Abstract: The present disclosure relates to a method of a non-volatile one time programmable memory (OTPM) including parallel programming of all banks of the OTPM by programming two rows per bank at a time, verifying the programming by comparing a first row of the two rows per bank, and verifying the programming by comparing a second row of the two rows per bank.

Abstract: The present disclosure relates to a method of a non-volatile one time programmable memory (OTPM) including parallel programming of all banks of the OTPM by programming two rows per bank at a time, verifying the programming by comparing a first row of the two rows per bank, and verifying the programming by comparing a second row of the two rows per bank.

Abstract: Disclosed are embodiments of an apparatus incorporating a detection circuit adapted for determining the state of selected fuses and a programming circuit for blowing selected fuses on demand. Also, disclosed are embodiments of an associated method. The detection circuit comprises a plurality of fuses in identical signal and reference legs in order to increase the signal margin for detecting blown fuses and/or current sources configured to pass offset currents through the signal and reference legs in order to set the trip point for detecting blown fuses between the un-blown and the minimum blown resistances. Thus, the invention provides the flexibility of single-sided fuse state detection devices with even greater sensitivity than both single-sided and differential fuse state detection device.

Abstract: A low-voltage differential amplifier circuit is disclosed. The low-voltage differential amplifier circuit includes a first differential amplifier, a second differential amplifier and a summing circuit. The first differential amplifier receives a pair of differential input signals to generate a first output. The second differential amplifier receives the same pair of differential input signals to generate a second output. The summing circuit sums the first output of the first differential amplifier and the second output of the second differential amplifier to provide a common output.

Abstract: A low-voltage differential amplifier circuit is disclosed. The low-voltage differential amplifier circuit includes a first differential amplifier, a second differential amplifier and a summing circuit. The first differential amplifier receives a pair of differential input signals to generate a first output. The second differential amplifier receives the same pair of differential input signals to generate a second output. The summing circuit sums the first output of the first differential amplifier and the second output of the second differential amplifier to provide a common output.