Abstract:
The present disclosure includes apparatuses and methods for providing power availability information to memory. A number of embodiments include a memory and a controller. The controller is configured to provide power and power availability information to the memory, and the memory is configured to determine whether to adjust its operation based, at least in part, on the power availability information.
Abstract:
A memory device includes a memory array having non-volatile memory cells, and a memory controller configured to detect a known state to enter based, at least in part, on communication with a host device, and reconfigure the memory device to prepare for the known state. A host controller is configured to communicate with the memory device to support a feature and protocol for detecting the known state for operation of the memory device. Related methods and systems are also disclosed.
Abstract:
Apparatuses and methods for performing memory operations are described. An example apparatus includes a memory operation controller. The memory operation controller is configured to receive memory instructions and decode the same to provide internal signals for performing memory operations for the memory instructions. The memory operation controller is further configured to provide information indicative of a time for a variable latency period of a memory instruction during the variable latency period. In an example method, a write instruction and an address to which write data is to be written is received at a memory and an acknowledgement indicative of an end of a variable latency period for the write instruction is provided. After waiting a variable bus turnaround after the acknowledgement, write data for the write instruction is received.
Abstract:
Apparatuses and methods for providing data from a buffer are disclosed herein. An example apparatus may include an array, a buffer, and a memory control unit. The buffer may be coupled to the array and configured to store data. The memory control unit may be coupled to the array and the buffer. The memory control unit may be configured to cause the buffer to store the data responsive, at least in part, to a first write command and may further be configured to cause the buffer to store the data in the array responsive, at least in part, to a flush command. The memory control unit may further be configured to interrupt the flush command to prepare for a read command or a second write command and resume the flush command once the read command or the second write command is performed.
Abstract:
A non volatile memory device includes a first buffer register configured to receive and store the data to be stored into the memory device provided via a memory bus. A command window is activatable for interposing itself for access to a memory matrix between the first buffer element and the memory matrix. The command window includes a second buffer element that stores data stored in or to be stored into a group of memory elements. A first data transfer means executes a first transfer of the data stored in the second buffer register into the first buffer register during a first phase of a data write operation started by the reception of a first command. A second data transfer means receives the data provided by the memory bus and modifies, based on the received data, the data stored in the first buffer register during a second phase of the data write operation started by the reception of a second command. The first transfer means execute a second transfer of the modified data stored in the first buffer register into the second buffer register during a third phase of the data write operation. The second transfer is executed in response to the reception of a signal received by the memory bus together with the second command.
Abstract:
Methods and apparatuses are disclosed for executing a plurality of queued tasks in a memory. One example apparatus includes a memory configured to be coupled to a host. The memory is also configured to receive a plurality of memory access requests, a status request, and an execution command from the host, and to execute one or more of the plurality of memory access requests responsive to the execution command from the host. The execution command includes a plurality of respective indications that correspond to each respective memory access request of the plurality of memory access requests and that indicate whether the host is requesting the memory to execute each respective memory access request.
Abstract:
Apparatuses and methods for variable latency memory operations are disclosed herein. An example apparatus may include a memory configured to receive an activate command indicative of a type of a command during a first addressing phase and to receive the command during a second addressing phase. The memory may further be configured to provide information indicating that the memory is not available to perform a command responsive, at least in part, to receiving the command during a variable latency period and to provide information indicating that the memory is available to perform a command responsive, at least in part, to receiving the command after the variable latency period.
Abstract:
Apparatuses and methods for performing memory operations are described. An example apparatus includes a memory operation controller. The memory operation controller is configured to receive memory instructions and decode the same to provide internal signals for performing memory operations for the memory instructions. The memory operation controller is further configured to provide information indicative of a time for a variable latency period of a memory instruction during the variable latency period. In an example method, a write instruction and an address to which write data is to be written is received at a memory and an acknowledgement indicative of an end of a variable latency period for the write instruction is provided. After waiting a variable bus turnaround after the acknowledgement, write data for the write instruction is received.