Consider the following sub_module_verilog code: module sub-module-verilog (input A, B, output wire M,N,S); Assign M A-^B; Assign NA & -B; Assign SA & B; endmodule Consider the following main_module_verilog code: module main-module-verilog (input wire [2:0] A, B, output wire X, Y, Z); wire so, s1, 52, 53, 54, 55, 56, 57, 58; sub-module-verilog eq_bito (.A (A[0]), B(B[0]), .M(SO), .N(s1), S(s2)); sub-module-verilog eq_bit1 (.A (A[1]), B(B[1]), .M(53), .N (34), S(s5)); sub-module-verilog eq_bit2 (.A (A[2]), B(B[2]), .M(56), .N(57), .S(58)); assign X 50 & 33 & 36; assign Y s7 | (56 & 54) | (56 & 53 & 51); assign Z s8 | (s6 & s5) | (56 & 53 & 52); endmodule The module described above represents 3-bit binary to gray code converter 3-bit parity generator 3-bit magnitude comparator None of the above
Consider the following sub_module_verilog code: module sub-module-verilog (input A, B, output wire M,N,S); Assign M A-^B; Assign NA & -B; Assign SA & B; endmodule Consider the following main_module_verilog code: module main-module-verilog (input wire [2:0] A, B, output wire X, Y, Z); wire so, s1, 52, 53, 54, 55, 56, 57, 58; sub-module-verilog eq_bito (.A (A[0]), B(B[0]), .M(SO), .N(s1), S(s2)); sub-module-verilog eq_bit1 (.A (A[1]), B(B[1]), .M(53), .N (34), S(s5)); sub-module-verilog eq_bit2 (.A (A[2]), B(B[2]), .M(56), .N(57), .S(58)); assign X 50 & 33 & 36; assign Y s7 | (56 & 54) | (56 & 53 & 51); assign Z s8 | (s6 & s5) | (56 & 53 & 52); endmodule The module described above represents 3-bit binary to gray code converter 3-bit parity generator 3-bit magnitude comparator None of the above
Power System Analysis and Design (MindTap Course List)
6th Edition
ISBN:9781305632134
Author:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma
Publisher:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma
Chapter3: Power Transformers
Section: Chapter Questions
Problem 3.30P: Reconsider Problem 3.29. If Va,VbandVc are a negative-sequence set, how would the voltage and...
Related questions
Question
Consider the following sub_module_verilog code:
module sub-module-verilog (input A, B, output wire M,N,S);
Assign M A-^B;
Assign NA & -B;
Assign SA & B;
endmodule
Consider the following main_module_verilog code:
module main-module-verilog (input wire [2:0] A, B,
output wire X, Y, Z);
wire so, s1, 52, 53, 54, 55, 56, 57, 58;
sub-module-verilog eq_bito (.A (A[0]), B(B[0]), .M(SO),
.N(s1), S(s2));
sub-module-verilog eq_bit1 (.A (A[1]), B(B[1]), .M(53),
.N (34), S(s5));
sub-module-verilog eq_bit2 (.A (A[2]), B(B[2]), .M(56),
.N(57), .S(58));
assign X 50 & 33 & 36;
assign Y s7 | (56 & 54)
|
(56 & 53 & 51);
assign Z
s8 | (s6 & s5)
|
(56 & 53 & 52);
endmodule
The module described above represents
3-bit binary to gray code converter
3-bit parity generator
3-bit magnitude comparator
None of the above
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