Abstract: A low power sequential circuit (e.g., latch) uses a non-linear polar capacitor to retain charge with fewer transistors than traditional CMOS sequential circuits. In one example, a sequential circuit includes pass-gates and inverters, but without a feedback mechanism or memory element. In another example, a sequential uses load capacitors (e.g., capacitors coupled to a storage node and a reference supply). The load capacitors are implemented using ferroelectric material, paraelectric material, or linear dielectric. In one example, a sequential uses minority, majority, or threshold gates with ferroelectric or paraelectric capacitors. In one example, a sequential circuit uses minority, majority, or threshold gates configured as NAND gates.

Abstract: A reconfigurable, for example with time, network switch matrix coupling switch charge circuits representing multiply and add circuits (MACs) and neurons (MACs with activations) capable of accepting and outputting proportional to charge pulses through crossbars within said network, said crossbars controlled by local controllers and higher level controllers to setup said crossbar communications.

Abstract: Systems and methods of use and fabrication are described for a THx2 threshold gate cell for a programmable gate array including a mode-independent PMOS configuration and an NMOS configuration configured to operate in one of a TH12 mode and a TH22 mode, wherein x is set to a threshold of 1 for the TH12 mode and x is set to a threshold of 2 for the TH22 mode.

Abstract: Systems and methods for fault-tolerant threshold circuits used in converting an analog input to a single-bit digital output employ N-modular redundancy of either inverting or non-inverting threshold circuits whose inputs are connected to a single input, and apply majority voting of their outputs to provide correction of transient or permanent faults in up to floor[(N?1)/2] of the individual threshold circuits. Using summation to perform analog majority voting averages the N threshold circuit outputs and provides resilience to single-event transients, but may exhibit an output characteristic having intermediate voltage levels. A digital majority voter having N inputs connected to the outputs of N threshold circuits restores well-defined logic levels and clean hysteresis for Schmitt trigger threshold circuits. A single point of failure at the digital majority voter may be eliminated using an analog majority voter to sum the outputs of three or more redundant digital majority voters.

Abstract: An off chip driver circuit includes a pull-up circuit and a pull-down circuit. The pull-up circuit includes several first transistors and a first resistance circuit coupled between the first transistors and a input/output pad. The first transistors generate a first voltage to the first resistance circuit. The first resistance circuit transmits, in response to a first control signal, the first voltage to the input/output pad and to have a variable resistance according to the first control signal. The pull-down circuit includes several second transistors and a second resistance circuit coupled between the second transistors and the input/output pad. The second transistors generate a second voltage to the second resistance circuit. The second resistance circuit transmits, in response to a second control signal, the second voltage to the input/output pad and to have a variable resistance according to the second control signal.

Abstract: The redundancy control device includes three controllers that output status signals, a majority voting circuit to which a first voltage or a second voltage is supplied as an output signal through an output line of each controller, a switch provided in each output line, a voltage supply unit provided for each output line to supply the second voltage to the output line when the first voltage is lost, a latch circuit provided for each output line to latch the second voltage when the second voltage is supplied thereto and continue to output the second voltage, a comparison circuit provided for each controller to output a comparison signal based on a comparison of the status signals, and a switch control unit provided for each switch to outputs a switch signal to the switch in response to the comparison signal from the comparison circuit.

Abstract: A neuristor-based reservoir computing device includes support circuitry formed in a complimentary metal oxide semiconductor (CMOS) layer, input nodes connected to the support circuitry and output nodes connected to the support circuitry. Thin film neuristor nodes are disposed over the CMOS layer with a first portion of the neuristor nodes connected to the input nodes and a second portion of the neuristor nodes connected to the output nodes. Interconnections between the neuristor nodes form a reservoir accepting input signals from the input nodes and outputting signals on the output nodes. A method for forming a neuristor-based reservoir computing device is also provided.

Abstract: A neural logic unit network acting as an agent to achieve machine or device consciousness and intent is disclosed. More specifically, an agent of consciousness and intent (The Agent) is disclosed consisting of neuronal logic units upon which are mapped and connected to the individual outputs of the host system's entire sensorium and which neuronal logic units are activated by the simultaneous presentation of the results of the host system's recognition, tracking, analyses and characterization computations similar to those performed by biological unconscious brains. The embodiment of the assembly of neural logic units is referred to as Hyper Aware Logic.

Abstract: A compressor circuit includes a plurality of inputs, a sum output, and a plurality of XOR circuits. Each XOR circuit of the plurality of XOR circuits includes first, second and third inputs, and a first output. The XOR circuit is configured to generate a logic value A?B?C at the first output, where A, B and C are logic values at the corresponding first, second and third inputs, and “?” is the XOR logic operation. The plurality of XOR circuits includes first and second XOR circuits. The first, second and third inputs of the first XOR circuit are coupled to corresponding inputs among the plurality of inputs of the compressor circuit. The first output of the first XOR circuit is coupled to the first input of the second XOR circuit. The first output of the second XOR circuit is coupled to the sum output.

Abstract: A threshold logic element (TLE) is disclosed. The TLE includes a first input gate network, a second input gate network, and a differential sense amplifier. The first input gate network is configured to receive a first set of logical signals and the second input gate network configured to receive a second set of logical signals. The differential sense amplifier is operably associated with the first input gate network and the second input gate network such that the differential sense amplifier is configured to generate a differential logical output in accordance with a threshold logic function. To obfuscate the TLE, any number of obfuscated transmission gates can be provided in one or both of the input gate networks. The obfuscated transmission gates are obfuscated such that obfuscated transmission gates are incapable of effecting the threshold logic function of the TLE and thus hide the functionality of the TLE.

Abstract: Embodiments of an sequential state element (SSE) capable of providing triple modular redundant (TMR) correction is disclosed. The SSE has a setup stage and a feedback stage. The setup stage is configured to generate an output bit signal having an output bit state while a clock signal is in the first clock state. The setup stage also generates a feedback input bit signal as feedback of the output bit state. However, the feedback stage is capable of providing TMR correction without this feedback signal. Instead, the feedback stage utilizes the second feedback input bit signal and a third feedback input bit signal from two other SSEs. Since TMR correction can be provided with just the second feedback input bit signal and the third feedback input bit signal, the power and area consumed by the SSE is reduced.

Abstract: An electronic neuronal circuit system to model the interaction between the postsynaptic terminal of a first synapse between two neurons and the postsynaptic terminal of a second synapse between two neurons includes comparators to model the presynaptic neurons of the synapses, plurality of three diodes connected to the comparators to model synapses, an AND gate and latch to model the formation of functional link between the postsynaptic terminals, and timer-controlled latches for controlling the life-span of the inter-postsynaptic functional link, durations of re-activation of inter-postsynaptic functional link and flow of activity through the output postsynaptic dendritic terminals.

Abstract: A multi-rail module having mutually exclusive outputs. The module includes first and second-rail logic circuits, first and second-rail driver circuits, and a PMOS transistor sourcing VDD to both the first and second driver circuits. The first-rail logic circuit is coupled to VDD and ground and has a first logic input and a first logic output. The second-rail logic circuit is coupled to VDD and ground and has a second logic input and a second logic output. The first-rail driver circuit is coupled to ground, receives the first logic output, and has a first-rail output Q1. The second-rail driver circuit is coupled to ground, receives the second logic output, and has a second-rail output Q0. The PMOS transistor has a gate driven by a SLEEP signal.

Abstract: Multi-threshold flash Null Convention Logic (NCL) includes one or more high threshold voltage transistors within a flash NCL gate to reduce power consumption due to current leakage by transistors of the NCL gate. High-threshold voltage transistors may be added and/or may be used in place of one or more lower voltage threshold transistors of the NCL gate. A high-Vt device is included in the pull-up path to reduce power when the flash NCL logic gate is in the null state.

Abstract: An electronic logic circuit uses areal capacitive coupling devices coupled together to process a set of data inputs. Each areal capacitive coupling device can be configured such that a floating gate potential of such device can be altered to at least a first state or a second state in response to receiving an input signal from the set of data inputs, which is coupled electrically to the floating gate. A majority function logic circuit (and other similar circuits) can be interconnected this way using far fewer gates than with a conventional CMOS implementation. Selective logic gates can also be enabled or disabled by configuring them effectively as memory devices.

Abstract: A self-ready flash null Convention Logic (NCL) gate includes a one-shot circuit to create the flash timing to reset the gate to a null state. The one-shot circuit may be any type of circuit to generate a pulse in response to a change of state of an input line. In one embodiment, the one-shot circuit may start the pulse in response to a change of a flash input line and end the pulse in response to the NCL output being reset to a null state.

Abstract: Spin torque magnetic integrated circuits and devices therefor are described. In an example, a spin torque magnetic device for a logic circuit includes a majority gate structure. An output is coupled to the majority gate structure. Three inputs are also coupled to the majority gate structure.

Abstract: Systems and methods for clock generation and distribution are disclosed. Embodiments include arrangements of synchronization signals implemented using a mesh circuit. The mesh circuit is comprised of a plurality of null convention logic (NCL) gates organized into rings. Each ring shares at least one NCL gate with an adjacent ring. The rings are configured in such a way that each ring in the mesh operates synchronously with the other rings in the mesh.

Abstract: An integrated circuit includes an array of memory cells and a digital flag generator circuit configured to generate a data inversion flag based on whether a number of logical zero bits contained in a data word to be transmitted from the memory cells is greater than a threshold number. The digital flag generator circuit includes a first digital stage including a first plurality of binary logic circuits. Each of the binary logic circuits is configured to receive a subset of the data word.

Abstract: Electronic circuit arrangement for processing binary input values x?X of a word width n (n>1), with a first, second and third combinatory circuit components configured to process the binary input values x to form first, second and third binary output values. The arrangement further includes a majority voter element configured to receive the binary output values and provide a majority signal based on the received binary output values. The second and third combinatory circuit components are designed, as regards faults during processing of the binary input values x in the first combinatory circuit component, to process binary input values of a true non-empty partial quantity X1 of the quantity of binary input values X in a fault-tolerant manner and process binary input values of a further non-empty partial quantity X2 of the quantity of binary input values X different from the true non-empty partial quantity X1 in a fault-intolerant manner.

Abstract: A detector circuit is disclosed that detects bus signal conditions. To detect a START condition, asynchronous sequential logic detects a first bus signal transition (e.g., from high to low) and a second bus signal (e.g., a high signal). The outputs of the asynchronous sequential logic are combined to produce a START signal that can be latched, so that the START signal can be used to wake up a system or for other purposes. To detect a STOP condition, asynchronous sequential logic is set by a transition (e.g., low to high) of the first bus signal and a second bus signal (e.g., a high signal), producing a STOP signal that can be used to reset the asynchronous sequential logic and the latch.

Abstract: A signal processing device includes a continuous film, a plurality of spin wave generators, and at least one signal detector. The continuous film includes at least one magnetic layer. The plurality of spin wave generators are provided on the continuous film in such a manner as to be in direct contact with the continuous film or be in contact with the continuous film while having an insulation layer interposed therebetween, and each has a contact surface with the continuous film in a dot shape and generates a spin wave in a region of the magnetic layer of the continuous film by receiving an input signal, the region being immediately under the contact surface. The signal detector is provided on the continuous film and detects, as an electrical signal, the spin waves generated by the spin wave generators and propagating through the continuous film.

Abstract: An intelligent control system based on an explicit model of cognitive development (Table 1) performs high-level functions. It comprises up to O hierarchically stacked neural networks, Nm, . . . , Nm+(O?1), where m denotes the stage/order tasks performed in the first neural network, Nm, and O denotes the highest stage/order tasks performed in the highest-level neural network. The type of processing actions performed in a network, Nm, corresponds to the complexity for stage/order m. Thus N1 performs tasks at the level corresponding to stage/order 1. N5 processes information at the level corresponding to stage/order 5. Stacked neural networks begin and end at any stage/order, but information must be processed by each stage in ascending order sequence. Stages/orders cannot be skipped. Each neural network in a stack may use different architectures, interconnections, algorithms, and training methods, depending on the stage/order of the neural network and the type of intelligent control system implemented.

Abstract: Data words from a parallel communication channel are interleaved to two majority vote blocks that operate out of phase, using a divided clock signal that has half the clock frequency of the clock signal associated with the parallel communication channel. As one majority vote block evaluates a data word and outputs a result, the other majority vote block is in pre-charge mode awaiting the next data for evaluation.

Abstract: An MIPI interface is connected to two sensor sources that each may be transferring both high and low speed information, typically video information in the high speed state. The clock signals are monitored and when one of the clock signals exceed a threshold, an analog switch between the MIPI interface and the sensors, may connect the other source to the MIPI interface.

Abstract: An analog majority voting circuit is formed of a cascade of two differential amplifiers and decouples heavily loaded nodes from a high voltage swing nodes, delivering high bandwidth while maintaining relatively high gain. A first stage's differential amplifier receives a first set of n input and a second set of n inputs and generates from these first and second intermediate outputs with a high capacitive load and low swing. These intermediate outputs are then the inputs for a second stage's differential amplifier, providing a low capacitive load, high swing output that can then be fed to an inverter for the final output of the voter.

Abstract: Data words from a parallel communication channel are interleaved to two majority vote blocks that operate out of phase, using a divided clock signal that has half the clock frequency of the clock signal associated with the parallel communication channel. As one majority vote block evaluates a data word and outputs a result, the other majority vote block is in pre-charge mode awaiting the next data for evaluation.

Abstract: A majority decision circuit includes: a majority decision unit configured to compare first data with second data to decide whether one of the first data and the second data has more bits with a first logical value; and an offset application unit configured to control the majority decision unit so that the majority decision unit decides, in a case when the number of bits with the first logical value among the first data is equal to the number of bits with the first logical value among the second data, that the first data have more bits with the first logical value if offset is a first setting value in a first phase and decides that the second data have more bits with the first logical value if the offset is a second setting value in a second phase.

Abstract: Specific logic gates for q-gating are selected by determining the minimum leakage state for a circuit design and then selecting logic gates that hold the circuit design in its lowest leakage state. Depending on the input desired to implement the minimum leakage state, the gate may be selected as a NOR or OR gate. Q-gating that is implemented with gates chosen to implement the minimum leakage state may be enabled during selected operating modes. The minimum leakage state of a circuit can be determined with an automatic test pattern generation (ATPG) tool.

Abstract: A majority decision circuit includes: a majority decision unit configured to compare first data with second data to decide whether one of the first data and the second data has more bits with a first logical value; and an offset application unit configured to control the majority decision unit so that the majority decision unit decides, in a case when the number of bits with the first logical value among the first data is equal to the number of bits with the first logical value among the second data, that the first data have more bits with the first logical value if offset is a first setting value in a first phase and decides that the second data have more bits with the first logical value if the offset is a second setting value in a second phase.

Abstract: A die includes a plurality of through-substrate vias (TSVs) penetrating a substrate of the die, wherein the plurality of TSVs are grouped as a plurality of TSV pairs. A plurality of contact pads is coupled to the plurality of TSVs, wherein the plurality of contact pads is exposed on a first surface of the die. The die further includes a plurality of balanced pulse comparison units, wherein each of the plurality of balanced pulse comparison units includes a first input and a second input coupled to a first TSV and a second TSV of one of the plurality of TSV pairs. The die further includes a plurality of pulse latches, each including an input coupled to an output of one of the plurality of balanced pulse comparison units.

Abstract: A system and method for detecting soft-failures in integrated circuits is provided. A circuit includes a combinatorial logic block having a first signal input and a second signal input, and a latch coupled to an output of the combinatorial logic block. The combinatorial logic block produces a pulse when only one of either a first signal provided by the first signal input or a second signal provided by the second signal input is a logical high value, and the latch captures the pulse if the pulse has a pulse width greater than a second threshold. The pulse has a pulse width that is based on a timing difference between a first signal transition on the first signal and a second signal transition on the second signal, the combinatorial logic block produces the pulse if the timing difference is greater than a first threshold, and the combinatorial logic block operates with balanced inputs.

Abstract: An input/output (I/O) cell including one or more driver-capable segments and one or more on-die termination (ODT) capable segments. The I/O cell may be configured as an output driver in a first mode and Thevenin equivalent termination in a second mode.

Abstract: Spin torque magnetic integrated circuits and devices therefor are described. In an example, a spin torque magnetic device for a logic circuit includes a majority gate structure. An output is coupled to the majority gate structure. Three inputs are also coupled to the majority gate structure.

Abstract: A novel implementation of a majority gate and a 2-1 MUX by using both gates of FinFET transistors as inputs is presented. A general methodology of using both gates of FinFET as inputs to implement any digital logic circuit is also presented. Circuits implemented using this methodology have significant advantages over CMOS logic counterpart and pass transistor logic counterpart in terms of power consumption and cell area.

Abstract: An MIPI interface is connected to two sensor sources that each may be transferring both high and low speed information, typically video information in the high speed state. The clock signals are monitored and when one of the clock signals exceed a threshold, an analog switch between the MIPI interface and the sensors, may connect the other source to the MIPI interface.

Abstract: An electronic logic circuit uses areal capacitive coupling devices coupled together to process a set of data inputs. Each areal capacitive coupling device can be configured such that a floating gate potential of such device can be altered to at least a first state or a second state in response to receiving an input signal from the set of data inputs, which is coupled electrically to the floating gate. A majority function logic circuit (and other similar circuits) can be interconnected this way using far fewer gates than with a conventional CMOS implementation. Selective logic gates can also be enabled or disabled by configuring them effectively as memory devices.

Abstract: Spin torque magnetic integrated circuits and devices therefor are described. In an example, a spin torque magnetic device for a logic circuit includes a majority gate structure. An output is coupled to the majority gate structure. Three inputs are also coupled to the majority gate structure.

Abstract: A system and method for detecting soft-failures in integrated circuits is provided. A circuit includes a combinatorial logic block having a first signal input and a second signal input, and a latch coupled to an output of the combinatorial logic block. The combinatorial logic block produces a pulse when only one of either a first signal provided by the first signal input or a second signal provided by the second signal input is a logical high value, and the latch captures the pulse if the pulse has a pulse width greater than a second threshold. The pulse has a pulse width that is based on a timing difference between a first signal transition on the first signal and a second signal transition on the second signal, the combinatorial logic block produces the pulse if the timing difference is greater than a first threshold, and the combinatorial logic block operates with balanced inputs.

Abstract: A device for performing a “logic function” consisting of a magnetic structure including at least a first magnetoresistive stack including a first ferromagnetic layer and a second ferromagnetic layer separated by a non-ferromagnetic interlayer and at least one first line of current situated in the vicinity of the first magnetoresistive stack and generating in the vicinity of the first stack a magnetic field when an electric current passes through it. The first line includes at least two current input points so that two currents can be added together in the first line, with the sum of the two currents being determined by the logic function.

Abstract: An input/output (I/O) cell including one or more driver-capable segments and one or more on-die termination (ODT) capable segments. The I/O cell may be configured as an output driver in a first mode and Thevenin equivalent termination in a second mode.

Abstract: A novel implementation of a majority gate and a 2-1 MUX by using both gates of FinFET transistors as inputs is presented. A general methodology of using both gates of FinFET as inputs to implement any digital logic circuit is also presented. Circuits implemented using this methodology have significant advantages over CMOS logic counterpart and pass transistor logic counterpart in terms of power consumption and cell area.

Abstract: A majority voter circuit is configured to generate a selecting signal based on first input data and inverted first input data. The first input data and the inverted first input data each include an odd-number of bits, and the odd-number of bits include bits of a first type and bits of a second type. The generated selecting signal is indicative of which of the first type and the second type of bits in the first input data are in the majority.

Abstract: A semiconductor storage device which includes a memory array including a plurality of memory cells for storing data by using a difference in a threshold voltage and at least one reference cell for storing data indicative of a state of a corresponding memory cell by using a difference in a threshold voltage, a control circuit for determining a read voltage based on data stored by a reference cell corresponding to a memory cell adjacent to a memory cell to be read, a read unit for executing reading from a memory cell to be read by using a determined read voltage, and a write unit for executing writing, when executing writing to a memory cell to be written to bring the memory cell into a written state, data indicating that the memory cell is in the written state to a reference cell corresponding to the memory cell.

Abstract: A majority voter circuit is configured to generate a selecting signal based on first input data and inverted first input data. The first input data and the inverted first input data each include an odd-number of bits, and the odd-number of bits include bits of a first type and bits of a second type. The generated selecting signal is indicative of which of the first type and the second type of bits in the first input data are in the majority.

Abstract: A semiconductor network is interposed between first and second multiple-port interfaces each having high-voltage, intermediate-voltage and ground ports to form a switch assembly. The assembly includes a primary switch circuit, a support network, internal and external-port circuits and internal and external-port control circuits. The primary switch circuit is coupled to high-voltage ports of the multiple-port interfaces and to the support network. The internal and external-port circuits are coupled to intermediate-voltage ports of the multiple-port interfaces, the internal and external-port control circuits and the support network. The internal-port control circuit is coupled to the internal-port circuit, the support network and a ground port of a first multiple-port interface. The external-port control circuit is coupled to the external-port circuit, the support network and a ground port of the second multiple-port interface.

Abstract: A power management circuit is provided for controlling power dissipation in at least one combinational logic circuit. The power management circuit includes a detector operative to receive at least a first input signal to the combinational logic circuit and to detect a transition of the first input signal between a first logic state and a second logic state. The detector generates a control signal indicative of whether or not a transition of the first input signal has occurred.

Abstract: A system and method for providing error recovery to an asynchronous logic circuit is presented. The asynchronous logic circuit with error recovery may use temporal redundancy to compare the results of an asynchronous computation and initiate error recovery if necessary. Outputs of the asynchronous logic circuit are compared using a plurality of asynchronous register voters. If an asynchronous register voter detects an inconsistent result, the asynchronous register voter clears itself. A majority of common data outputs from the plurality of asynchronous register voters is provided as an output that is representative of the output of the asynchronous logic circuit.

Abstract: A semiconductor network is interposed between first and second multiple-port interfaces each having high-voltage, intermediate-voltage and ground ports to form a switch assembly. The assembly includes a primary switch circuit, a support network, internal and external-port circuits and internal and external-port control circuits. The primary switch circuit is coupled to high-voltage ports of the multiple-port interfaces and to the support network. The internal and external-port circuits are coupled to intermediate-voltage ports of the multiple-port interfaces, the internal and external-port control circuits and the support network. The internal-port control circuit is coupled to the internal-port circuit, the support network and a ground port of a first multiple-port interface. The external-port control circuit is coupled to the external-port circuit, the support network and a ground port of the second multiple-port interface.

Abstract: Virtual power-gated cells (VPC) are configured with control circuitry for buffering control signals and a power-gated block (PGB) comprising two or more NFETs for virtual ground rail nodes and PFETs for virtual positive rail nodes. Each VPC has a control voltage input, a control voltage output, a node coupled to a power supply voltage potential, and a virtual power-gated node that is coupled and decoupled from the power supply potential in response to logic states on the control input. The control signals are buffered by non-power-gated inverters before being applied to the input of a PGB. VPCs may propagate a control signal that is in phase with or inverted from a corresponding control signal at the control input. VPCs may be cascaded to create virtual power rails in chains and power grids. The control signals are latched at the cell boundaries or latched in response to a clock signal.