Publication detail

Efficient Implementation of Bi-functional RTL Components - Case Study

NEVORAL, J. RŮŽIČKA, R.

Original Title

Efficient Implementation of Bi-functional RTL Components - Case Study

Type

conference paper

Language

English

Original Abstract

The emergence of highly optimized implementations of many bi-functional gates allows an efficient implementation of components at a higher level of abstraction. In several classes of applications which typically involve RT level oriented design approach, these components can circumvent various issues related to synthesis of multifunctional circuits at the gate level. While the synthesis at the gate level is difficult, at RT level a skilled designer is still able to design a far more complex circuits by himself. If a set of efficient bi-functional RTL components is available, their utilization is expected to improve efficiency of the resulting circuit. In this paper, validity of this assumption is demonstrated through a design of bi-functional adder/subtractor circuit. At the gate level, one-bit full adder/subtractor circuit was created and optimised. This circuit was subsequently utilised for design of multi-bit adder/subtractor which was successfully simulated at the transistor level with MOSFET implementation of bi-functional logic gates. Besides adder/subtractor, an increment/decrement RTL component is also presented.

Keywords

Multifunctional electronics, bi-functional RTL component, bi-functional gate, full adder/subtractor, half adder/subtractor, increment/decrement.

Authors

NEVORAL, J.; RŮŽIČKA, R.

Released

20. 11. 2018

Publisher

IEEE Circuits and Systems Society

Location

Valletta

ISBN

978-1-5386-7680-6

Book

2018 New Generation of CAS (NGCAS)

Pages from

25

Pages to

28

Pages count

4

BibTex

@inproceedings{BUT155095,
  author="Jan {Nevoral} and Richard {Růžička}",
  title="Efficient Implementation of Bi-functional RTL Components - Case Study",
  booktitle="2018 New Generation of CAS (NGCAS)",
  year="2018",
  pages="25--28",
  publisher="IEEE Circuits and Systems Society",
  address="Valletta",
  doi="10.1109/NGCAS.2018.8572235",
  isbn="978-1-5386-7680-6"
}