If we used lookup tables with 4 inputs and 1 output to implement the logic module, how many lookup tables would be used?module LogicModule ( input logic Clk, input logic Rst, input logic [7:0] DataIn, output logic [7:0] DataOut ); always @(posedge Clk) begin DataOut[7] <= DataIn[0] | DataIn[1]; DataOut[6] <= DataIn[1] | DataIn[2]; DataOut[5] <= DataIn[2] | DataIn[3]; DataOut[4] <= DataIn[3] | DataIn[4]; DataOut[3] <= DataIn[4] | DataIn[5]; DataOut[2] <= DataIn[5] | DataIn[6]; DataOut[1] <= DataIn[6] | DataIn[7]; DataOut[0] <= DataIn[7] | DataIn[0]; end endmodule
If we used lookup tables with 4 inputs and 1 output to implement the logic module, how many lookup tables would be used?module LogicModule ( input logic Clk, input logic Rst, input logic [7:0] DataIn, output logic [7:0] DataOut ); always @(posedge Clk) begin DataOut[7] <= DataIn[0] | DataIn[1]; DataOut[6] <= DataIn[1] | DataIn[2]; DataOut[5] <= DataIn[2] | DataIn[3]; DataOut[4] <= DataIn[3] | DataIn[4]; DataOut[3] <= DataIn[4] | DataIn[5]; DataOut[2] <= DataIn[5] | DataIn[6]; DataOut[1] <= DataIn[6] | DataIn[7]; DataOut[0] <= DataIn[7] | DataIn[0]; end endmodule
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
Section: Chapter Questions
Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...
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If we used lookup tables with 4 inputs and 1 output to implement the logic module, how many lookup tables would be used?
module LogicModule ( input logic Clk, input logic Rst, input logic [7:0] DataIn, output logic [7:0] DataOut ); always @(posedge Clk) begin DataOut[7] <= DataIn[0] | DataIn[1]; DataOut[6] <= DataIn[1] | DataIn[2]; DataOut[5] <= DataIn[2] | DataIn[3]; DataOut[4] <= DataIn[3] | DataIn[4]; DataOut[3] <= DataIn[4] | DataIn[5]; DataOut[2] <= DataIn[5] | DataIn[6]; DataOut[1] <= DataIn[6] | DataIn[7]; DataOut[0] <= DataIn[7] | DataIn[0]; end endmodule
module LogicModule ( input logic Clk, input logic Rst, input logic [7:0] DataIn, output logic [7:0] DataOut ); always @(posedge Clk) begin DataOut[7] <= DataIn[0] | DataIn[1]; DataOut[6] <= DataIn[1] | DataIn[2]; DataOut[5] <= DataIn[2] | DataIn[3]; DataOut[4] <= DataIn[3] | DataIn[4]; DataOut[3] <= DataIn[4] | DataIn[5]; DataOut[2] <= DataIn[5] | DataIn[6]; DataOut[1] <= DataIn[6] | DataIn[7]; DataOut[0] <= DataIn[7] | DataIn[0]; end endmodule
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