Abstract: A ternary sense amplifier and an SRAM array realized by the ternary sense amplifier are provided. The ternary sense amplifier comprises the 1st CNFET transistor, the 2nd CNFET transistor, the 3rd CNFET transistor, the 4th CNFET transistor, the 5th CNFET transistor, the 6th CNFET transistor, the 7th CNFET transistor, the 8th CNFET transistor, the 9th CNFET transistor, the 10th CNFET transistor, the 11th CNFET transistor, the 12th CNFET transistor and the 13th CNFET transistor; the SRAM array comprises a ternary sense amplifier, a ternary memory array, the 1st inverter, the 2nd inverter, the 3rd inverter, the 4th inverter, the 14th CNFET transistor, the 15th CNFET transistor, the 16th CNFET transistor, the 17th CNFET transistor, the 18th CNFET transistor and the 19th CNFET transistor; it features in low power consumption, less postponement and high yield of chips.

Abstract: The present invention discloses a ternary 2-9 line address decoder realized by CNFET, comprising two ternary 1-3 line address decoders of the same structure, nine three-input NAND gates of the same structure and nine inverters of the same structure; the ternary 1-3 line address decoder comprises a 1st CNFET transistor, a 2nd CNFET transistor, a 3rd CNFET transistor, a 4th CNFET transistor, a 5th CNFET transistor, a 6th CNFET transistor, a 7th CNFET transistor, an 8th CNFET transistor, a 9th CNFET transistor, a 10th CNFET transistor and an 11th CNFET transistor; as compared with a 3-8 line address decoder, it features in limited deviation to an output terminals and significant reduction in the number of input terminals, which can minimize the number of ports as packaging, and improve decoding efficiency; furthermore, it is realized by CNFET, which features in low power consumption and less postponement.

Abstract: The present invention discloses a ternary PUF unit and circuit realized by CNFET; the ternary PUF circuit comprises a ternary row decoder, a ternary column decoder, a ternary output circuit and a ternary PUF unit array; the said ternary PUF circuit is arranged into a 3n rows×3n columns matrix formed by 3n×3n ternary PUF units; the ternary PUF unit comprises a 1st CNFET transistor, a 2nd CNFET transistor, a 3rd CNFET transistor, a 4th CNFET transistor, a 5th CNFET transistor, a 6th CNFET transistor, a 7th CNFET transistor, an 8th CNFET transistor, a 9th CNFET transistor and a 10th CNFET transistor; its advantage lies in the fact that it is provided with small circuit area and higher randomness and uniqueness while ensuring proper logic function.

Abstract: The present invention discloses a ternary 2-9 line address decoder realized by CNFET, comprising two ternary 1-3 line address decoders of the same structure, nine three-input NAND gates of the same structure and nine inverters of the same structure; the ternary 1-3 line address decoder comprises a 1st CNFET transistor, a 2nd CNFET transistor, a 3rd CNFET transistor, a 4th CNFET transistor, a 5th CNFET transistor, a 6th CNFET transistor, a 7th CNFET transistor, an 8th CNFET transistor, a 9th CNFET transistor, a 10th CNFET transistor and an 11th CNFET transistor; as compared with a 3-8 line address decoder, it features in limited deviation to an output terminals and significant reduction in the number of input terminals, which can minimize the number of ports as packaging, and improve decoding efficiency; furthermore, it is realized by CNFET, which features in low power consumption and less postponement.

Abstract: The present invention discloses a ternary PUF unit and circuit realized by CNFET; the ternary PUF circuit comprises a ternary row decoder, a ternary column decoder, a ternary output circuit and a ternary PUF unit array; the said ternary PUF circuit is arranged into a 3n rows×3n columns matrix formed by 3n×3n ternary PUF units; the ternary PUF unit comprises a 1st CNFET transistor, a 2nd CNFET transistor, a 3rd CNFET transistor, a 4th CNFET transistor, a 5th CNFET transistor, a 6th CNFET transistor, a 7th CNFET transistor, an 8th CNFET transistor, a 9th CNFET transistor and a 10th CNFET transistor; its advantage lies in the fact that it is provided with small circuit area and higher randomness and uniqueness while ensuring proper logic function.

Abstract: A ternary sense amplifier and an SRAM array realized by the ternary sense amplifier are provided. The ternary sense amplifier comprises the 1st CNFET transistor, the 2nd CNFET transistor, the 3rd CNFET transistor, the 4th CNFET transistor, the 5th CNFET transistor, the 6th CNFET transistor, the 7th CNFET transistor, the 8th CNFET transistor, the 9th CNFET transistor, the 10th CNFET transistor, the 11th CNFET transistor, the 12th CNFET transistor and the 13th CNFET transistor; the SRAM array comprises a ternary sense amplifier, a ternary memory array, the 1st inverter, the 2nd inverter, the 3rd inverter, the 4th inverter, the 14th CNFET transistor, the 15th CNFET transistor, the 16th CNFET transistor, the 17th CNFET transistor, the 18th CNFET transistor and the 19th CNFET transistor; it features in low power consumption, less postponement and high yield of chips.