Low power very large scale integrated (VLSI) designs using a circuit failure in sequential cells as low voltage check for limit of operation of a design are provided. One such method involves the adding a plurality of bits for sequential elements in the design including sets of flip-flops, RAMs, ROMs and register files to add parity or single error correct and double error detect mechanism, a method to detect the parity errors or a single bit error and a double bit error in the sequential elements, starting at a voltage of operation at a nominal value and gradually lowering voltage setting till a first error is detected in the sequential elements, increasing the voltage of operation by predetermined step above a voltage of first fail to achieve an optimal voltage setting of a correct operation of the design, storing this optimal voltage setting in anon-volatile memory for a subsequent use.

The present disclosure provides a gate driving circuit, a method for detecting the gate driving circuit, an array substrate and a display apparatus. The gate driving circuit comprises a plurality of cascaded gate driving units, access units, a first signal line and a second signal line. Each access unit is connected to its corresponding gate driving unit and the gate driving unit at the next stage to its corresponding gate driving unit. The access unit corresponding to the gate driving unit at each odd stage is connected to the first signal line such that the first signal line detects an output signal from that gate driving unit via the access unit, and the access unit corresponding to the gate driving unit at each even stage is connected to the second signal line such that the second signal line detects an output signal from that gate driving unit via the access unit.

The present disclosure provides a gate driving circuit, a method for detecting the gate driving circuit, an array substrate and a display apparatus. The gate driving circuit comprises a plurality of cascaded gate driving units, access units, a first signal line and a second signal line. Each access unit is connected to its corresponding gate driving unit and the gate driving unit at the next stage to its corresponding gate driving unit. The access unit corresponding to the gate driving unit at each odd stage is connected to the first signal line such that the first signal line detects an output signal from that gate driving unit via the access unit, and the access unit corresponding to the gate driving unit at each even stage is connected to the second signal line such that the second signal line detects an output signal from that gate driving unit via the access unit.

In a memory module having a buffer component, a plurality of data signaling paths and a plurality of memory dies each coupled to a respective one of the data signaling paths, the buffer component receives and stores a first configuration value that specifies a memory-die quantity N, where N is permitted to range from a first value corresponding to the quantity of the data signaling paths to at least one value less than the first value. The buffer component further receives a memory read command and enables, in accordance with the first configuration value, a quantity N of the memory dies to output read data in response to the memory read command.

A detection is made by a processing device allocated to a memory device test board of a distributed test platform that a memory sub-system has engaged with a memory device test resource of the memory device test board. A test is identified to be performed for a memory device of the memory sub-system. The test includes first instructions to be executed by a memory sub-system controller of the memory sub-system in performance of the test and second instructions to be executed by the processing device in performance of the test. The second instructions are to cause one or more test condition components of the memory device test resource to generate one or more test conditions to be applied to the memory device while the memory sub-system executes the first instructions. Responsive to a transmission of the first instructions to the memory sub-system controller, the second instructions are executed.

A detection is made by a processing device allocated to a memory device test board of a distributed test platform that a memory sub-system has engaged with a memory device test resource of the memory device test board. A test is identified to be performed for a memory device of the memory sub-system. The test includes first instructions to be executed by a memory sub-system controller of the memory sub-system in performance of the test and second instructions to be executed by the processing device in performance of the test. The second instructions are to cause one or more test condition components of the memory device test resource to generate one or more test conditions to be applied to the memory device while the memory sub-system executes the first instructions. Responsive to a transmission of the first instructions to the memory sub-system controller, the second instructions are executed.

The present disclosure provides a gate driving circuit, a method for detecting the gate driving circuit, an array substrate and a display apparatus. The gate driving circuit comprises a plurality of cascaded gate driving units, access units, a first signal line and a second signal line. Each access unit is connected to its corresponding gate driving unit and the gate driving unit at the next stage to its corresponding gate driving unit. The access unit corresponding to the gate driving unit at each odd stage is connected to the first signal line such that the first signal line detects an output signal from that gate driving unit via the access unit, and the access unit corresponding to the gate driving unit at each even stage is connected to the second signal line such that the second signal line detects an output signal from that gate driving unit via the access unit.

Low power VLSI designs using circuit failure in sequential cells as low voltage check for limit of operation of the design are provided. One such method involves the addition of a plurality of bits for sequential elements in the design including set of flip-flops, RAMs, ROMs and register files to add parity or single error correct and double error detect mechanism, a method to detect the parity errors or a single or double bit error in the sequential elements, starting at a nominal voltage of operation and gradually lowering the voltage setting till the first error is detected in the sequential elements, increasing the operating voltage by predetermined step above the voltage of first fail to achieve the optimal lowest voltage of correct operation of the design, storing this optimal voltage setting in a non-volatile memory for subsequent use.

A processor can determine whether the device is in an inactive state and, responsive to determining that the device is in the inactive state, can access a number of addresses of the device. The processor can monitor output data generated by the device responsive to the number of addresses to determine whether accessing one or more of the number of addresses results in an error. The output data can be provided by the device along a path. The output data can be continuously monitored when the device is in the inactive state. The processor can perform an action responsive to determining that there is an error of the device.

A processor can determine whether the device is in an inactive state and, responsive to determining that the device is in the inactive state, can access a number of addresses of the device. The processor can monitor output data generated by the device responsive to the number of addresses to determine whether accessing one or more of the number of addresses results in an error. The output data can be provided by the device along a path. The output data can be continuously monitored when the device is in the inactive state. The processor can perform an action responsive to determining that there is an error of the device.