Abstract: Apparatus and methods are provided for concurrently selecting multiple arrays of memory cells when accessing a memory element. A memory element includes a first array of one or more memory cells coupled to a first bit line node, a second array of one or more memory cells coupled to a second bit line node, access circuitry for accessing a first memory cell in the first array, a first transistor coupled between the first bit line node and the access circuitry, and a second transistor coupled between the second bit line node and the access circuitry. A controller is coupled to the first transistor and the second transistor, and the controller is configured to concurrently activate the first transistor and the second transistor to access the first memory cell in the first array.

Abstract: Embodiments are described for a method for regulating sleep mode of a plurality of sub-banks in an SRAM array by isolating all of the sub-banks from a regulator upon access to at least one sub-bank that causes the accessed sub-bank to go to an operating voltage, and isolating the accessed sub-bank from non accessed sub-banks, while maintaining a sleep voltage on a load memory array and each of the sub-banks through the regulator; comparing a voltage on the non accessed sub-banks to a voltage output of the regulator; and providing a sleep voltage level to all of the sub-banks through the regulator when the voltage on the non accessed sub-banks is less than the sleep voltage.

Abstract: A memory device is provided that includes a memory cell, a voltage input, a plurality of bit lines, an amplifier connected to only a particular one of the bit lines, and a switch that is coupled to the amplifier and the voltage input. The switch is configured to prevent the voltage input from being electrically coupled to the amplifier when the plurality of bit lines are electrically floating.

Abstract: Apparatus are provided for memory elements and related computing modules. An exemplary memory element includes a first array of one or more memory cells, a second array of one or more memory cells, write selection circuitry associated with the first array, and read selection circuitry associated with the second array. The write selection circuitry and the read selection circuitry are configured to be activated concurrently.

Abstract: A memory device is provided that includes a memory cell, a voltage input, a plurality of bit lines, an amplifier connected to only a particular one of the bit lines, and a switch that is coupled to the amplifier and the voltage input. The switch is configured to prevent the voltage input from being electrically coupled to the amplifier when the plurality of bit lines are electrically floating.

Abstract: Apparatus are provided for memory elements and related computing modules. An exemplary memory element includes a first array of one or more memory cells, a second array of one or more memory cells, write selection circuitry associated with the first array, and read selection circuitry associated with the second array. The write selection circuitry and the read selection circuitry are configured to be activated concurrently.

Abstract: Apparatus and methods are provided for concurrently selecting multiple arrays of memory cells when accessing a memory element. A memory element includes a first array of one or more memory cells coupled to a first bit line node, a second array of one or more memory cells coupled to a second bit line node, access circuitry for accessing a first memory cell in the first array, a first transistor coupled between the first bit line node and the access circuitry, and a second transistor coupled between the second bit line node and the access circuitry. A controller is coupled to the first transistor and the second transistor, and the controller is configured to concurrently activate the first transistor and the second transistor to access the first memory cell in the first array.

Abstract: A memory device includes a memory array and a sense amplifier. The memory array includes a floating body cell configured to store a bit value. The sense amplifier includes a bit output configured to provide an output voltage representative of the bit value and a reference source configured to provide a reference voltage. The sense amplifier further includes a current mirror configured to provide a current to the first floating body cell based on the reference voltage, and a differential amplifier circuit configured to determine the output voltage based on the reference voltage and a voltage across the floating body cell resulting from application of the current to the floating body cell.

Abstract: A memory device includes a memory array and a sense amplifier. The memory array includes a floating body cell configured to store a bit value. The sense amplifier includes a bit output configured to provide an output voltage representative of the bit value and a reference source configured to provide a reference voltage. The sense amplifier further includes a current mirror configured to provide a current to the first floating body cell based on the reference voltage, and a differential amplifier circuit configured to determine the output voltage based on the reference voltage and a voltage across the floating body cell resulting from application of the current to the floating body cell.