Abstract:
The present invention discloses an offset-printing method for a three-dimensional 3D-oP (three-dimensional offset-printed memory)-based package. The mask-patterns for different 3D-op dice are merged onto a same data-mask. At different printing steps, a wafer is offset by different values with respect to the data-mask. Accordingly, data-patterns from a same data-mask are printed into different 3D-oP dice.
Abstract:
A read only memory (ROM) with redundancy and methods of use are provided. The ROM with redundancy includes a programmable array coupled to a repair circuit having one or more redundant repairs. The one or more redundant repairs include a word address match logic block, a data I/O address, and a tri-state buffer. The word address match logic block is provided to the tri-state buffer as a control input and the data I/O address is provided to the tri-state buffer as an input. An output of the tri-state buffer of each redundant repair is provided as a first input to one or more logic devices. One or more data outputs of a ROM bit cell array is provided as a second input to a respective one of the one or more logic devices.
Abstract:
Providing for a memory cell capable of operating a one time programmable, multi-level cell memory is described herein. In some embodiments, a program signal having a first polarity and a first current compliance is applied to a memory cell. In an aspect, the memory cell is switched to a first program state from a non-program state in response to the first program signal. Furthermore, in an embodiment, an additional program signal having a second polarity is applied to the memory cell. In another aspect, the memory cell is switched to an additional program state different from the first program state in response to the additional program signal, wherein: the memory cell inherently resists switching back from the additional program state to the first program state, and the second polarity is opposite to the first polarity.
Abstract:
A method of starting a camera, a user equipment and a storage medium are provided. A memory in the user equipment is additionally utilized to store calibrated OTP data therein so that the calibrated OTP data stored in the memory can be written directly into a register of an optical sensor of the camera each time the user equipment accesses the camera to thereby avoid OTP data calibration each time the user equipment accesses the camera, and shorten a period of time for the user equipment to access the camera and a period of time for the camera to start while avoiding an overly amount of calibration calculations, lowering a load on a kernel of the user equipment and improving the experience of a user.
Abstract:
A semiconductor device includes a one-time programmable (OTP) memory cell includes a first MOS transistor having a gate coupled to a bit line, a first switching device, coupled to one side of a source/drain of the first MOS transistor, configured to provide a current path for a current supplied to the gate of the first MOS transistor, and a second switching device configured to provide a bias voltage at the other side of the source/drain of the first MOS transistor.
Abstract:
An e-fuse array circuit includes: an e-fuse transistor of a vertical gate type configured to have a gate for receiving a voltage of a program gate line and have one between a drain terminal and a source terminal floating; and a selection transistor of a buried gate type configured to have a gate for receiving a voltage of a word line gate line and electrically connect/disconnect the other one between the drain terminal and the source terminal with a bit line.
Abstract:
A method of starting a camera, a user equipment and a storage medium are provided. A memory in the user equipment is additionally utilized to store calibrated OTP data therein so that the calibrated OTP data stored in the memory can be written directly into a register of an optical sensor of the camera each time the user equipment accesses the camera to thereby avoid OTP data calibration each time the user equipment accesses the camera, and shorten a period of time for the user equipment to access the camera and a period of time for the camera to start while avoiding an overly amount of calibration calculations, lowering a load on a kernel of the user equipment and improving the experience of a user.
Abstract:
A low-pin-count non-volatile (NVM) memory with no more than two control signals that can at least program NVM cells, load data to be programmed into output registers, or read the NVM cells. At least one of the NVM cells has at least one NVM element coupled to at least one selector and to a first supply voltage line. The selector is coupled to a second supply voltage line and having a select signal. At least one of the selected NVM cells can be coupled to at least one output register. No more than two control signals can be used to select the at least one NVM cells in the NVM sequentially for programming the data into the at least one NVM cells or loading data into the at least one output registers controlled by the pulse of the first signal and voltage level and/or timing of the second signal. Programming into the NVM cells, or loading data into output registers, can be determined by the voltage levels of the first to the second supply voltage lines. Reading at least one of the NVM cells can be activated by a third signal or by detecting ramping of the first or the second supply voltage line.
Abstract:
A read only memory (ROM) with redundancy and methods of use are provided. The ROM with redundancy includes a programmable array coupled to a repair circuit having one or more redundant repairs. The one or more redundant repairs include a word address match logic block, a data I/O address, and a tri-state buffer. The word address match logic block is provided to the tri-state buffer as a control input and the data I/O address is provided to the tri-state buffer as an input. An output of the tri-state buffer of each redundant repair is provided as a first input to one or more logic devices. One or more data outputs of a ROM bit cell array is provided as a second input to a respective one of the one or more logic devices.
Abstract:
A one-time programmable memory device may include a normal cell array including a plurality of one-time programmable memory cells, which are programmable and accessible in the normal operation, a test cell array including one-time programmable memory cells, which are programmed at a given pattern in a test operation for determining a failed row and/or a failed column and are not accessible in the normal operation, a row circuit configured to control an operation of a row that is selected by a row address in the normal cell array, and a column circuit configured to access a column that is selected by a column address in the normal cell array.