Abstract: Systems and techniques include identifying a network layer for performing a memory operation, identifying a subset of a plurality of configuration bit clusters of a non-volatile distributed memory that are mapped to the identified network layer using a cluster mapping, in response to identifying the subset of the plurality of configuration bit clusters, activating the subset of the plurality of configuration bit clusters, loading network component data from the subset of the plurality of configuration bit clusters into a local buffer, and applying the network component data to the network layer for performing the memory operation.

Abstract: A resistive non-volatile memory (NVMN) cell has three select transistors connected together in series. A first resistive element has a first terminal connected between first and second select transistors and a second terminal. A second resistive element has a first terminal connected between second and third transistors. In a first embodiment, the second terminals of the first and second resistive elements are connected to bit lines. In a second embodiment, the second terminals of the first and second resistive elements are connected to source lines. In the first embodiment, when the center select transistor is conductive, the first and second resistive elements become a resistor-divider. Each of the first and second resistive elements include a magnetic tunnel junction (MTJ).

Abstract: Embodiments relate to a two-transistor (2T) floating-body cell (FBC) for embedded-DRAM applications. Further embodiments pertain to a floating-body/gate cell (FBGC), which yields reduction in power dissipation, in addition to better signal margin, longer data retention, and higher memory density.

Abstract: An edgeless one-transistor flash memory array includes transistors that have two polysilicon gate layers that overlay an active region. The bottom polysilicon gate layer is electrically isolated. The memory is configured such that current passes from drain to source under the bottom polysilicon layer, such that it does not approach a field oxide region. An edgeless two-transistor programmable memory includes memory cells that have two active devices. Two polysilicon gate layers overlay two active regions and are shared between the two active devices. One of the devices is used to program and erase the cell while the other used as a programmable switch in a programmable logic device. The bottom polysilicon gate layer is electrically isolated. The memory is configured such that current passes from drain to source under the bottom polysilicon layer, such that it does not approach a field oxide region.

Abstract: A flash memory cell includes a p-channel flash transistor having a source, a drain, a floating gate, and a control gate, an n-channel flash transistor having a source, a drain coupled to the drain of the p-channel flash transistor, a floating gate, and a control gate, a switch transistor having a gate coupled to the drains of the p-channel flash transistor and the n-channel flash transistor, a source, and a drain, and an n-channel assist transistor having a drain coupled to the drains of the p-channel flash transistor and the n-channel flash transistor, a source coupled to a fixed potential, and a gate.

Abstract: Embodiments relate to a two-transistor (2T) floating-body cell (FBC) for embedded-DRAM applications. Further embodiments pertain to a floating-body/gate cell (FBGC), which yields reduction in power dissipation, in addition to better signal margin, longer data retention, and higher memory density.

Abstract: A flash memory cell includes a p-channel flash transistor having a source, a drain, a floating gate, and a control gate, an n-channel flash transistor having a source, a drain coupled to the drain of the p-channel flash transistor, a floating gate, and a control gate, a switch transistor having a gate coupled to the drains of the p-channel flash transistor and the n-channel flash transistor, a source, and a drain, and an n-channel assist transistor having a drain coupled to the drains of the p-channel flash transistor and the n-channel flash transistor, a source coupled to a fixed potential, and a gate.

Abstract: A flash memory cell includes a p-channel flash transistor having a source, a drain, a floating gate, and a control gate, an n-channel flash transistor having a source, a drain coupled to the drain of the p-channel flash transistor, a floating gate, and a control gate, a switch transistor having a gate coupled to the drains of the p-channel flash transistor and the n-channel flash transistor, a source, and a drain, and an n-channel assist transistor having a drain coupled to the drains of the p-channel flash transistor and the n-channel flash transistor, a source coupled to a fixed potential, and a gate.

Abstract: A split-gate memory cell, includes an n-channel split-gate non-volatile memory transistor having a source, a drain, a select gate over a thin oxide, and a control gate over a non-volatile gate material and separated from the select gate by a gap. A p-channel pull-up transistor has a drain coupled to the drain of the split-gate non-volatile memory transistor, a source coupled to a bit line, and a gate. A switch transistor has first and second source/drain diffusions, and a gate coupled to the drains of the split-gate non-volatile memory transistor and the p-channel pull-up transistor. An inverter has an input coupled to the second source/drain diffusion of the switch transistor, and an output. A p-channel level-restoring transistor has a source coupled to a supply potential, a drain coupled to the first source/drain diffusion of the switch transistor and a gate coupled to the output of the inverter.

Abstract: An edgeless one-transistor flash memory array includes transistors that have two polysilicon gate layers that overlay an active region. The bottom polysilicon gate layer is electrically isolated. The memory is configured such that current passes from drain to source under the bottom polysilicon layer, such that it does not approach a field oxide region. An edgeless two-transistor programmable memory includes memory cells that have two active devices. Two polysilicon gate layers overlay two active regions and are shared between the two active devices. One of the devices is used to program and erase the cell while the other used as a programmable switch in a programmable logic device. The bottom polysilicon gate layer is electrically isolated. The memory is configured such that current passes from drain to source under the bottom polysilicon layer, such that it does not approach a field oxide region.

Abstract: A method for making a semiconductor device comprises providing a first wafer and providing a second wafer having a first side and a second side, the second wafer including a semiconductor structure, a first storage layer, and a layer of gate material, wherein the first storage layer is located between the semiconductor structure and the layer of gate material and closer to the first side of the second wafer than the semiconductor structure. The method further includes bonding the first side of the second wafer to the first wafer and cleaving away a first portion of the semiconductor structure to leave a layer of the semiconductor structure after the bonding. The method further includes forming a second storage layer over the layer of the semiconductor structure and forming a top gate over the second storage layer.

Abstract: A method of making a semiconductor device includes providing a first wafer and providing a second wafer having a first side and a second side, the second wafer including a semiconductor substrate, a storage layer, and a layer of gate material. The storage layer may be located between the semiconductor structure and the layer of the gate material and the storage layer may be located closer to the first side of the second wafer than the semiconductor structure. The method further includes boding the first side of the second wafer to the first wafer. The method further includes removing a first portion of the semiconductor structure to leave a layer of the semiconductor structure after the bonding. The method further includes forming a transistor having a channel region, wherein at least a portion of the channel region is formed from the layer of the semiconductor structure.

Abstract: A method is provided which includes forming a first gate overlying a major surface of an electronic device substrate and forming a second gate overlying and spaced apart from the first gate. The method further includes forming a charge storage structure horizontally adjacent to, and continuous along, the first gate and the second gate, wherein a major surface of the charge storage structure is substantially vertical to the major surface of the substrate.

Abstract: A voltage controlled oscillator (VCO) has a plurality of series-connected inverters. Within each inverter a first transistor has a first current electrode coupled to a first power supply voltage terminal, a second current electrode, a first control electrode coupled to an output terminal of another inverter of the plurality of series-connected inverters, and a second control electrode for receiving a first bias signal. A second transistor has a first current electrode coupled to the second current electrode of the first transistor, a second current electrode coupled to a second power supply voltage terminal, and a first control electrode coupled to the first control electrode of the first transistor. The second control electrode of the first transistor of each inverter receives a same or separate analog control signal to adjust the threshold voltage of the first transistors thereof to affect frequency and phase of the VCO's signal.

Abstract: A split gate memory cell has a select gate, a control gate, and a charge storage structure. The select gate includes a first portion located over the control gate and a second portion not located over the control gate. In one example, the first portion of the select gate has a sidewall aligned with a sidewall of the control gate and aligned with a sidewall of the charge storage structure. In one example, the control gate has a p-type conductivity. In one example, the gate can be programmed by a hot carrier injection operation and can be erased by a tunneling operation.

Abstract: forming a first gate electrode within the trench after forming the discontinuous storage elements. At least one discontinuous storage element lies along the wall of the trench at an elevation between an upper surface of the first gate electrode and a primary surface of the substrate. The process can also include forming a second gate electrode overlying the first gate electrode and the primary surface of the substrate.

Abstract: An electronic device can include discontinuous storage elements that lie within a trench. In one embodiment, the electronic device can include a substrate having a trench that includes a wall and a bottom. The electronic device can also include a portion of discontinuous storage elements that lie within the trench. The electronic device can also include a first gate electrode, wherein at least one discontinuous storage element lies along the wall of the trench at an elevation between and upper surface of the first gate electrode and a primary surface of the substrate. The electronic device can also include a second gate electrode overlying the first gate electrode and the primary surface of the substrate. In another embodiment, a conductive line can be electrically connected to one or more rows or columns of memory cells, and another conductive line can be more rows or more columns of memory cells.

Abstract: In one embodiment, a method for discharging a semiconductor device includes providing a semiconductor substrate, forming a hole blocking dielectric layer over the semiconductor substrate, forming nanoclusters over the hole blocking dielectric layer, forming a charge trapping layer over the nanoclusters, and applying an electric field to the nanoclusters to discharge the semiconductor device. Applying the electric field may occur while applying ultraviolet (UV) light. In one embodiment, the hole blocking dielectric layer comprises forming the hole blocking dielectric layer having a thickness greater than approximately 50 Angstroms.

Abstract: A multi-bit non-volatile memory device includes a charge storage layer (14) sandwiched between two insulating layers (12 and 16) formed on a semiconductor substrate (10). A thick oxide layer (18) is formed over the charge storage layer (14) and a minimum feature sized hole is etched in the thick oxide layer (18). An opening is formed in the thick oxide layer (18). Side-wall spacers (60) formed on the inside wall of the hole over the charge storage layer have a void (62) between them that is less than the minimum feature size. The side-wall spacers (60) function to mask portions of the charge storage layer (14), when the charge storage layer is etched away, to form the two separate charge storage regions (55 and 57) under the side-wall spacers (60). The device can be manufactured using only one mask step. Separating the charge storage regions prevents lateral conduction of charge in the nitride.

Abstract: A multi-bit non-volatile memory device includes a charge storage layer (14) sandwiched between two insulating layers (12 and 16) formed on a semiconductor substrate (10). A thick oxide layer (18) is formed over the charge storage layer (14) and a minimum feature sized hole is etched in the thick oxide layer (18). An opening is formed in the thick oxide layer (18). Side-wall spacers (60) formed on the inside wall of the hole over the charge storage layer have a void (62) between them that is less than the minimum feature size. The side-wall spacers (60) function to mask portions of the charge storage layer (14), when the charge storage layer is etched away, to form the two separate charge storage regions (55 and 57) under the side-wall spacers (60). The device can be manufactured using only one mask step. Separating the charge storage regions prevents lateral conduction of charge in the nitride.