Hello Dear Readers, Currently at Nvidia vacancy for Power Architecture Engineer role. NVIDIA has continuously reinvented itself. Our invention of the GPU sparked the growth of the PC gaming market, redefined modern computer graphics, and revolutionized parallel computing. Today, research in artificial intelligence is booming worldwide, which calls for highly scalable and massively parallel computation horsepower that NVIDIA GPUs excel. NVIDIA is a “learning machine” that constantly evolves by adapting to new opportunities that are hard to solve, that only we can address, and that matter to the world. This is our life’s work , to amplify human creativity and intelligence. As an NVIDIAN, you’ll be immersed in a diverse, supportive environment where everyone is inspired to do their best work. Come join our diverse team and see how you can make a lasting impact on the world! What you’ll be doing: Be part of NVIDIA Power Architecture Group that owns end-to-end power aspects such ...
Hello Dear Readers, Today In this post I have designed a carry-lookahead adder design and implemented its parametrized version using Verilog HDL and analysis that design for the desire output. First of all, I have designed CLA based on the theory described in the below video of the Neso Academy. Verilog Code: module add (a, b, c, g, p, s); // adder and g, p input a, b, c; // inputs: a, b, c; output g, p, s; // outputs: g, p, s; assign s=a ^ b ^ c; // output: sum of inputs assign g = a & b; // output: carry generator assign p = a | b; // output: carry propagator endmodule module gp (g,p,c_in,g_out,p_out,c_out); // carry generator, carry propagator input [1:0] g, p; // lower level 2-set of g, p input c_in; // lower level carry_in output g_out,p_out,c_out; // higher level g, p, carry_out assign g_out = g[1] | p[1] & g[0]; // higher level carry generator assign p_out = p[1] & p[0]; // higher level carry propagator assign c_out = g[0] | p[0] & c_in...