module async_fifo #(DEPTH=8, WIDTH=16) ( input wclk, rclk, wrst_n, rrst_n, input wr_en, rd_en, input [WIDTH-1:0] wdata, output [WIDTH-1:0] rdata, output full, empty );
Using a standard interface allows your custom Verilog module to "talk" to a CPU (like a RISC-V or ARM core) seamlessly. Implementation Logic Advanced Chip Design- Practical Examples In Verilog
module clock_gated_reg ( input clk, en, d, output reg q ); module async_fifo #(DEPTH=8, WIDTH=16) ( input wclk, rclk,
// Interface IP core interface u_interface ( .clk (clk), .rst (rst), .data_bus (data_bus) ); module async_fifo #(DEPTH=8
To optimize for speed and throughput, designers use techniques that allow multiple instructions or data packets to be processed simultaneously:
module async_fifo #(DEPTH=8, WIDTH=16) ( input wclk, rclk, wrst_n, rrst_n, input wr_en, rd_en, input [WIDTH-1:0] wdata, output [WIDTH-1:0] rdata, output full, empty );
Using a standard interface allows your custom Verilog module to "talk" to a CPU (like a RISC-V or ARM core) seamlessly. Implementation Logic
module clock_gated_reg ( input clk, en, d, output reg q );
// Interface IP core interface u_interface ( .clk (clk), .rst (rst), .data_bus (data_bus) );
To optimize for speed and throughput, designers use techniques that allow multiple instructions or data packets to be processed simultaneously: