Abstract:
A multistate register, comprising: a flip-flop that comprises a first latch, a second latch and an intermediate gate coupled between the first and second latches; multiple memristive devices; and an interface coupled between the multiple memristive devices and the flip-flop; wherein the multistate register is arranged to operate in a memristive device write mode, in a memristive device read mode and in a flip-flop mode; wherein when operating in the memristive device read mode, the interface is arranged to write to a first selected memristive device of the multiple memristive devices a first logic value stored in the first latch; wherein when operating in the memristive device write mode, the interface is arranged to write to the second latch a second logic value stored in a second selected memristive device of the multiple memristive devices; and wherein when operating on a flip-flop mode logic the interface is prevented from transferring values between the flip flop and the memristive devices.
Abstract:
A device, comprising: an array of cells, wherein the cells are arranged in columns and rows; wherein each cell comprises a memristive device; an interfacing circuit that is coupled to each cell of the array of cells; wherein the interfacing circuit is arranged to: receive or generate first variables and second variables; generate memristive device input signals that once provided to memristive devices of the array will cause a change in a state variable of each of the memristive devices of the cells of the array, wherein the change in the state variable of each of the memristive devices of the cells of array reflects a product of one of the first variables and one of the second variables; provide the memristive device input signals to memristive devices of the array; and receive output signals that are a function of at least products of the first variables and the second variables.
Abstract:
A device that includes a memristive Akers logic array, wherein the memristive Akers logic array comprises multiple primitive logic cells that are coupled to each other; wherein each primitive logic cell comprises at least one memristive device.
Abstract:
A method and a device that includes a set of multiple pipeline stages, wherein the set of multiple pipeline stages is arranged to execute a first thread of instructions; multiple memristor based registers that are arranged to store a state of another thread of instructions that differs from the first thread of instructions; and a control circuit that is arranged to control a thread switch between the first thread of instructions and the other thread of instructions by controlling a storage of a state of the first thread of instructions at the multiple memristor based registers and by controlling a provision of the state of the other thread of instructions by the set of multiple pipeline stages; wherein the set of multiple pipeline stages is arranged to execute the other thread of instructions upon a reception of the state of the other thread of instructions.
Abstract:
A device that includes a memristive Akers logic array, wherein the memristive Akers logic array comprises multiple primitive logic cells that are coupled to each other; wherein each primitive logic cell comprises at least one memristive device.
Abstract:
A multistate register, comprising: a flip-flop that comprises a first latch, a second latch and an intermediate gate coupled between the first and second latches; multiple memristive devices; and an interface coupled between the multiple memristive devices and the flip-flop; wherein the multistate register is arranged to operate in a memristive device write mode, in a memristive device read mode and in a flip-flop mode; wherein when operating in the memristive device read mode, the interface is arranged to write to a first selected memristive device of the multiple memristive devices a first logic value stored in the first latch; wherein when operating in the memristive device write mode, the interface is arranged to write to the second latch a second logic value stored in a second selected memristive device of the multiple memristive devices; and wherein when operating on a flip-flop mode logic the interface is prevented from transferring values between the flip flop and the memristive devices.
Abstract:
A method and a device that includes a set of multiple pipeline stages, wherein the set of multiple pipeline stages is arranged to execute a first thread of instructions; multiple memristor based registers that are arranged to store a state of another thread of instructions that differs from the first thread of instructions; and a control circuit that is arranged to control a thread switch between the first thread of instructions and the other thread of instructions by controlling a storage of a state of the first thread of instructions at the multiple memristor based registers and by controlling a provision of the state of the other thread of instructions by the set of multiple pipeline stages; wherein the set of multiple pipeline stages is arranged to execute the other thread of instructions upon a reception of the state of the other thread of instructions.
Abstract:
A device, comprising: an array of cells, wherein the cells are arranged in columns and rows; wherein each cell comprises a memristive device; an interfacing circuit that is coupled to each cell of the array of cells; wherein the interfacing circuit is arranged to: receive or generate first variables and second variables; generate memristive device input signals that once provided to memristive devices of the array will cause a change in a state variable of each of the memristive devices of the cells of the array, wherein the change in the state variable of each of the memristive devices of the cells of array reflects a product of one of the first variables and one of the second variables; provide the memristive device input signals to memristive devices of the array; and receive output signals that are a function of at least products of the first variables and the second variables;