Abstract: A technique to provide power management for multiple dice. The technique provides for determining for each respective die of the multiple dice, power consumption for operating each respective die; and generating a respective signal from each respective die that corresponds to the power consumption of each respective die. The technique further provides, for each respective signal, driving a respective open-drain transistor to conduct, in which an output of each open-drain transistor connects to the common node and the common node connects to a reference voltage, to change a voltage of a common node corresponding to the respective signal; and utilizing the voltage of the common node to indicate total power consumption of the dice.

Abstract: A memory device is provided. The memory device comprises a memory array and circuitry configured to determine one or more settings for the memory array corresponding to a powered-on state of the memory device, to store the one or more settings in a non-volatile memory location, and in response to returning to the powered-on state from a reduced-power state, to read the one or more settings from the non-volatile memory location.

Abstract: Methods, systems, and devices for dual address encoding for logical-to-physical mapping are described. A memory device may identify a first physical address corresponding to a first logical block address generated by a host device and a second physical address corresponding to a second (consecutive) logical block address generated by a host device. The memory device may store the first physical address and second physical address in a single entry of a logical-to-physical mapping table that corresponds to the first logical block address. The memory device may transmit the logical-to-physical table to the host device for storage at the host device. The host device may subsequently transmit a single read command to the memory device that includes the first physical address and the second physical address based on the logical-to-physical table.

Abstract: Memory devices, systems including memory devices, and methods of operating memory devices and systems are provided, in which at least a subset of a non-volatile memory array is configured to behave as a volatile memory by erasing or degrading data in the event of a changed power condition such as a power-loss event, a power-off event, or a power-on event. In one embodiment of the present technology, a memory device is provided, comprising a non-volatile memory array, and circuitry configured to store one or more addresses of the non-volatile memory array, to detect a changed power condition of the memory device, and to erase or degrade data at the one or more addresses in response to detecting the changed power condition.

Abstract: Provided herein are memory devices, systems including memory devices, and methods of operating memory devices in which multiple counters are provided to permit memory refresh commands greater freedom in targeting subsets of the memory device for data refresh operations. In one embodiment, a memory device is provided, comprising a plurality of memory banks, and circuitry configured to (i) store a plurality of values, each of the plurality of values corresponding to one of the plurality of memory banks; (ii) refresh first data stored in a first one of the plurality of memory banks; and (iii) update a first one of the plurality of values corresponding to the first one of the plurality of memory banks based at least in part on refreshing the first data.

Abstract: Exemplary methods, apparatuses, and systems include a first die in a power network receiving, from each of a plurality of dice in the power network, a first activity state value indicating that the respective die is in a high current state, a second activity state value indicating that the respective die is a moderate current state, or a third activity state value indicating that the respective die is a low current state. The received activity state values include at least one second or third activity state value. The first die determines, using the received activity state values, a first sum of the activity state values. The first die further selects an activity state based upon the first sum and sends, to the plurality of dice, an activity state value corresponding to the selected activity state.

Abstract: A method for performing a copyback procedure is described. The method includes determining to move first encoded data from a first location in a memory die to a second location. In response to determining to move the first encoded data from the first location to the second location, a starting seed, which is associated with the first location, is combined with a destination seed, which is associated with the second location, to produce a combined seed. Based on the combined seed, the method determines a pseudorandom sequence based on the combined seed and a pseudorandom sequence table, wherein the pseudorandom sequence table maps seed values to pseudorandom sequences and the determined pseudorandom sequence maps to the combined seed in the pseudorandom sequence table. The method further combines the first encoded data with the pseudorandom sequence to produce second encoded data for storage in the second location.

Abstract: A memory device is provided. The memory device comprises a memory array and circuitry configured to determine one or more settings for the memory array corresponding to a powered-on state of the memory device, to store the one or more settings in a non-volatile memory location, and in response to returning to the powered-on state from a reduced-power state, to read the one or more settings from the non-volatile memory location.

Abstract: Memory devices, systems including memory devices, and methods of operating memory devices and systems are provided, in which at least a subset of a non-volatile memory array is configured to behave as a volatile memory by erasing or degrading data in the event of a changed power condition such as a power-loss event, a power-off event, or a power-on event. In one embodiment of the present technology, a memory device is provided, comprising a non-volatile memory array, and circuitry configured to store one or more addresses of the non-volatile memory array, to detect a changed power condition of the memory device, and to erase or degrade data at the one or more addresses in response to detecting the changed power condition.

Abstract: Techniques for managing power usage in a memory subsystem are described. An operation type of each of a plurality of operations queued against one or more of a plurality of memory components is obtained. It is determined that at least two of the plurality of operations can be performed in parallel and that a first configuration of the plurality of memory components does not allow the at least two operations to be performed in parallel, the first configuration including a first set of power management cohorts. An interconnection of the plurality of memory components is reconfigured to change from the first configuration to a second configuration of the of the plurality of memory components, the second configuration including a second set of power management cohorts that allow the at least two operations to be performed in parallel.

Abstract: Methods, apparatuses, and systems related to scheduling internal operations are described. An apparatus detects a condition associated with repeated accesses to a memory address and/or region. In response to detection of the condition, the apparatus generates a scheduling output that secures a scheduled duration of inactivity for commanded operations. The apparatus initiates execution of one or more internal operations during the scheduled duration.

Abstract: Provided herein are memory devices, systems including memory devices, and methods of operating memory devices in which multiple counters are provided to permit memory refresh commands greater freedom in targeting subsets of the memory device for data refresh operations. In one embodiment, a memory device is provided, comprising a plurality of memory banks, and circuitry configured to (i) store a plurality of values, each of the plurality of values corresponding to one of the plurality of memory banks; (ii) refresh first data stored in a first one of the plurality of memory banks; and (iii) update a first one of the plurality of values corresponding to the first one of the plurality of memory banks based at least in part on refreshing the first data.

Abstract: A method for performing a copyback procedure is described. The method includes determining to move first encoded data from a first location in a memory die to a second location. In response to determining to move the first encoded data from the first location to the second location, a starting seed, which is associated with the first location, is combined with a destination seed, which is associated with the second location, to produce a combined seed. Based on the combined seed, the method determines a pseudorandom sequence based on the combined seed and a pseudorandom sequence table, wherein the pseudorandom sequence table maps seed values to pseudorandom sequences and the determined pseudorandom sequence maps to the combined seed in the pseudorandom sequence table. The method further combines the first encoded data with the pseudorandom sequence to produce second encoded data for storage in the second location.

Abstract: Memory devices, systems including memory devices, and methods of operating memory devices and systems are provided, in which at least a subset of a non-volatile memory array is configured to behave as read-only memory by not implementing erase or write commands. In one embodiment of the present technology, a memory device is provided, comprising a non-volatile memory array, and circuitry configured to store one or more addresses of the non-volatile memory array, to compare an address of a received command to the one or more addresses, and at least in part based on the comparison, determine not to implement the received command. The circuitry can be further configured to return an error message after determining not to implement the received command.

Abstract: Memory devices, system, and methods for operating the same are provided. The memory device can comprise a non-volatile memory array and control circuitry. The control circuitry can be configured to store a value corresponding to a number of activate commands received at the memory device, update the value in response to receiving an activate command received from a host device, and trigger, in response to the value exceeding a predetermined threshold, a remedial action performed by the memory device. The control circuitry can be further configured to store a second value corresponding to a number of refresh operations performed by the memory device, update the second value in response to performing a refresh operation, and trigger, in response to the value exceeding a second predetermined threshold, a second remedial action performed by the memory device.

Abstract: A technique to provide power management for multiple dice. The technique provides for determining for each respective die of the multiple dice, power consumption for operating each respective die; and generating a respective signal from each respective die that corresponds to the power consumption of each respective die. The technique further provides, for each respective signal, driving a respective open-drain transistor to conduct, in which an output of each open-drain transistor connects to the common node and the common node connects to a reference voltage, to change a voltage of a common node corresponding to the respective signal; and utilizing the voltage of the common node to indicate total power consumption of the dice.

Abstract: A technique to provide power management for multiple dice. The technique provides for determining for each respective die of the multiple dice, power consumption for operating each respective die; and generating a respective signal from each respective die that corresponds to the power consumption of each respective die. The technique further provides for converting each respective signal to a respective analog voltage to drive a common node; and utilizing a charge storage device coupled to the common node to accumulate the respective analog voltages from the dice, where the accumulated voltage indicates total power consumption of the dice.

Abstract: Exemplary methods, apparatuses, and systems include a first die in a power network receiving, from each of a plurality of dice in the power network, a first activity state value indicating that the respective die is in a high current state, a second activity state value indicating that the respective die is a moderate current state, or a third activity state value indicating that the respective die is a low current state. The received activity state values include at least one second or third activity state value. The first die determines, using the received activity state values, a first sum of the activity state values. The first die further selects an activity state based upon the first sum and sends, to the plurality of dice, an activity state value corresponding to the selected activity state.

Abstract: Exemplary methods, apparatuses, and systems include a first die in a power network receiving, from each of a plurality of dice in the power network, a first signal indicating that the respective die is in a high current state or a second signal indicating that the respective die is an active current state. The received signals include at least one second signal. The first die determines, based upon the received signals, the number of dice that are currently active and selects an activity threshold based upon that number. The first die further determines an activity level for the power network and transmits, to the plurality of dice, the first signal indicating that the first die is in the high current state in response to determining that the activity is less than the activity threshold.

Abstract: Memory devices, systems including memory devices, and methods of operating memory devices and systems are provided, in which at least a subset of a non-volatile memory array is configured to behave as read-only memory by not implementing erase or write commands. In one embodiment of the present technology, a memory device is provided, comprising a non-volatile memory array, and circuitry configured to store one or more addresses of the non-volatile memory array, to compare an address of a received command to the one or more addresses, and at least in part based on the comparison, determine not to implement the received command. The circuitry can be further configured to return an error message after determining not to implement the received command.