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////////////////////////////////////////////////////////////////////////////
// SPDX-FileCopyrightText: 2021 , Dinesh Annayya
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
// SPDX-License-Identifier: Apache-2.0
// SPDX-FileContributor: Modified by Dinesh Annayya <dinesha@opencores.org>
//////////////////////////////////////////////////////////////////////
//// ////
//// Standalone User validation Test bench ////
//// ////
//// This file is part of the YIFive cores project ////
//// https://github.com/dineshannayya/yifive_r0.git ////
//// http://www.opencores.org/cores/yifive/ ////
//// ////
//// Description ////
//// This is a standalone test bench to validate the ////
//// sspi interfaface through External WB i/F. ////
//// ////
//// To Do: ////
//// nothing ////
//// ////
//// Author(s): ////
//// - Dinesh Annayya, dinesha@opencores.org ////
//// ////
//// Revision : ////
//// 0.1 - 01 Oct 2021, Dinesh A ////
//// ////
//////////////////////////////////////////////////////////////////////
//// ////
//// Copyright (C) 2000 Authors and OPENCORES.ORG ////
//// ////
//// This source file may be used and distributed without ////
//// restriction provided that this copyright statement is not ////
//// removed from the file and that any derivative work contains ////
//// the original copyright notice and the associated disclaimer. ////
//// ////
//// This source file is free software; you can redistribute it ////
//// and/or modify it under the terms of the GNU Lesser General ////
//// Public License as published by the Free Software Foundation; ////
//// either version 2.1 of the License, or (at your option) any ////
//// later version. ////
//// ////
//// This source is distributed in the hope that it will be ////
//// useful, but WITHOUT ANY WARRANTY; without even the implied ////
//// warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR ////
//// PURPOSE. See the GNU Lesser General Public License for more ////
//// details. ////
//// ////
//// You should have received a copy of the GNU Lesser General ////
//// Public License along with this source; if not, download it ////
//// from http://www.opencores.org/lgpl.shtml ////
//// ////
//////////////////////////////////////////////////////////////////////
`default_nettype wire
`timescale 1 ns/1 ps
`include "sram_macros/sky130_sram_2kbyte_1rw1r_32x512_8.v"
`include "is62wvs1288.v"
`define TB_GLBL user_sspi_tb
module user_sspi_tb;
parameter real CLK1_PERIOD = 20; // 50Mhz
parameter real CLK2_PERIOD = 2.5;
parameter real IPLL_PERIOD = 5.008;
parameter real XTAL_PERIOD = 6;
`include "user_tasks.sv"
reg [1:0] spi_chip_no;
`ifdef WFDUMP
initial begin
$dumpfile("simx.vcd");
$dumpvars(5, user_sspi_tb);
end
`endif
initial begin
$dumpon;
init();
#200; // Wait for reset removal
repeat (10) @(posedge clock);
$display("Monitor: Standalone User Risc Boot Test Started");
// Remove Wb Reset
//wb_user_core_write(`ADDR_SPACE_WBHOST+`WBHOST_GLBL_CFG,'h1);
// Enable SPI Multi Functional Ports
// wire cfg_spim_enb = cfg_multi_func_sel[10];
// wire [3:0] cfg_spim_cs_enb = cfg_multi_func_sel[14:11];
wb_user_core_write(`ADDR_SPACE_GLBL+`GLBL_CFG_MUTI_FUNC,'h7C00);
repeat (2) @(posedge clock);
#1;
// Remove the reset
// Remove WB and SPI/UART Reset, Keep CORE under Reset
wb_user_core_write(`ADDR_SPACE_GLBL+`GLBL_CFG_CFG0,'h01F);
test_fail = 0;
sspi_init();
repeat (200) @(posedge clock);
wb_user_core_write(`ADDR_SPACE_WBHOST+`WBHOST_BANK_SEL,'h1000); // Change the Bank Sel 1000
$display("############################################");
$display(" Testing IS62/65WVS1288GALL SSRAM[0] Read/Write Access ");
$display("############################################");
// SSPI Indirect RAM READ ACCESS-
// Byte Read Option
// <Instr:0x3> <Addr:24Bit Address> <Read Data Out>
spi_chip_no = 2'b00; // Select the Chip Select to zero
sspi_dw_read_check(8'h03,24'h0000,32'h03020100);
sspi_dw_read_check(8'h03,24'h0004,32'h07060504);
sspi_dw_read_check(8'h03,24'h0008,32'h0b0a0908);
sspi_dw_read_check(8'h03,24'h000C,32'h0f0e0d0c);
sspi_dw_read_check(8'h03,24'h0010,32'h13121110);
sspi_dw_read_check(8'h03,24'h0014,32'h17161514);
sspi_dw_read_check(8'h03,24'h0018,32'h1B1A1918);
sspi_dw_read_check(8'h03,24'h001C,32'h1F1E1D1C);
sspi_dw_read_check(8'h03,24'h0040,32'h43424140);
sspi_dw_read_check(8'h03,24'h0044,32'h47464544);
sspi_dw_read_check(8'h03,24'h0048,32'h4B4A4948);
sspi_dw_read_check(8'h03,24'h004C,32'h4F4E4D4C);
sspi_dw_read_check(8'h03,24'h00a0,32'ha3a2a1a0);
sspi_dw_read_check(8'h03,24'h00a4,32'ha7a6a5a4);
sspi_dw_read_check(8'h03,24'h00a8,32'habaaa9a8);
sspi_dw_read_check(8'h03,24'h00aC,32'hafaeadac);
sspi_dw_read_check(8'h03,24'h0200,32'h11111111);
sspi_dw_read_check(8'h03,24'h0204,32'h22222222);
sspi_dw_read_check(8'h03,24'h0208,32'h33333333);
sspi_dw_read_check(8'h03,24'h020C,32'h44444444);
// SPI Write
sspi_dw_write(8'h02,24'h0000,32'h00112233);
sspi_dw_write(8'h02,24'h0004,32'h44556677);
sspi_dw_write(8'h02,24'h0008,32'h8899AABB);
sspi_dw_write(8'h02,24'h000C,32'hCCDDEEFF);
sspi_dw_write(8'h02,24'h0200,32'h11223344);
sspi_dw_write(8'h02,24'h0204,32'h55667788);
sspi_dw_write(8'h02,24'h0208,32'h99AABBCC);
sspi_dw_write(8'h02,24'h020C,32'hDDEEFF00);
// SPI Read Check
sspi_dw_read_check(8'h03,24'h0000,32'h00112233);
sspi_dw_read_check(8'h03,24'h0004,32'h44556677);
sspi_dw_read_check(8'h03,24'h0008,32'h8899AABB);
sspi_dw_read_check(8'h03,24'h000C,32'hCCDDEEFF);
sspi_dw_read_check(8'h03,24'h0200,32'h11223344);
sspi_dw_read_check(8'h03,24'h0204,32'h55667788);
sspi_dw_read_check(8'h03,24'h0208,32'h99AABBCC);
sspi_dw_read_check(8'h03,24'h020C,32'hDDEEFF00);
$display("############################################");
$display(" Testing IS62/65WVS1288GALL SSRAM[1] Read/Write Access ");
$display("############################################");
// SSPI Indirect RAM READ ACCESS-
// Byte Read Option
// <Instr:0x3> <Addr:24Bit Address> <Read Data Out>
spi_chip_no = 2'b01; // Select the Chip Select to zero
sspi_dw_read_check(8'h03,24'h0000,32'h13121110);
sspi_dw_read_check(8'h03,24'h0004,32'h17161514);
sspi_dw_read_check(8'h03,24'h0008,32'h1B1A1918);
sspi_dw_read_check(8'h03,24'h000C,32'h1F1E1D1C);
sspi_dw_read_check(8'h03,24'h0010,32'h23222120);
sspi_dw_read_check(8'h03,24'h0014,32'h27262524);
sspi_dw_read_check(8'h03,24'h0018,32'h2B2A2928);
sspi_dw_read_check(8'h03,24'h001C,32'h2F2E2D2C);
sspi_dw_read_check(8'h03,24'h0020,32'h33323130);
sspi_dw_read_check(8'h03,24'h0024,32'h37363534);
sspi_dw_read_check(8'h03,24'h0028,32'h3B3A3938);
sspi_dw_read_check(8'h03,24'h002C,32'h3F3E3D3C);
sspi_dw_read_check(8'h03,24'h0030,32'h43424140);
sspi_dw_read_check(8'h03,24'h0034,32'h47464544);
sspi_dw_read_check(8'h03,24'h0038,32'h4B4A4948);
sspi_dw_read_check(8'h03,24'h003C,32'h4F4E4D4C);
sspi_dw_read_check(8'h03,24'h00a0,32'hb3b2b1b0);
sspi_dw_read_check(8'h03,24'h00a4,32'hb7b6b5b4);
sspi_dw_read_check(8'h03,24'h00a8,32'hbbbab9b8);
sspi_dw_read_check(8'h03,24'h00aC,32'hbfbebdbc);
sspi_dw_read_check(8'h03,24'h0200,32'h22222222);
sspi_dw_read_check(8'h03,24'h0204,32'h33333333);
sspi_dw_read_check(8'h03,24'h0208,32'h44444444);
sspi_dw_read_check(8'h03,24'h020C,32'h55555555);
// SPI Write
sspi_dw_write(8'h02,24'h0000,32'h00112233);
sspi_dw_write(8'h02,24'h0004,32'h44556677);
sspi_dw_write(8'h02,24'h0008,32'h8899AABB);
sspi_dw_write(8'h02,24'h000C,32'hCCDDEEFF);
sspi_dw_write(8'h02,24'h0200,32'h11223344);
sspi_dw_write(8'h02,24'h0204,32'h55667788);
sspi_dw_write(8'h02,24'h0208,32'h99AABBCC);
sspi_dw_write(8'h02,24'h020C,32'hDDEEFF00);
// SPI Read Check
sspi_dw_read_check(8'h03,24'h0000,32'h00112233);
sspi_dw_read_check(8'h03,24'h0004,32'h44556677);
sspi_dw_read_check(8'h03,24'h0008,32'h8899AABB);
sspi_dw_read_check(8'h03,24'h000C,32'hCCDDEEFF);
sspi_dw_read_check(8'h03,24'h0200,32'h11223344);
sspi_dw_read_check(8'h03,24'h0204,32'h55667788);
sspi_dw_read_check(8'h03,24'h0208,32'h99AABBCC);
sspi_dw_read_check(8'h03,24'h020C,32'hDDEEFF00);
$display("############################################");
$display(" Testing IS62/65WVS1288GALL SSRAM[2] Read/Write Access ");
$display("############################################");
// SSPI Indirect RAM READ ACCESS-
// Byte Read Option
// <Instr:0x3> <Addr:24Bit Address> <Read Data Out>
spi_chip_no = 2'b10; // Select the Chip Select to zero
sspi_dw_read_check(8'h03,24'h0000,32'h23222120);
sspi_dw_read_check(8'h03,24'h0004,32'h27262524);
sspi_dw_read_check(8'h03,24'h0008,32'h2b2a2928);
sspi_dw_read_check(8'h03,24'h000C,32'h2f2e2d2c);
sspi_dw_read_check(8'h03,24'h0010,32'h33323130);
sspi_dw_read_check(8'h03,24'h0014,32'h37363534);
sspi_dw_read_check(8'h03,24'h0018,32'h3B3A3938);
sspi_dw_read_check(8'h03,24'h001C,32'h3F3E3D3C);
sspi_dw_read_check(8'h03,24'h0020,32'h43424140);
sspi_dw_read_check(8'h03,24'h0024,32'h47464544);
sspi_dw_read_check(8'h03,24'h0028,32'h4B4A4948);
sspi_dw_read_check(8'h03,24'h002C,32'h4F4E4D4C);
sspi_dw_read_check(8'h03,24'h0030,32'h53525150);
sspi_dw_read_check(8'h03,24'h0034,32'h57565554);
sspi_dw_read_check(8'h03,24'h0038,32'h5B5A5958);
sspi_dw_read_check(8'h03,24'h003C,32'h5F5E5D5C);
sspi_dw_read_check(8'h03,24'h0040,32'h63626160);
sspi_dw_read_check(8'h03,24'h0044,32'h67666564);
sspi_dw_read_check(8'h03,24'h0048,32'h6B6A6968);
sspi_dw_read_check(8'h03,24'h004C,32'h6F6E6D6C);
sspi_dw_read_check(8'h03,24'h00a0,32'hc3c2c1c0);
sspi_dw_read_check(8'h03,24'h00a4,32'hc7c6c5c4);
sspi_dw_read_check(8'h03,24'h00a8,32'hcbcac9c8);
sspi_dw_read_check(8'h03,24'h00aC,32'hcfcecdcc);
sspi_dw_read_check(8'h03,24'h0200,32'h33333333);
sspi_dw_read_check(8'h03,24'h0204,32'h44444444);
sspi_dw_read_check(8'h03,24'h0208,32'h55555555);
sspi_dw_read_check(8'h03,24'h020C,32'h66666666);
// SPI Write
sspi_dw_write(8'h02,24'h0000,32'h00112233);
sspi_dw_write(8'h02,24'h0004,32'h44556677);
sspi_dw_write(8'h02,24'h0008,32'h8899AABB);
sspi_dw_write(8'h02,24'h000C,32'hCCDDEEFF);
sspi_dw_write(8'h02,24'h0200,32'h11223344);
sspi_dw_write(8'h02,24'h0204,32'h55667788);
sspi_dw_write(8'h02,24'h0208,32'h99AABBCC);
sspi_dw_write(8'h02,24'h020C,32'hDDEEFF00);
// SPI Read Check
sspi_dw_read_check(8'h03,24'h0000,32'h00112233);
sspi_dw_read_check(8'h03,24'h0004,32'h44556677);
sspi_dw_read_check(8'h03,24'h0008,32'h8899AABB);
sspi_dw_read_check(8'h03,24'h000C,32'hCCDDEEFF);
sspi_dw_read_check(8'h03,24'h0200,32'h11223344);
sspi_dw_read_check(8'h03,24'h0204,32'h55667788);
sspi_dw_read_check(8'h03,24'h0208,32'h99AABBCC);
sspi_dw_read_check(8'h03,24'h020C,32'hDDEEFF00);
$display("############################################");
$display(" Testing IS62/65WVS1288GALL SSRAM[3] Read/Write Access ");
$display("############################################");
// SSPI Indirect RAM READ ACCESS-
// Byte Read Option
// <Instr:0x3> <Addr:24Bit Address> <Read Data Out>
spi_chip_no = 2'b11; // Select the Chip Select to zero
sspi_dw_read_check(8'h03,24'h0000,32'h33323130);
sspi_dw_read_check(8'h03,24'h0004,32'h37363534);
sspi_dw_read_check(8'h03,24'h0008,32'h3b3a3938);
sspi_dw_read_check(8'h03,24'h000C,32'h3f3e3d3c);
sspi_dw_read_check(8'h03,24'h0010,32'h43424140);
sspi_dw_read_check(8'h03,24'h0014,32'h47464544);
sspi_dw_read_check(8'h03,24'h0018,32'h4B4A4948);
sspi_dw_read_check(8'h03,24'h001C,32'h4F4E4D4C);
sspi_dw_read_check(8'h03,24'h0020,32'h53525150);
sspi_dw_read_check(8'h03,24'h0024,32'h57565554);
sspi_dw_read_check(8'h03,24'h0028,32'h5B5A5958);
sspi_dw_read_check(8'h03,24'h002C,32'h5F5E5D5C);
sspi_dw_read_check(8'h03,24'h00a0,32'hd3d2d1d0);
sspi_dw_read_check(8'h03,24'h00a4,32'hd7d6d5d4);
sspi_dw_read_check(8'h03,24'h00a8,32'hdbdad9d8);
sspi_dw_read_check(8'h03,24'h00aC,32'hdfdedddc);
sspi_dw_read_check(8'h03,24'h0200,32'h44444444);
sspi_dw_read_check(8'h03,24'h0204,32'h55555555);
sspi_dw_read_check(8'h03,24'h0208,32'h66666666);
sspi_dw_read_check(8'h03,24'h020C,32'h77777777);
// SPI Write
sspi_dw_write(8'h02,24'h0000,32'h00112233);
sspi_dw_write(8'h02,24'h0004,32'h44556677);
sspi_dw_write(8'h02,24'h0008,32'h8899AABB);
sspi_dw_write(8'h02,24'h000C,32'hCCDDEEFF);
sspi_dw_write(8'h02,24'h0200,32'h11223344);
sspi_dw_write(8'h02,24'h0204,32'h55667788);
sspi_dw_write(8'h02,24'h0208,32'h99AABBCC);
sspi_dw_write(8'h02,24'h020C,32'hDDEEFF00);
// SPI Read Check
sspi_dw_read_check(8'h03,24'h0000,32'h00112233);
sspi_dw_read_check(8'h03,24'h0004,32'h44556677);
sspi_dw_read_check(8'h03,24'h0008,32'h8899AABB);
sspi_dw_read_check(8'h03,24'h000C,32'hCCDDEEFF);
sspi_dw_read_check(8'h03,24'h0200,32'h11223344);
sspi_dw_read_check(8'h03,24'h0204,32'h55667788);
sspi_dw_read_check(8'h03,24'h0208,32'h99AABBCC);
sspi_dw_read_check(8'h03,24'h020C,32'hDDEEFF00);
repeat (100) @(posedge clock);
// $display("+1000 cycles");
if(test_fail == 0) begin
`ifdef GL
$display("Monitor: %m (GL) Passed");
`else
$display("Monitor: %m (RTL) Passed");
`endif
end else begin
`ifdef GL
$display("Monitor: %m (GL) Failed");
`else
$display("Monitor: %m (RTL) Failed");
`endif
end
$display("###################################################");
$finish;
end
// SSPI Slave I/F
assign io_in[5] = 1'b1; // RESET
`ifndef GL // Drive Power for Hold Fix Buf
// All standard cell need power hook-up for functionality work
initial begin
end
`endif
//------------------------------------------------------
// Integrate the Serial flash with quad support to
// user core using the gpio pads
// ----------------------------------------------------
wire flash_io1;
wire flash_clk = (io_oeb[21] == 1'b0) ? io_out[21] : 1'b0;
tri #1 flash_io0 = (io_oeb[20] == 1'b0) ? io_out[20] : 1'b0;
assign io_in[19] = (io_oeb[19] == 1'b1) ? flash_io1 : 1'b0;
tri #1 flash_io2 = 1'b1;
tri #1 flash_io3 = 1'b1;
wire spiram_csb0 = (io_oeb[18] == 1'b0) ? io_out[18] : 1'b0;
is62wvs1288 #(.mem_file_name("flash0.hex"))
u_sfram_0 (
// Data Inputs/Outputs
.io0 (flash_io0),
.io1 (flash_io1),
// Controls
.clk (flash_clk),
.csb (spiram_csb0),
.io2 (flash_io2),
.io3 (flash_io3)
);
wire spiram_csb1 = (io_oeb[17] == 1'b0) ? io_out[17] : 1'b0;
is62wvs1288 #(.mem_file_name("flash1.hex"))
u_sfram_1 (
// Data Inputs/Outputs
.io0 (flash_io0),
.io1 (flash_io1),
// Controls
.clk (flash_clk),
.csb (spiram_csb1),
.io2 (flash_io2),
.io3 (flash_io3)
);
wire spiram_csb2 = (io_oeb[14] == 1'b0) ? io_out[14] : 1'b0;
is62wvs1288 #(.mem_file_name("flash2.hex"))
u_sfram_2 (
// Data Inputs/Outputs
.io0 (flash_io0),
.io1 (flash_io1),
// Controls
.clk (flash_clk),
.csb (spiram_csb2),
.io2 (flash_io2),
.io3 (flash_io3)
);
wire spiram_csb3 = (io_oeb[13] == 1'b0) ? io_out[13] : 1'b0;
is62wvs1288 #(.mem_file_name("flash3.hex"))
u_sfram_3 (
// Data Inputs/Outputs
.io0 (flash_io0),
.io1 (flash_io1),
// Controls
.clk (flash_clk),
.csb (spiram_csb3),
.io2 (flash_io2),
.io3 (flash_io3)
);
//----------------------------------------------------
// Task
// --------------------------------------------------
task test_err;
begin
test_fail = 1;
end
endtask
`include "sspi_task.v"
endmodule
`default_nettype wire