2018Unpublished venueRequires access

IMPLEMENTATION OF THE STANDARD FLOATING POINT MAC USING IEEE 754 FLOATING POINT ADDER

R Rao, N. Dhanunjaya Rao, K. Naveen, P. Ramya

Open publisher page 10 citations

Abstract

There are two types of processors. The first category is arithmetic processors and the second category is signal processing processors. For arithmetic processors in general precision is less where as for the signal processing processors precision is high because the signal is to be reconstructed at the receiving end. In the arithmetic processors the basic building block is Arithmetic Logic Unit (ALU). In the signal processing processors the basic building block is Multiplier Accumulator Content (MAC). For the Standard floating point MAC, more precision is essential compared with the traditional fixed point MAC because the former is to be designed by the IEEE 754 floating point arithmetic and the lateral is designed with fixed-point arithmetic i.e, the precision is limited to integer. But, in general if the precision is more, the accuracy is more. Hence, to improve the performance of the traditional fixed point MAC, in this work we implemented the standard floating point MAC using IEEE 754 floating point adder. This can be used to design all floating point DSP processors through the standard floating point MAC.

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What this paper is about

There are two types of processors. The first category is arithmetic processors and the second category is signal processing processors. For arithmetic processors in general precision is less where as for the signal processing processors precision is high because the signal is to be reconstructed at the receiving end. In the arithmetic processors the basic building block is Arithmetic Logic Unit (ALU). In the signal processing processors the basic building block is Multiplier Accumulator Content (MAC). For the Standard floating point MAC, more precision is essential compared with the traditional fixed point MAC because the former is to be designed by the IEEE 754 floating point arithmetic and the lateral is designed with fixed-point arithmetic i.e, the precision is limited to integer. But, in general if the precision is more, the accuracy is more. Hence, to improve the performance of the traditional fixed point MAC, in this work we implemented the standard floating point MAC using IEEE 754 floating point adder. This can be used to design all floating point DSP processors through the standard floating point MAC.

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OpenAlex reports 10 citations for this work. Citation counts describe recorded attention and do not establish research quality.

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Available abstract

There are two types of processors. The first category is arithmetic processors and the second category is signal processing processors. For arithmetic processors in general precision is less where as for the signal processing processors precision is high because the signal is to be reconstructed at the receiving end. In the arithmetic processors the basic building block is Arithmetic Logic Unit (ALU). In the signal processing processors the basic building block is Multiplier Accumulator Content (MAC). For the Standard floating point MAC, more precision is essential compared with the traditional fixed point MAC because the former is to be designed by the IEEE 754 floating point arithmetic and the lateral is designed with fixed-point arithmetic i.e, the precision is limited to integer. But, in general if the precision is more, the accuracy is more. Hence, to improve the performance of the traditional fixed point MAC, in this work we implemented the standard floating point MAC using IEEE 754 floating point adder. This can be used to design all floating point DSP processors through the standard floating point MAC.

Key concepts: IEEE floating point, Adder, Floating point, Floating-point unit, Single-precision floating-point format, Double-precision floating-point format, Computer science, Arithmetic

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