A method includes receiving a selection signal from a third-party device and a status signal from the third-party device. A data signal from the third-party device is latched when both the selection signal and the status signal are active. In addition, a second selection signal and a second status signal can be received from a second third-party device and a second data signal latched when both the second selection signal and the second status signal are active.

A buffer controller includes a pointer generator, a code converter, a synchronizer, a code restorer, and a comparator. The pointer generator operates according to a first clock signal, and generates a first pointer by encoding a first address of a buffer with a first code. The code converter generates a first transmission pointer by converting the first pointer with a second code or a third code according to an amount of data stored in or read from the first address. The synchronizer synchronizes the first transmission pointer with a second clock signal. The code restorer generates a first comparison pointer by restoring the first transmission pointer, synchronized with the second clock signal, with the first code. The comparator compares the first comparison pointer with a second pointer. The second pointer defines a second address of the buffer with the first code.

An integrated circuit device includes a shuffler, a logic unit and registers each including two or more bit storages. The shuffler receives an address indicating one of the registers and data bits, selects target bit storages at which the data bits are to be stored from among bit storages of the registers depending on a shuffle configuration and the address, stores the data bits into the target bit storages, and transfers the data bits from the target bit storages depending on the shuffle configuration. The logic unit receives the data bits transferred from the shuffler and operates using the received data bits. The shuffle configuration is adjusted when a reset operation is performed.

An integrated circuit (IC) includes first and scan latches that are enabled to load data during a first part of a clock period. A clocking circuit outputs latch clocks with one latch clock driven to an active state during a second part of the clock period dependent on a first address input. A set of storage elements have inputs coupled to the output of the first scan latch and are respectively coupled to a latch clock to load data during a time that their respective latch clock is in an active state. A selector circuit is coupled to outputs of the first set of storage elements and outputs a value from one output based on a second address input. The second scan latch then loads data from the selector's output during the first part of the input clock period.

A system and method for high-speed, low-power cryogenic computing are presented, comprising ultrafast energy-efficient RSFQ superconducting computing circuits, and hybrid magnetic/superconducting memory arrays and interface circuits, operating together in the same cryogenic environment. An arithmetic logic unit and register file with an ultrafast asynchronous wave-pipelined datapath is also provided. The superconducting circuits may comprise inductive elements fabricated using both a high-inductance layer and a low-inductance layer. The memory cells may comprise superconducting tunnel junctions that incorporate magnetic layers. Alternatively, the memory cells may comprise superconducting spin transfer magnetic devices (such as orthogonal spin transfer and spin-Hall effect devices). Together, these technologies may enable the production of an advanced superconducting computer that operates at clock speeds up to 100 GHz.

A system for controlling a hold-margin in a semiconductor memory device includes a programmable RC network communicatively coupled to a delay logic circuit, a latch clock generator and a latch circuit. A delay associated with a clock path is induced using a combination of a logic circuit and a wire placed across at least one of a column and a row of the semiconductor memory device. A delay associated with the data path is induced using a combination of the delay logic circuit and at least one of the load cell and a wire routed across at least one of a column and a row of the semiconductor memory device. The system controls the hold-margin based on the delay associated with the data path and the delay associated with the clock path.

A device includes a first AND logic gate comprising a first input, a second input, and an output, a second AND logic gate comprising a first input, a second input, and an output, and a first OR logic gate comprising a first input coupled to the output of the first AND logic gate and a second input coupled to the output of the second AND logic gate. A first selection circuit has first and second data inputs, a first control input coupled to the first input of the first AND logic gate and a second control input coupled to the first input of the second AND logic gate. A first D latch includes a data input coupled to an output of the first selection circuit and an activation input coupled to an output of the first OR logic gate and a second D latch includes a data input coupled to the output of the first selection circuit and an activation input coupled to the output of the first OR logic gate.

A storage device includes: a first disabling unit configured to output write enable signals without change when at least two write addresses of a plurality of write addresses for which write enable signals are enabled and held by a first holding unit do not match; a second holding unit configured to hold sets of the plurality of write addresses held by the first holding unit and the plurality of write enable signals output by the first disabling unit; a second disabling unit configured to output one write enable signal of the plurality of write enable signals held by the second holding unit without change in a test mode; and a third holding unit configured to write data in accordance with sets of the plurality of write addresses held by the second holding unit and the plurality of write addresses output by the second disabling unit.

A method begins by a processing module of a computing device in a dispersed storage network (DSN) receiving a read request for a data segment, where the data segment is dispersed error encoded to produce a set of encoded data slices (EDSs) that are stored in a plurality of storage units (SUs) in a storage unit (SU) set. The method continues with the computing device determining loading information for each SU of the SU set and identifying a read threshold number of SUs of the SU set based the loading information and a pattern selection scheme. The method continues with the processing module transmitting a read slice request to each SU of the read threshold number of SUs that are identified.

A buffer controller includes a pointer generator, a code converter, a synchronizer, a code restorer, and a comparator. The pointer generator operates according to a first clock signal, and generates a first pointer by encoding a first address of a buffer with a first code. The code converter generates a first transmission pointer by converting the first pointer with a second code or a third code according to an amount of data stored in or read from the first address. The synchronizer synchronizes the first transmission pointer with a second clock signal. The code restorer generates a first comparison pointer by restoring the first transmission pointer, synchronized with the second clock signal, with the first code. The comparator compares the first comparison pointer with a second pointer. The second pointer defines a second address of the buffer with the first code.