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Physical Design Methodology Engineer at Texas Instruments

  Hello Dear Readers, Texas Instruments Bangalore has a vacancy for the Physical Design Engineer role. We need an Physical Design Methodology Engineer to join our ATD team. The candidate should have a strong background in back-end design of ASIC/SoC chips. The ideal candidate will have a bachelor’s or master’s degree in Electrical Engineering or a related field. Requirements: 1 - 2 Years of experience in physical design Bachelor’s or master’s degree in Electrical/Electronics Engineering or a related field Strong understanding of physical design principles Must know the basics of floorplan, placement, CTS, routing, ECO, Physical Verification Proficiency in back-end design tools, such as Cadence Genus/Innovus/Tempus/Voltus Excellent problem-solving skills and attention to detail Effective communication and collaboration skills Responsibilities: Synthesis to GDSII Perform full Physical design flow and its verification Work closely with Digital Design and DFT engineers Ensure...
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Verilog Code of 4bit BCD Adder Using Full Adder

 Hello Dear Readers,

Today in this post I will be providing you a complete Verilog code of 4 Bit BCD Adder using the Full Adder instant model. So before the start, the code keep in mind the algorithms for the BCD adder is if the additional sum is greater than 9 will become up then we add 6 on it to make a valid BCD number so here in my code I have used this algorithm so keep in mind.

Verilog Code:

module bcd_4bit(input [3:0] x,y,input cy_in,output [3:0] sum,output carry,output [4:0] bcd_sum);

add4 a1 (carry,sum,x,y,cy_in);
assign bcd_sum=carry==1?{carry,(sum+4'b0110)}:sum;
endmodule

module add4(cy4,sum,x,y,cy_in
    );
input [3:0] x,y;
input cy_in;
output [3:0] sum;
output cy4;
wire [2:0] carry_out;
add b0(carry_out[0],sum[0],x[0],y[0],cy_in);
add b1(carry_out[1],sum[1],x[1],y[1],carry_out[0]);
add b2(carry_out[2],sum[2],x[2],y[2],carry_out[1]);
add b3(cy4,sum[3],x[3],y[3],carry_out[2]);
endmodule

module add(carry_out,sum,a,b,cy_in
    );
input a,b,cy_in;
output carry_out,sum;
sum s1(sum,a,b,cy_in);
carry c1(carry_out,a,b,cy_in);
endmodule

module sum(sum,a,b,cy_in
    );
input a,b,cy_in;
output sum;
wire t1;
xor g1(t,a,b);
xor g2(sum,t,cy_in);
endmodule

module carry(cy4,a,b,cy_in
    );
input a,b,cy_in;
output cy4;
wire w1,w2,w3;
and g3(w1,a,b);
and g4(w2,b,cy_in);
and g5(w3,a,cy_in);
or g6(cy4,w1,w2,w3);
endmodule

Simulational Results:




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Comments

  1. Anonymous17 March 2021 at 23:49

    Thanks sir it will be helpful me to design 16 bit BCD adder.

    ReplyDelete
  2. Anonymous23 March 2021 at 20:26

    Great post I hope you enjoying by writing it is really hard specifically current time ☺️☺️☺️☺️

    ReplyDelete
    Replies
    1. ELECTRONICS AND COMMUNICATION HUBS23 March 2021 at 20:30

      Thanks for understanding I am motivating by people's like you to write more and more so keep it up from yourside also.

      Delete
    2. Anonymous23 March 2021 at 20:46

      Yes bro yes I am regularly read your post.

      Delete
  3. Anonymous7 April 2021 at 22:29

    Good post bro which college is prefer for VLSI can you guide me.
    Thanks in advance

    ReplyDelete

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