Abstract
In Deep submicron technology the on chip and off chip buses plays an Important Role in the total amount of power consumed by chip and embedded chip memory. The capacitance plays significant role in the power analysis and maximum amount of power is utilized by chip of capacitance and less power is utilized by the devices. So the power has to be Reduced this can be done by encoding technique which in turn reduces switching activities. There are so many techniques to reduce energy consumption. In this paper a new encoding scheme which saves power. That reduce data bus energy consumption. This method produce an energy saving method based on Similar values and multi-coding which can further reduce on-chip data bus. In this results of simulation are reduce the ratio of Switching Activity (SA) on data bus lines, maximum ratio of Energy saving (ES) and the average ratio with toggle state Bus values.
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References
Zhou H, Wong DF (1998) Global routing with crosstalk constraints. In: Proceedings of 35th design automation conference, pp 374–377
Jafarzadeh N, Palesi M (2014) Data encoding technique for reducing energy consumption in NOC. IEEE Trans Very Large Scale Integr (VLSI) Syst
Naroska, Lai (2005) Low power dynamic bus encoding for deep sub-micron design. IEEE
Micro, Burl (1997) Low-power encoding for global communication in CMOS VLSI. IEEE
Wakerly. Text book Digital Ic Applications
Sarkar S, Rahul (2017) Adaptive bus encoding for transition reduction on off-chips buses with dynamically varying switching characteristics. IEEE Trans VLSI
Mingquan, Jizan, Zhihua (2016) Joint hybrid frequent value cache and multi-coding for data bus energy saving. IEEE
Tsai K-L, Ruan S-J (2005) Low power dynamic encoding for deep sub-micron design. IEEE
Chiu C-T, Huang W-C (2013) Embedded transition inversion coding with low switching activity for serial links. IEEE Trans VLSI
Alamgir M, Basith II, Supon T, Rashidzadeh R (2015) Improved bus shift coding for low power I/O. IEEE
Saini S, Mandalika SB (2011) A new bus coding technique to minimize crosstalk in VLSI. IEEE
Mahajan A, Mandalika SB (2010) Implementation of low power FFT structure using a method based on conditionally coded blocks. IEEE
Krishnan, Preethy AP. A novel techniques for low energy adaptive bus
Hirose K, Yasuura H (2000) A bus delay reduction technique considering crosstalk. In: Proceedings of design automation and test in Europe conference and exhibition
Kautz WH (1965) Fibonacci codes for synchronization control. IEEE Trans Inf Theory 11:284–292
Sakurai T (1993) Closed-form expressions for interconnection delay, coupling, and crosstalk in VLSI’s. IEEE Trans Electron Devices 40(12):118–124
Tseng H-P, Scheffer L, Sechen C (1998) Timing and crosstalk driven area routing. In: Proceedings of 35th design automation conference, pp 378–381
Xue T, Kuh E, Wang D (1997) Post global routing crosstalk synthesis. IEEE Trans Comput-Aided Des 16(12):1418–1430
Abinesh, Bhargava, Suresh (2010) Transition inversion based low power data coding scheme for buffered data transfer. IEEE
Sravya G (2016) VLSI design of low power data encoding techniques for NOC. IEEE
Ojashri A, Sharma A, Saini A (2016) Quadri coding Technique to reduce self transition in VLSI interconnects. IEEE
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Shavali, V., Sreerama Reddy, G.M., Ramana Reddy, P. (2019). Reduction of Coupling Transition by Using Multiple Encoding Technique in Data Bus and Its Power Analysis. In: Saini, H., Singh, R., Kumar, G., Rather, G., Santhi, K. (eds) Innovations in Electronics and Communication Engineering. Lecture Notes in Networks and Systems, vol 65. Springer, Singapore. https://doi.org/10.1007/978-981-13-3765-9_36
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DOI: https://doi.org/10.1007/978-981-13-3765-9_36
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