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{"references": ["[1] R. Uma, Mar-Apr 2012, \u201cDesign and Performance Analysis of 8-bit RISC Processor using Xilinx Tool\u201d", "[2] Galani Tina G., Riya Saini and R.D.Daruwala, July-2013, \u201cDesign and Implementation of 32 \u2013 bit RISC Processor using Xilinx\u201d", "[3] Galani Tina R.D.Daruwala, February 2013, \u201c Performance Improvement of MIPS Architecture by Adding New Features\u201d", "[4] Samiappa Sakthikumaran,S.Salivahanan and V.S.Kaanchana Bhaaskaran , June 2011, \u201c16-Bit RISC Processor Design For Convolution Application\u201d,IEEE International Conference on Recent Trends In Information Technology, pp.394-397.", "[5] Rohit Sharma, Vivek Kumar Sehgal, Nitin Nitin1, Pranav Bhasker, Ishita Verma , 2009, \u201cDesign And Implementation Of 64-Bit RISC Processor Using VHDL\u201d,UKSim : 11th International Conference on Computer Modeling And Simulation, pp. 568 \u2013 573.", "[6] Rupali S. Balpande and Rashmi S. Keote.2011, \u201cDesign of FPGA based Instruction Fetch & Decode Module of 32-bit RISC (MIPS) Processor, International Conference on Communication Systems and Network Technologies pp. 409 \u2013 413", "[7] Xiao Li, Longwei Ji, Bo Shen, Wenhong Li, Qianling Zhang, \u201cVLSI implementation of a High-performance 32-bit RISC Microprocessor\u201d, Communications, Circuits and Systems and West Sino Expositions, IEEE 2002 International Conference on ,Volume 2, 2002 ,pp.1458 \u2013 1461.", "[8] Kusumlata Pisda, Deependra Pandey, \u201cRealization & Study of High Performance MIPS RISC Processor Design Using VHDL\u201d, International Journal of Emerging trends in Engineering and Development, Volume 7, Issue 2, November 2012, pp. 134 \u2013 139, ISSN: 2249 \u2013 6149.", "[9] Kirat Pal Singh, Shivani Parmar, \u201cVHDL Implementation of a MIPS \u2013 32 bit Pipeline Processor\u201d, International Journal of Applied Engineering Research, Volume 7, Issue 11, ISSN: 0973 \u2013 4562."]}
This paper presents the design and implementation of a pipelined 9-bit RISC Processor. The various blocks include the Fetch, Decode, Execute and Store result to implement 4 stage pipelining. Harvard Architecture is used which has distinct program memory space and data memory space. The only load and store is used to communicate with data memory. RISC using pipeline makes CPI as 1 and improves speed of execution. Verilog Language is used for coding purpose. The proposed architecture is then simulated using Modelsim.
RISC features, Pipelining, ALU, Booth multiplier, Barrel shifter, RISC features, Pipelining, ALU, Booth multiplier, Barrel shifter
RISC features, Pipelining, ALU, Booth multiplier, Barrel shifter, RISC features, Pipelining, ALU, Booth multiplier, Barrel shifter
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