TY - JOUR
T1 - Multiple-valued logic-in-memory VLSI architecture based on floating-gate-MOS pass-transistor logic
AU - Hanyu, Takahiro
AU - Kameyama, Michitaka
PY - 1999/1/1
Y1 - 1999/1/1
N2 - A new logic-in-memory VLSI architecture based on multiple-valued floating-gate-MOS pass-transistor logic is proposed to solve the communication bottleneck between memory and logic modules. Multiple-valued stored data are represented by the threshold voltage of a floating-gate MOS transistor, so that a single floating-gate MOS transistor is effectively employed to merge multiple-valued threshold-literal and pass-switch functions. As an application, a four-valued logic-in-memory VLSI for high-speed pattern recognition is also presented. The proposed VLSI detects a stored reference word with the minimum Manhattan distance between a 16-bit input word and 16-bit stored reference words. The effective chip area, the switching delay and the power dissipation of a new four-valued full adder, which is a key component of the proposed logic-in-memory VLSI, are reduced to about 33 percent, 67 percent and 24 percent, respectively, in comparison with those of the corresponding binary CMOS implementation under a 0.5-μm flash EEPROM technology.
AB - A new logic-in-memory VLSI architecture based on multiple-valued floating-gate-MOS pass-transistor logic is proposed to solve the communication bottleneck between memory and logic modules. Multiple-valued stored data are represented by the threshold voltage of a floating-gate MOS transistor, so that a single floating-gate MOS transistor is effectively employed to merge multiple-valued threshold-literal and pass-switch functions. As an application, a four-valued logic-in-memory VLSI for high-speed pattern recognition is also presented. The proposed VLSI detects a stored reference word with the minimum Manhattan distance between a 16-bit input word and 16-bit stored reference words. The effective chip area, the switching delay and the power dissipation of a new four-valued full adder, which is a key component of the proposed logic-in-memory VLSI, are reduced to about 33 percent, 67 percent and 24 percent, respectively, in comparison with those of the corresponding binary CMOS implementation under a 0.5-μm flash EEPROM technology.
KW - Flash EEP-ROM technology
KW - Floating-gate MOS transistor
KW - Four-valued full adder
KW - Logic-in-memory structure
KW - Manhattan distance
KW - Pass-transistor network
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M3 - Article
AN - SCOPUS:0033322562
SN - 0916-8524
VL - E82-C
SP - 1662
EP - 1668
JO - IEICE Transactions on Electronics
JF - IEICE Transactions on Electronics
IS - 9
ER -