Algebraic fuzzy flip-flop circuits
Fuzzy Sets and Systems - Special issue on applications of fuzzy systems theory, Iizuka '88
Designing sequential systems with fuzzy J-K flip-flops
Fuzzy Sets and Systems
A VLSI design of fuzzy register
Information Sciences: an International Journal
Performance analysis of low-power 1-Bit CMOS full adder cells
IEEE Transactions on Very Large Scale Integration (VLSI) Systems
A Fast Digital Fuzzy Processor
IEEE Micro
Design of an analog CMOS fuzzy logic controller chip
Fuzzy Sets and Systems - Fuzzy systems
A New Fuzzy Arithmetic for Discrete Fuzzy Numbers
FSKD '07 Proceedings of the Fourth International Conference on Fuzzy Systems and Knowledge Discovery - Volume 01
Multiple-Valued Logic its Status and its Future
IEEE Transactions on Computers
Two new low-power Full Adders based on majority-not gates
Microelectronics Journal
IEEE Transactions on Very Large Scale Integration (VLSI) Systems
A new quantum-dot cellular automata full-adder
Microelectronics Journal
Attribute reduction based on generalized fuzzy evidence theory in fuzzy decision systems
Fuzzy Sets and Systems
Examples of fuzzy metrics and applications
Fuzzy Sets and Systems
High-speed full adder based on minority function and bridge style for nanoscale
Integration, the VLSI Journal
Digital fuzzy logic controller: design and implementation
IEEE Transactions on Fuzzy Systems
Hi-index | 0.20 |
A new hardware-friendly mathematical method for realizing low-complexity universal Adder cells as well as its efficient hardware implementations is proposed in this paper. This method can be used in binary logic, Multiple-Valued Logic (MVL) and specifically digital fuzzy systems. The proposed mathematical method can be implemented in both voltage and current modes. The voltage-mode hardware implementation is very simple and is based on input capacitors and MVL or analog inverters and buffers. In addition, the current-mode hardware implementation leads to simple and efficient structures for digital fuzzy systems. Simulations are carried out for ternary logic as well as for digital fuzzy logic with high precision by using 180nm standard CMOS technology and at 1.8V supply voltage. Simulation results demonstrate that the proposed designs have excellent functionality and are very suitable for implementing MVL and fuzzy arithmetic circuits.