications, such as solar cells and displays, composed of a silicon-containing material bonded to a substrate and including laser treatment.

Abstract: The threshold voltages of particular nonvolatile memory cells on a word line are selectively increased on a column by column (cell by cell) basis. A selective program is performed on some of the cells, and simultaneously a program inhibit on other of the cells, resulting in all of the cells having a threshold voltage that falls between a minimum acceptable value and a maximum acceptable value.

Abstract: Systems, methods, and products of processes consistent with the innovations herein relate to aspects involving crystallization of layers on substrates. In one exemplary implementation, there is provided a method of fabricating a device. Moreover, such method may include placing an amorphous/poly material on a substrate and heating the material via a sub-melt laser anneal process to transform the material into crystalline form.

Abstract: Systems, methods, devices, and products of processes consistent with the innovations herein relate to thin-film solar cells and other devices. In one exemplary implementation, there is provided a thin film device.

Abstract: Systems, methods and products by process are disclosed relating to structures and/or fabrication thereof as relating, for example, to optical/electronic applications such as solar cells and displays. In one exemplary implementation, there is provided a method of producing a composite structure. Moreover, the method may include engaging a silicon-containing material into contact with a surface of the substrate and irradiating/treating the silicon-containing piece with a laser.

Abstract: The present innovations relate to optical/electronic structures, and, more particularly, to methods and products consistent with composite structures for optical/electronic applications, such as solar cells and displays, composed of a silicon-containing material bonded to a substrate and including laser treatment.

Abstract: Methods, circuits, processes, devices, and/or arrangements for a non-volatile memory (NVM) cell operable at relatively low voltages are disclosed. In one embodiment, an NVM cell can include: (i) a gate over a charge trapping layer, the charge trapping layer being insulated from the gate by a first insulating layer, the charge trapping layer being insulated from a channel by a second insulating layer; and (ii) source and drain on either side of the channel, the channel being under the second insulating layer, where the NVM cell is configured to be erased by channel-induced hot holes (CHH).

Abstract: A non-volatile memory device and method for manufacture and programing which does not require a control gate for the programing or erasure of the device. The memory device is comprised of two wells with the opposite conductivity type of the semiconductor body. In one of the wells is a source and drain well of the same conductivity type as of the body. A oxide is formed on the surface of the body on which a floating gate is formed. Specific voltages are applied to the source, drain, first well and second well region to program, erase and read the memory device.

Abstract: Systems, methods, and products of processes consistent with the innovations herein relate to aspects involving crystallization of layers on substrates. In one exemplary implementation, there is provided a method of fabricating a device. Moreover, such method may include placing an amorphous/poly material on a substrate and heating the material via a sub-melt laser anneal process to transform the material into crystalline form.

Abstract: Systems, methods, devices, and products of processes consistent with the innovations herein relate to thin-film solar cells having contacts on the backside, only. In one exemplary implementation, there is provided a thin film device. Moreover, such device may comprise a substrate, and a layer of silicon or silicon-containing material positioned on a first side of the substrate, wherein the layer comprises a n-doped region and a p-doped region. In some exemplary implementations, the device may be fabricated such that the n-doped region and the p-doped region are formed on the backside surface of the layer to create an electrical structure characterized by a P-type anode and an N-type cathode forming a junction positioned along the backside surface of the layer.

Abstract: Systems, methods, and products of processes consistent with the innovations herein relate to aspects involving crystallization of layers on substrates. In one exemplary implementation, there is provided a method of fabricating a device. Moreover, such method may include placing a seed layer on a base substrate, covering the seed layer with an amorphous/poly material, and heating the seed layer/material to transform the material into crystalline form.

Abstract: Methods, circuits, processes, devices, and/or arrangements for providing a non-volatile memory (NVM) cell are disclosed. In one embodiment, an NVM cell can include: (i) a floating gate in a gate layer, where the floating gate is over an insulating layer, and the insulating layer is over a first channel between first and second diffusion regions; and (ii) a control gate in the gate layer, where the control gate is configured to control the floating gate using direct sidewall capacitive coupling, and where a first coupling ratio from the direct sidewall capacitive coupling is greater than a second coupling ratio from the second diffusion region.

Abstract: A memory device including a plurality of memory cells, each with a control gate NMOS transistor sharing a floating gate with a program/erase PMOS transistor which is, in turn, connected in series with an access PMOS transistor. The memory cells are formed in a common N-Well formed in a P-substrate, the NMOS transistor being formed in a p-doped pocket or base. The program/erase PMOS includes a gate, and first and second P+ doped regions formed in the N-Well, wherein the first P+ region is electrically connected to a corresponding bit line. The access PMOS includes a gate, and first and second P+ regions formed within the N-Well, wherein the first P+ region is electrically connected to the second P+ region of the program/erase PMOS, and the gate is electrically connected to a corresponding word line.

Abstract: A memory device including a plurality of memory cells, each with a control gate NMOS transistor sharing a floating gate with a program/erase PMOS transistor which is, in turn, connected in series with an access PMOS transistor. The memory cells are formed in a common N-Well formed in a P-substrate, the NMOS transistor being formed in a p-doped pocket or base. The program/erase PMOS includes a gate, and first and second P+ doped regions formed in the N-Well, wherein the first P+ region is electrically connected to a corresponding bit line. The access PMOS includes a gate, and first and second P+ regions formed within the N-Well, wherein the first P+ region is electrically connected to the second P+ region of the program/erase PMOS, and the gate is electrically connected to a corresponding word line.

Abstract: Methods, circuits, devices, and/or arrangements for providing a non-volatile latch are disclosed. In one embodiment, a non-volatile latch can include: (i) a first non-volatile memory (NVM) cell coupled to a first supply, a first gate (e.g., a control gate), and an output node, where the first NVM cell is configured to be in a first state; and (ii) a second NVM cell coupled to a second supply, a second gate (e.g., another control gate), and the output node, where the second NVM cell is configured to be in a second state.

Abstract: A memory device including a plurality of memory cells, each with a control gate NMOS transistor sharing a floating gate with a program/erase PMOS transistor which is, in turn, connected in series with an access PMOS transistor. The memory cells are formed in a common N-Well formed in a P-substrate, the NMOS transistor being formed in a p-doped pocket or base. The program/erase PMOS includes a gate, and first and second P+ doped regions formed in the N-Well, wherein the first P+ region is electrically connected to a corresponding bit line. The access PMOS includes a gate, and first and second P+ regions formed within the N-Well, wherein the first P+ region is electrically connected to the second P+ region of the program/erase PMOS, and the gate is electrically connected to a corresponding word line.

Abstract: Methods and apparatus, including computer program products, for a one or multiple-times programmable memory device. A semiconductor may include an active region of a substrate, a thin oxide layer over a substrate, a first and second polysilicon layer, and a first and second metal layer. The first polysilicon layer may have a floating gate, the active region may be substantially perpendicular to the floating gate, and the second polysilicon layer may include a control gate. The first metal layer may include a bit line connected to a first n-diffused region, where the bit line is substantially perpendicular to the floating gate. The second metal layer may include a word line and source line. The word line may be connected to the control gate, and the source line may be connected to a second n-diffused region. The thin gate oxide may have a thickness between 65 and 75 angstroms.

Abstract: A memory device including a plurality of memory cells, each with a control gate NMOS transistor sharing a floating gate with a program/erase PMOS transistor which is, in turn, connected in series with an access PMOS transistor. The memory cells are formed in a common N-Well formed in a P-substrate, the NMOS transistor being formed in a p-doped pocket or base. The program/erase PMOS includes a gate, and first and second P+ doped regions formed in the N-Well, wherein the first P+ region is electrically connected to a corresponding bit line. The access PMOS includes a gate, and first and second P+ regions formed within the N-Well, wherein the first P+ region is electrically connected to the second P+ region of the program/erase PMOS, and the gate is electrically connected to a corresponding word line.