initial commit, add dds_par module

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2024-01-15 09:36:08 +08:00
commit 315a673005
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####################################################################################
## Copyright (c) 2018 - 2023 Analog Devices, Inc.
### SPDX short identifier: BSD-1-Clause
## Auto-generated, do not modify!
####################################################################################
LIBRARY_NAME := axi_dacfifo
XILINX_DEPS += ../../common/ad_axis_inf_rx.v
XILINX_DEPS += ../../common/ad_b2g.v
XILINX_DEPS += ../../common/ad_g2b.v
XILINX_DEPS += ../../common/ad_mem.v
XILINX_DEPS += ../../common/ad_mem_asym.v
XILINX_DEPS += ../../util_dacfifo/util_dacfifo_bypass.v
XILINX_DEPS += axi_dacfifo.v
XILINX_DEPS += axi_dacfifo_address_buffer.v
XILINX_DEPS += axi_dacfifo_constr.xdc
XILINX_DEPS += axi_dacfifo_ip.tcl
XILINX_DEPS += axi_dacfifo_rd.v
XILINX_DEPS += axi_dacfifo_wr.v
include ../../scripts/library.mk
@@ -0,0 +1,282 @@
// ***************************************************************************
// ***************************************************************************
// Copyright (C) 2014-2023 Analog Devices, Inc. All rights reserved.
//
// In this HDL repository, there are many different and unique modules, consisting
// of various HDL (Verilog or VHDL) components. The individual modules are
// developed independently, and may be accompanied by separate and unique license
// terms.
//
// The user should read each of these license terms, and understand the
// freedoms and responsibilities that he or she has by using this source/core.
//
// This core 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.
//
// Redistribution and use of source or resulting binaries, with or without modification
// of this file, are permitted under one of the following two license terms:
//
// 1. The GNU General Public License version 2 as published by the
// Free Software Foundation, which can be found in the top level directory
// of this repository (LICENSE_GPL2), and also online at:
// <https://www.gnu.org/licenses/old-licenses/gpl-2.0.html>
//
// OR
//
// 2. An ADI specific BSD license, which can be found in the top level directory
// of this repository (LICENSE_ADIBSD), and also on-line at:
// https://github.com/analogdevicesinc/hdl/blob/master/LICENSE_ADIBSD
// This will allow to generate bit files and not release the source code,
// as long as it attaches to an ADI device.
//
// ***************************************************************************
// ***************************************************************************
`timescale 1ns/100ps
module axi_dacfifo #(
parameter DAC_DATA_WIDTH = 64,
parameter DMA_DATA_WIDTH = 64,
parameter AXI_DATA_WIDTH = 512,
parameter AXI_SIZE = 2,
parameter AXI_LENGTH = 15,
parameter AXI_ADDRESS = 32'h00000000,
parameter AXI_ADDRESS_LIMIT = 32'hffffffff
) (
// dma interface (AXI Stream)
input dma_clk,
input dma_rst,
input dma_valid,
input [(DMA_DATA_WIDTH-1):0] dma_data,
output reg dma_ready,
input dma_xfer_req,
input dma_xfer_last,
// dac interface
input dac_clk,
input dac_rst,
input dac_valid,
output reg [(DAC_DATA_WIDTH-1):0] dac_data,
output reg dac_dunf,
output reg dac_xfer_out,
input bypass,
// axi interface
input axi_clk,
input axi_resetn,
output axi_awvalid,
output [ 3:0] axi_awid,
output [ 1:0] axi_awburst,
output axi_awlock,
output [ 3:0] axi_awcache,
output [ 2:0] axi_awprot,
output [ 3:0] axi_awqos,
output [ 7:0] axi_awlen,
output [ 2:0] axi_awsize,
output [ 31:0] axi_awaddr,
input axi_awready,
output axi_wvalid,
output [(AXI_DATA_WIDTH-1):0] axi_wdata,
output [(AXI_DATA_WIDTH/8-1):0] axi_wstrb,
output axi_wlast,
input axi_wready,
input axi_bvalid,
input [ 3:0] axi_bid,
input [ 1:0] axi_bresp,
output axi_bready,
output axi_arvalid,
output [ 3:0] axi_arid,
output [ 1:0] axi_arburst,
output axi_arlock,
output [ 3:0] axi_arcache,
output [ 2:0] axi_arprot,
output [ 3:0] axi_arqos,
output [ 7:0] axi_arlen,
output [ 2:0] axi_arsize,
output [ 31:0] axi_araddr,
input axi_arready,
input axi_rvalid,
input [ 3:0] axi_rid,
input [ 1:0] axi_rresp,
input axi_rlast,
input [(AXI_DATA_WIDTH-1):0] axi_rdata,
output axi_rready
);
localparam FIFO_BYPASS = (DAC_DATA_WIDTH == DMA_DATA_WIDTH) ? 1 : 0;
reg dma_bypass_m1 = 1'b0;
reg dma_bypass = 1'b0;
reg dac_bypass_m1 = 1'b0;
reg dac_bypass = 1'b0;
reg dac_xfer_out_m1 = 1'b0;
reg dac_xfer_out_bypass = 1'b0;
wire axi_xfer_req_s;
(* dont_touch = "true" *) wire [31:0] axi_last_addr_s;
(* dont_touch = "true" *) wire [ 7:0] axi_last_beats_s;
wire [ 3:0] dma_last_beats_s;
wire [(DAC_DATA_WIDTH-1):0] dac_data_fifo_s;
wire [(DAC_DATA_WIDTH-1):0] dac_data_bypass_s;
wire dac_xfer_fifo_out_s;
wire dac_dunf_fifo_s;
wire dac_dunf_bypass_s;
wire dma_ready_wr_s;
axi_dacfifo_wr #(
.AXI_DATA_WIDTH (AXI_DATA_WIDTH),
.DMA_DATA_WIDTH (DMA_DATA_WIDTH),
.AXI_SIZE (AXI_SIZE),
.AXI_LENGTH (AXI_LENGTH),
.AXI_ADDRESS (AXI_ADDRESS),
.AXI_ADDRESS_LIMIT (AXI_ADDRESS_LIMIT),
.DMA_MEM_ADDRESS_WIDTH (12)
) i_wr (
.dma_clk (dma_clk),
.dma_rst (dma_rst),
.dma_data (dma_data),
.dma_ready (dma_ready),
.dma_ready_out (dma_ready_wr_s),
.dma_valid (dma_valid),
.dma_xfer_req (dma_xfer_req),
.dma_xfer_last (dma_xfer_last),
.dma_last_beats (dma_last_beats_s),
.axi_last_addr (axi_last_addr_s),
.axi_last_beats (axi_last_beats_s),
.axi_xfer_out (axi_xfer_req_s),
.axi_clk (axi_clk),
.axi_resetn (axi_resetn),
.axi_awvalid (axi_awvalid),
.axi_awid (axi_awid),
.axi_awburst (axi_awburst),
.axi_awlock (axi_awlock),
.axi_awcache (axi_awcache),
.axi_awprot (axi_awprot),
.axi_awqos (axi_awqos),
.axi_awlen (axi_awlen),
.axi_awsize (axi_awsize),
.axi_awaddr (axi_awaddr),
.axi_awready (axi_awready),
.axi_wvalid (axi_wvalid),
.axi_wdata (axi_wdata),
.axi_wstrb (axi_wstrb),
.axi_wlast (axi_wlast),
.axi_wready (axi_wready),
.axi_bvalid (axi_bvalid),
.axi_bid (axi_bid),
.axi_bresp (axi_bresp),
.axi_bready (axi_bready),
.axi_werror (axi_werror));
axi_dacfifo_rd #(
.AXI_DATA_WIDTH (AXI_DATA_WIDTH),
.AXI_SIZE (AXI_SIZE),
.AXI_LENGTH (AXI_LENGTH),
.AXI_ADDRESS (AXI_ADDRESS),
.DAC_DATA_WIDTH (DAC_DATA_WIDTH),
.DAC_MEM_ADDRESS_WIDTH (12)
) i_rd (
.axi_xfer_req (axi_xfer_req_s),
.axi_last_raddr (axi_last_addr_s),
.axi_last_beats (axi_last_beats_s),
.axi_clk (axi_clk),
.axi_resetn (axi_resetn),
.axi_arvalid (axi_arvalid),
.axi_arid (axi_arid),
.axi_arburst (axi_arburst),
.axi_arlock (axi_arlock),
.axi_arcache (axi_arcache),
.axi_arprot (axi_arprot),
.axi_arqos (axi_arqos),
.axi_arlen (axi_arlen),
.axi_arsize (axi_arsize),
.axi_araddr (axi_araddr),
.axi_arready (axi_arready),
.axi_rvalid (axi_rvalid),
.axi_rid (axi_rid),
.axi_rresp (axi_rresp),
.axi_rlast (axi_rlast),
.axi_rdata (axi_rdata),
.axi_rready (axi_rready),
.axi_rerror (axi_rerror),
.dma_last_beats (dma_last_beats_s),
.dac_clk (dac_clk),
.dac_rst (dac_rst),
.dac_valid (dac_valid),
.dac_data (dac_data_fifo_s),
.dac_xfer_out (dac_xfer_fifo_out_s),
.dac_dunf (dac_dunf_fifo_s));
// bypass logic -- supported if DAC_DATA_WIDTH == DMA_DATA_WIDTH
generate
if (FIFO_BYPASS) begin
util_dacfifo_bypass #(
.DAC_DATA_WIDTH (DAC_DATA_WIDTH),
.DMA_DATA_WIDTH (DMA_DATA_WIDTH)
) i_dacfifo_bypass (
.dma_clk(dma_clk),
.dma_data(dma_data),
.dma_ready(dma_ready),
.dma_ready_out(dma_ready_bypass_s),
.dma_valid(dma_valid),
.dma_xfer_req(dma_xfer_req),
.dac_clk(dac_clk),
.dac_rst(dac_rst),
.dac_valid(dac_valid),
.dac_data(dac_data_bypass_s),
.dac_dunf(dac_dunf_bypass_s));
always @(posedge dma_clk) begin
dma_bypass_m1 <= bypass;
dma_bypass <= dma_bypass_m1;
end
always @(posedge dac_clk) begin
dac_bypass_m1 <= bypass;
dac_bypass <= dac_bypass_m1;
dac_xfer_out_m1 <= dma_xfer_req;
dac_xfer_out_bypass <= dac_xfer_out_m1;
end
// mux for the dma_ready
always @(posedge dma_clk) begin
dma_ready <= (dma_bypass) ? dma_ready_bypass_s : dma_ready_wr_s;
end
// mux for dac data
always @(posedge dac_clk) begin
if (dac_valid) begin
dac_data <= (dac_bypass) ? dac_data_bypass_s : dac_data_fifo_s;
end
dac_xfer_out <= (dac_bypass) ? dac_xfer_out_bypass : dac_xfer_fifo_out_s;
dac_dunf <= (dac_bypass) ? dac_dunf_bypass_s : dac_dunf_fifo_s;
end
end else begin /* if (~FIFO_BYPASS) */
always @(posedge dma_clk) begin
dma_ready <= dma_ready_wr_s;
end
always @(posedge dac_clk) begin
if (dac_valid) begin
dac_data <= dac_data_fifo_s;
end
dac_xfer_out <= dac_xfer_fifo_out_s;
dac_dunf <= dac_dunf_fifo_s;
end
end
endgenerate
endmodule
@@ -0,0 +1,468 @@
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<MsgAttr Name="Id" Val="Designutils 20-3303"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="10"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
<MsgAttr Name="StringsToMatch" Val="HDPYFinalizeIO"/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="WARNING"/>
<MsgAttr Name="Id" Val="Place 30-73"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="11"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
<MsgAttr Name="StringsToMatch" Val="axi_spi"/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="WARNING"/>
<MsgAttr Name="Id" Val=""/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="12"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
<MsgAttr Name="StringsToMatch" Val="PCW_UIPARAM_DDR_DQS_TO_CLK_DELAY"/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="WARNING"/>
<MsgAttr Name="Id" Val="BD 41-1343"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="2"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="WARNING"/>
<MsgAttr Name="Id" Val="BD 41-1306"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="3"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="ERROR"/>
<MsgAttr Name="Id" Val="BD 41-1276"/>
<MsgAttr Name="Severity" Val="CRITICAL WARNING"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="4"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="INFO"/>
<MsgAttr Name="Id" Val="IP_Flow 19-3656"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="5"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="INFO"/>
<MsgAttr Name="Id" Val="IP_Flow 19-4623"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="6"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="INFO"/>
<MsgAttr Name="Id" Val="IP_Flow 19-459"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="7"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="INFO"/>
<MsgAttr Name="Id" Val="Synth 8-3331"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="8"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<MsgRule>
<MsgAttr Name="RuleType" Val="1"/>
<MsgAttr Name="Limit" Val="-1"/>
<MsgAttr Name="NewSeverity" Val="WARNING"/>
<MsgAttr Name="Id" Val="Synth 8-2490"/>
<MsgAttr Name="Severity" Val="ANY"/>
<MsgAttr Name="ShowRule" Val="1"/>
<MsgAttr Name="RuleSource" Val="2"/>
<MsgAttr Name="StringIsRegExp" Val="0"/>
<MsgAttr Name="RuleId" Val="9"/>
<MsgAttr Name="Note" Val=""/>
<MsgAttr Name="Author" Val=""/>
<MsgAttr Name="CreatedTimestamp" Val=""/>
</MsgRule>
<Board/>
<DashboardSummary Version="1" Minor="0">
<Dashboards>
<Dashboard Name="default_dashboard">
<Gadgets>
<Gadget Name="drc_1" Type="drc" Version="1" Row="2" Column="0">
<GadgetParam Name="REPORTS" Type="string_list" Value="impl_1#impl_1_route_report_drc_0 "/>
</Gadget>
<Gadget Name="methodology_1" Type="methodology" Version="1" Row="2" Column="1">
<GadgetParam Name="REPORTS" Type="string_list" Value="impl_1#impl_1_route_report_methodology_0 "/>
</Gadget>
<Gadget Name="power_1" Type="power" Version="1" Row="1" Column="0">
<GadgetParam Name="REPORTS" Type="string_list" Value="impl_1#impl_1_route_report_power_0 "/>
</Gadget>
<Gadget Name="timing_1" Type="timing" Version="1" Row="0" Column="1">
<GadgetParam Name="REPORTS" Type="string_list" Value="impl_1#impl_1_route_report_timing_summary_0 "/>
</Gadget>
<Gadget Name="utilization_1" Type="utilization" Version="1" Row="0" Column="0">
<GadgetParam Name="REPORTS" Type="string_list" Value="synth_1#synth_1_synth_report_utilization_0 "/>
<GadgetParam Name="RUN.STEP" Type="string" Value="synth_design"/>
<GadgetParam Name="RUN.TYPE" Type="string" Value="synthesis"/>
</Gadget>
<Gadget Name="utilization_2" Type="utilization" Version="1" Row="1" Column="1">
<GadgetParam Name="REPORTS" Type="string_list" Value="impl_1#impl_1_place_report_utilization_0 "/>
</Gadget>
</Gadgets>
</Dashboard>
<CurrentDashboard>default_dashboard</CurrentDashboard>
</Dashboards>
</DashboardSummary>
</Project>
@@ -0,0 +1,78 @@
// ***************************************************************************
// ***************************************************************************
// Copyright (C) 2014-2023 Analog Devices, Inc. All rights reserved.
//
// In this HDL repository, there are many different and unique modules, consisting
// of various HDL (Verilog or VHDL) components. The individual modules are
// developed independently, and may be accompanied by separate and unique license
// terms.
//
// The user should read each of these license terms, and understand the
// freedoms and responsibilities that he or she has by using this source/core.
//
// This core 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.
//
// Redistribution and use of source or resulting binaries, with or without modification
// of this file, are permitted under one of the following two license terms:
//
// 1. The GNU General Public License version 2 as published by the
// Free Software Foundation, which can be found in the top level directory
// of this repository (LICENSE_GPL2), and also online at:
// <https://www.gnu.org/licenses/old-licenses/gpl-2.0.html>
//
// OR
//
// 2. An ADI specific BSD license, which can be found in the top level directory
// of this repository (LICENSE_ADIBSD), and also on-line at:
// https://github.com/analogdevicesinc/hdl/blob/master/LICENSE_ADIBSD
// This will allow to generate bit files and not release the source code,
// as long as it attaches to an ADI device.
//
// ***************************************************************************
// ***************************************************************************
`timescale 1ns/100ps
module axi_dacfifo_address_buffer #(
parameter ADDRESS_WIDTH = 4,
parameter DATA_WIDTH = 16
) (
input clk,
input rst,
input wea,
input [DATA_WIDTH-1:0] din,
input rea,
output [DATA_WIDTH-1:0] dout
);
reg [ADDRESS_WIDTH-1:0] waddr;
reg [ADDRESS_WIDTH-1:0] raddr;
always @(posedge clk) begin
if (rst == 1'b1) begin
waddr <= 0;
raddr <= 0;
end else begin
waddr <= (wea == 1'b1) ? waddr + 1'b1 : waddr;
raddr <= (rea == 1'b1) ? raddr + 1'b1 : raddr;
end
end
ad_mem #(
.DATA_WIDTH (DATA_WIDTH),
.ADDRESS_WIDTH (ADDRESS_WIDTH)
) i_mem (
.clka (clk),
.wea (wea),
.addra (waddr),
.dina (din),
.clkb (clk),
.reb (1'b1),
.addrb (raddr),
.doutb (dout));
endmodule
@@ -0,0 +1,57 @@
###############################################################################
## Copyright (C) 2016-2023 Analog Devices, Inc. All rights reserved.
### SPDX short identifier: ADIBSD
###############################################################################
set_property ASYNC_REG TRUE \
[get_cells -hier *dma_mem_*_m*] \
[get_cells -hier *axi_xfer_*_m*] \
[get_cells -hier *axi_mem_*_m*] \
[get_cells -hier *axi_dma_*_m*] \
[get_cells -hier *dac_mem_*_m*] \
[get_cells -hier *dac_xfer_*_m*] \
[get_cells -hier *dac_last_*_m*] \
[get_cells -hier *dac_bypass_m*]
# AXI clk to DMA clk
set_false_path -from [get_cells -hier -filter {name =~ */axi_mem_raddr_g* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dma_mem_raddr_m1* && IS_SEQUENTIAL}]
set_false_path -from [get_cells -hier -filter {name =~ */axi_mem_last_read_toggle* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dma_mem_last_read_toggle_m_* && IS_SEQUENTIAL}]
# DAC clk to DMA clk
set_false_path -from [get_cells -hier -filter {name =~ */dac_mem_raddr_g* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dma_mem_raddr_m1_* && IS_SEQUENTIAL}]
set_false_path -to [get_cells -hier -filter {name =~ */dma_rst_m1_reg && IS_SEQUENTIAL}]
# DMA clk to AXI clk
set_false_path -from [get_cells -hier -filter {name =~ */dma_last_beats* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */axi_dma_last_beats_m1* && IS_SEQUENTIAL}]
set_false_path -from [get_cells -hier -filter {name =~ */dma_mem_waddr_g* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */axi_mem_waddr_m1* && IS_SEQUENTIAL}]
#ignore timing only on the data, the synchronous reset of the FF is connected to the same clock domain
set_false_path -through [get_pins -hier -filter {name =~ */axi_xfer_req_m_reg[0]/D}]
# DAC clk to AXI clk
set_false_path -from [get_cells -hier -filter {name =~ */dac_mem_raddr_g* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */axi_mem_raddr_m1* && IS_SEQUENTIAL}]
# DMA clk to DAC clk
set_false_path -from [get_cells -hier -filter {name =~ */dma_mem_waddr_g* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dac_mem_waddr_m1* && IS_SEQUENTIAL}]
set_false_path -from [get_cells -hier -filter {name =~ */dma_last_beats* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dac_last_beats_m* && IS_SEQUENTIAL}]
#ignore timing only on the data, the synchronous reset of the FF is connected to the same clock domain
set_false_path -through [get_pins -hier -filter {name =~ */dac_xfer_out_m1_reg*/D}]
# AXI clk to DAC clk
set_false_path -from [get_cells -hier -filter {name =~ */axi_mem_laddr* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dac_mem_laddr* && IS_SEQUENTIAL}]
set_false_path -from [get_cells -hier -filter {name =~ */axi_mem_laddr_toggle* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dac_mem_laddr_toggle_m* && IS_SEQUENTIAL}]
set_false_path -from [get_cells -hier -filter {name =~ */axi_mem_waddr_g* && IS_SEQUENTIAL}] \
-to [get_cells -hier -filter {name =~ */dac_mem_waddr_m1* && IS_SEQUENTIAL}]
#ignore timing only on the data, the synchronous reset of the FF is connected to the same clock domain
set_false_path -through [get_pins -hier -filter {name =~ */dac_xfer_req_m_reg[0]/D}]
@@ -0,0 +1,89 @@
###############################################################################
## Copyright (C) 2016-2023 Analog Devices, Inc. All rights reserved.
### SPDX short identifier: ADIBSD
###############################################################################
# ip
source ../../../scripts/adi_env.tcl
source $ad_hdl_dir/library/scripts/adi_ip_xilinx.tcl
adi_ip_create axi_dacfifo
adi_ip_files axi_dacfifo [list \
"$ad_hdl_dir/library/common/ad_g2b.v" \
"$ad_hdl_dir/library/common/ad_b2g.v" \
"$ad_hdl_dir/library/common/ad_mem_asym.v" \
"$ad_hdl_dir/library/common/ad_mem.v" \
"$ad_hdl_dir/library/common/ad_axis_inf_rx.v" \
"$ad_hdl_dir/library/util_dacfifo/util_dacfifo_bypass.v" \
"axi_dacfifo_constr.xdc" \
"axi_dacfifo_wr.v" \
"axi_dacfifo_rd.v" \
"axi_dacfifo_address_buffer.v" \
"axi_dacfifo.v"]
adi_ip_properties_lite axi_dacfifo
ipx::infer_bus_interface {\
axi_awvalid \
axi_awid \
axi_awburst \
axi_awlock \
axi_awcache \
axi_awprot \
axi_awqos \
axi_awlen \
axi_awsize \
axi_awaddr \
axi_awready \
axi_wvalid \
axi_wdata \
axi_wstrb \
axi_wlast \
axi_wready \
axi_bvalid \
axi_bid \
axi_bresp \
axi_bready \
axi_arvalid \
axi_arid \
axi_arburst \
axi_arlock \
axi_arcache \
axi_arprot \
axi_arqos \
axi_arlen \
axi_arsize \
axi_araddr \
axi_arready \
axi_rvalid \
axi_rid \
axi_rresp \
axi_rlast \
axi_rdata \
axi_rready} \
xilinx.com:interface:aximm_rtl:1.0 [ipx::current_core]
ipx::infer_bus_interface axi_clk xilinx.com:signal:clock_rtl:1.0 [ipx::current_core]
ipx::infer_bus_interface axi_resetn xilinx.com:signal:reset_rtl:1.0 [ipx::current_core]
ipx::add_bus_parameter ASSOCIATED_BUSIF [ipx::get_bus_interfaces axi_clk \
-of_objects [ipx::current_core]]
set_property value axi [ipx::get_bus_parameters ASSOCIATED_BUSIF \
-of_objects [ipx::get_bus_interfaces axi_clk \
-of_objects [ipx::current_core]]]
ipx::add_address_space axi [ipx::current_core]
set_property master_address_space_ref axi [ipx::get_bus_interfaces axi \
-of_objects [ipx::current_core]]
set_property range 4294967296 [ipx::get_address_spaces axi \
-of_objects [ipx::current_core]]
set_property width 512 [ipx::get_address_spaces axi \
-of_objects [ipx::current_core]]
ipx::infer_bus_interface dma_clk xilinx.com:signal:clock_rtl:1.0 [ipx::current_core]
ipx::infer_bus_interface dma_rst xilinx.com:signal:reset_rtl:1.0 [ipx::current_core]
ipx::infer_bus_interface dac_clk xilinx.com:signal:clock_rtl:1.0 [ipx::current_core]
ipx::infer_bus_interface dac_rst xilinx.com:signal:reset_rtl:1.0 [ipx::current_core]
ipx::save_core [ipx::current_core]
@@ -0,0 +1,483 @@
// ***************************************************************************
// ***************************************************************************
// Copyright (C) 2014-2023 Analog Devices, Inc. All rights reserved.
//
// In this HDL repository, there are many different and unique modules, consisting
// of various HDL (Verilog or VHDL) components. The individual modules are
// developed independently, and may be accompanied by separate and unique license
// terms.
//
// The user should read each of these license terms, and understand the
// freedoms and responsibilities that he or she has by using this source/core.
//
// This core 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.
//
// Redistribution and use of source or resulting binaries, with or without modification
// of this file, are permitted under one of the following two license terms:
//
// 1. The GNU General Public License version 2 as published by the
// Free Software Foundation, which can be found in the top level directory
// of this repository (LICENSE_GPL2), and also online at:
// <https://www.gnu.org/licenses/old-licenses/gpl-2.0.html>
//
// OR
//
// 2. An ADI specific BSD license, which can be found in the top level directory
// of this repository (LICENSE_ADIBSD), and also on-line at:
// https://github.com/analogdevicesinc/hdl/blob/master/LICENSE_ADIBSD
// This will allow to generate bit files and not release the source code,
// as long as it attaches to an ADI device.
//
// ***************************************************************************
// ***************************************************************************
`timescale 1ns/100ps
module axi_dacfifo_rd #(
parameter AXI_DATA_WIDTH = 512,
parameter AXI_SIZE = 2,
parameter AXI_LENGTH = 15,
parameter AXI_ADDRESS = 32'h00000000,
parameter DAC_DATA_WIDTH = 64,
parameter DAC_MEM_ADDRESS_WIDTH = 8
) (
// xfer last for read/write synchronization
input axi_xfer_req,
input [31:0] axi_last_raddr,
input [ 7:0] axi_last_beats,
// axi read address and read data channels
input axi_clk,
input axi_resetn,
output reg axi_arvalid,
output [ 3:0] axi_arid,
output [ 1:0] axi_arburst,
output axi_arlock,
output [ 3:0] axi_arcache,
output [ 2:0] axi_arprot,
output [ 3:0] axi_arqos,
output [ 7:0] axi_arlen,
output [ 2:0] axi_arsize,
output reg [31:0] axi_araddr,
input axi_arready,
input axi_rvalid,
input [ 3:0] axi_rid,
input [ 1:0] axi_rresp,
input axi_rlast,
input [(AXI_DATA_WIDTH-1):0] axi_rdata,
output reg axi_rready,
// axi status
output reg axi_rerror,
// DAC interface
input [ 3:0] dma_last_beats,
input dac_clk,
input dac_rst,
input dac_valid,
output [(DAC_DATA_WIDTH-1):0] dac_data,
output dac_xfer_out,
output reg dac_dunf
);
`define max(a,b) {(a) > (b) ? (a) : (b)}
`define min(a,b) {(a) < (b) ? (a) : (b)}
localparam AXI_BYTE_WIDTH = AXI_DATA_WIDTH/8;
localparam AXI_ARINCR = (AXI_LENGTH + 1) * AXI_BYTE_WIDTH;
localparam MIN_WIDTH = `min(AXI_DATA_WIDTH, DAC_DATA_WIDTH);
localparam MAX_WIDTH = `max(AXI_DATA_WIDTH, DAC_DATA_WIDTH);
localparam MEM_RATIO = MAX_WIDTH/MIN_WIDTH;
localparam AXI_BIGGER = (MAX_WIDTH == AXI_DATA_WIDTH) ? 1 : 0;
localparam AXI_MEM_ADDRESS_WIDTH = (MEM_RATIO == 1) ? DAC_MEM_ADDRESS_WIDTH :
(MEM_RATIO == 2) ? (DAC_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-1) : 1)) :
(MEM_RATIO == 4) ? (DAC_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-2) : 2)) :
(MEM_RATIO == 8) ? (DAC_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-3) : 3)) :
(DAC_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-4) : 4));
localparam AXI_BUF_THRESHOLD_HI = (AXI_BIGGER) ? (2 * (AXI_LENGTH+1)) : (2 * (AXI_LENGTH+1) * MEM_RATIO);
localparam DAC_BUF_THRESHOLD_HI = (AXI_BIGGER) ? (2 * (AXI_LENGTH+1) * MEM_RATIO) : (2 * (AXI_LENGTH+1));
localparam IDLE = 5'b00001;
localparam XFER_STAGING = 5'b00010;
localparam XFER_FULL_BURST = 5'b00100;
localparam XFER_PARTIAL_BURST = 5'b01000;
localparam XFER_END = 5'b10000;
// internal registers
reg axi_data_req = 1'b0;
reg [ 4:0] axi_read_state = 5'b0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr = 'd0;
(* dont_touch = "true" *) reg [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_laddr = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_g = 'd0;
(* dont_touch = "true" *) reg axi_mem_laddr_toggle = 1'b0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr_m1 = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr_m2 = 'd0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_addr_diff = 'd0;
reg [31:0] axi_araddr_prev = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_raddr = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_raddr_g = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_waddr = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_waddr_m1 = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_waddr_m2 = 'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_laddr = 'd0;
reg [ 3:0] dac_mem_laddr_toggle_m = 4'd0;
reg [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_laddr_b = 'd0;
reg dac_mem_valid = 1'b0;
reg dac_mem_enable = 1'b0;
reg [ 2:0] dac_xfer_req_m = 3'b0;
reg [ 3:0] dac_last_beats = 4'b0;
reg [ 3:0] dac_last_beats_m = 4'b0;
// internal signals
wire axi_fifo_reset_s;
wire axi_dvalid_s;
wire axi_dlast_s;
wire [ AXI_MEM_ADDRESS_WIDTH:0] axi_mem_addr_diff_s;
wire [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_laddr_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_b2g_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr_m2_g2b_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_raddr_b2g_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_waddr_m2_g2b_s;
wire [ DAC_MEM_ADDRESS_WIDTH:0] dac_mem_addr_diff_s;
wire [(DAC_MEM_ADDRESS_WIDTH-1):0] dac_mem_laddr_s;
// Asymmetric memory to transfer data from AXI_MM interface to DAC FIFO
// interface
ad_mem_asym #(
.A_ADDRESS_WIDTH (AXI_MEM_ADDRESS_WIDTH),
.A_DATA_WIDTH (AXI_DATA_WIDTH),
.B_ADDRESS_WIDTH (DAC_MEM_ADDRESS_WIDTH),
.B_DATA_WIDTH (DAC_DATA_WIDTH)
) i_mem_asym (
.clka (axi_clk),
.wea (axi_dvalid_s),
.addra (axi_mem_waddr),
.dina (axi_rdata),
.clkb (dac_clk),
.reb (1'b1),
.addrb (dac_mem_raddr),
.doutb (dac_data));
// reset signals
assign axi_fifo_reset_s = (axi_resetn == 1'b0) || (axi_xfer_req == 1'b0);
assign dac_fifo_reset_s = (dac_rst == 1'b1) || (dac_xfer_req_m[2] == 1'b0);
// FSM to generate the all the AXI Read transactions
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_read_state <= IDLE;
end else begin
case (axi_read_state)
IDLE : begin
if (axi_data_req == 1'b1) begin
axi_read_state <= XFER_STAGING;
end else begin
axi_read_state <= IDLE;
end
end
XFER_STAGING : begin
if (axi_araddr + AXI_ARINCR <= axi_last_raddr) begin
axi_read_state <= XFER_FULL_BURST;
end else begin
axi_read_state <= XFER_PARTIAL_BURST;
end
end
XFER_FULL_BURST : begin
if (axi_rready && axi_rvalid && axi_rlast) begin
if (axi_araddr_prev == axi_last_raddr) begin
axi_read_state <= XFER_END;
end else begin
axi_read_state <= IDLE;
end
end else begin
axi_read_state <= XFER_FULL_BURST;
end
end
XFER_PARTIAL_BURST : begin
if (axi_rready && axi_rvalid && axi_rlast) begin
axi_read_state <= XFER_END;
end else begin
axi_read_state <= XFER_PARTIAL_BURST;
end
end
XFER_END : begin
axi_read_state <= IDLE;
end
default : begin
axi_read_state <= IDLE;
end
endcase
end
end
// AXI read address channel
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_arvalid <= 'd0;
axi_araddr <= AXI_ADDRESS;
axi_araddr_prev <= AXI_ADDRESS;
end else begin
if (axi_arvalid == 1'b1) begin
if (axi_arready == 1'b1) begin
axi_arvalid <= 1'b0;
end
end else begin
if (axi_read_state == XFER_STAGING) begin
axi_arvalid <= 1'b1;
end
end
// AXI read address generation
if ((axi_arvalid == 1'b1) && (axi_arready == 1'b1)) begin
axi_araddr <= (axi_read_state == XFER_FULL_BURST) ? (axi_araddr + AXI_ARINCR) :
(axi_read_state == XFER_PARTIAL_BURST) ? AXI_ADDRESS : axi_araddr;
axi_araddr_prev <= axi_araddr;
end
end
end
assign axi_arid = 4'b0000;
assign axi_arburst = 2'b01;
assign axi_arlock = 1'b0;
assign axi_arcache = 4'b0010;
assign axi_arprot = 3'b000;
assign axi_arqos = 4'b0000;
assign axi_arlen = (axi_read_state == XFER_FULL_BURST) ? AXI_LENGTH :
(axi_read_state == XFER_PARTIAL_BURST) ? axi_last_beats : AXI_LENGTH;
assign axi_arsize = AXI_SIZE;
// AXI read data channel
assign axi_dvalid_s = axi_rvalid & axi_rready & axi_xfer_req;
assign axi_dlast_s = (axi_araddr_prev == axi_last_raddr) ? axi_rlast : 0;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_rready <= 1'b0;
axi_rerror <= 'd0;
end else begin
axi_rready <= axi_rvalid;
axi_rerror <= axi_rvalid & axi_rresp[1];
end
end
// ASYNC MEM write control
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_mem_waddr <= 'd0;
axi_mem_waddr_g <= 'd0;
axi_mem_laddr <= {AXI_MEM_ADDRESS_WIDTH{1'b1}};
axi_mem_laddr_toggle <= 0;
end else begin
if (axi_dvalid_s == 1'b1) begin
axi_mem_waddr <= axi_mem_waddr + 1'b1;
if (axi_dlast_s == 1'b1) begin
axi_mem_laddr <= axi_mem_waddr;
axi_mem_laddr_toggle <= ~axi_mem_laddr_toggle;
end
end
axi_mem_waddr_g <= axi_mem_waddr_b2g_s;
end
end
ad_b2g #(
.DATA_WIDTH(DAC_MEM_ADDRESS_WIDTH)
) i_axi_mem_waddr_b2g (
.din (axi_mem_waddr_s),
.dout (axi_mem_waddr_b2g_s));
assign axi_mem_raddr_s = (MEM_RATIO == 1) ? axi_mem_raddr :
(MEM_RATIO == 2) ? ((AXI_BIGGER == 1) ? axi_mem_raddr[(DAC_MEM_ADDRESS_WIDTH-1):1] : {axi_mem_raddr, 1'b0}) :
(MEM_RATIO == 4) ? ((AXI_BIGGER == 1) ? axi_mem_raddr[(DAC_MEM_ADDRESS_WIDTH-1):2] : {axi_mem_raddr, 2'b0}) :
(MEM_RATIO == 8) ? ((AXI_BIGGER == 1) ? axi_mem_raddr[(DAC_MEM_ADDRESS_WIDTH-1):3] : {axi_mem_raddr, 3'b0}) :
((AXI_BIGGER == 1) ? axi_mem_raddr[(DAC_MEM_ADDRESS_WIDTH-1):4] : {axi_mem_raddr, 4'b0});
assign axi_mem_waddr_s = (MEM_RATIO == 1) ? axi_mem_waddr :
(MEM_RATIO == 2) ? ((AXI_BIGGER == 1) ? {axi_mem_waddr, 1'b0} : axi_mem_waddr[AXI_MEM_ADDRESS_WIDTH-1:1]) :
(MEM_RATIO == 4) ? ((AXI_BIGGER == 1) ? {axi_mem_waddr, 2'b0} : axi_mem_waddr[AXI_MEM_ADDRESS_WIDTH-1:2]) :
(MEM_RATIO == 8) ? ((AXI_BIGGER == 1) ? {axi_mem_waddr, 3'b0} : axi_mem_waddr[AXI_MEM_ADDRESS_WIDTH-1:3]) :
((AXI_BIGGER == 1) ? {axi_mem_waddr, 4'b0} : axi_mem_waddr[AXI_MEM_ADDRESS_WIDTH-1:4]);
assign axi_mem_laddr_s = (MEM_RATIO == 1) ? axi_mem_laddr :
(MEM_RATIO == 2) ? ((AXI_BIGGER == 1) ? {axi_mem_laddr, 1'b0} : axi_mem_laddr[AXI_MEM_ADDRESS_WIDTH-1:1]) :
(MEM_RATIO == 4) ? ((AXI_BIGGER == 1) ? {axi_mem_laddr, 2'b0} : axi_mem_laddr[AXI_MEM_ADDRESS_WIDTH-1:2]) :
(MEM_RATIO == 8) ? ((AXI_BIGGER == 1) ? {axi_mem_laddr, 3'b0} : axi_mem_laddr[AXI_MEM_ADDRESS_WIDTH-1:3]) :
((AXI_BIGGER == 1) ? {axi_mem_laddr, 4'b0} : axi_mem_laddr[AXI_MEM_ADDRESS_WIDTH-1:4]);
assign axi_mem_addr_diff_s = {1'b1, axi_mem_waddr} - axi_mem_raddr_s;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_mem_addr_diff <= 'd0;
axi_mem_raddr <= 'd0;
axi_mem_raddr_m1 <= 'd0;
axi_mem_raddr_m2 <= 'd0;
axi_data_req <= 'd0;
end else begin
axi_mem_raddr_m1 <= dac_mem_raddr_g;
axi_mem_raddr_m2 <= axi_mem_raddr_m1;
axi_mem_raddr <= axi_mem_raddr_m2_g2b_s;
axi_mem_addr_diff <= axi_mem_addr_diff_s[AXI_MEM_ADDRESS_WIDTH-1:0];
// requesting AXI read access from the memory, if there is enough space
// for a full burst in the async buffer
if (axi_mem_addr_diff >= AXI_BUF_THRESHOLD_HI) begin
axi_data_req <= 1'b0;
end else begin
axi_data_req <= 1'b1;
end
end
end
ad_g2b #(
.DATA_WIDTH(DAC_MEM_ADDRESS_WIDTH)
) i_axi_mem_raddr_m2_g2b (
.din (axi_mem_raddr_m2),
.dout (axi_mem_raddr_m2_g2b_s));
// CDC for xfer_req signal
always @(posedge dac_clk) begin
if (dac_rst == 1'b1) begin
dac_xfer_req_m <= 3'b0;
end else begin
dac_xfer_req_m <= {dac_xfer_req_m[1:0], axi_xfer_req};
end
end
assign dac_xfer_out = dac_xfer_req_m[2] & dac_mem_valid;
// CDC for write addresses from the DDRx clock domain
always @(posedge dac_clk) begin
if (dac_fifo_reset_s == 1'b1) begin
dac_mem_waddr <= 'b0;
dac_mem_waddr_m1 <= 'b0;
dac_mem_waddr_m2 <= 'b0;
dac_mem_laddr_toggle_m <= 4'b0;
dac_mem_laddr <= 'b0;
end else begin
dac_mem_waddr_m1 <= axi_mem_waddr_g;
dac_mem_waddr_m2 <= dac_mem_waddr_m1;
dac_mem_waddr <= dac_mem_waddr_m2_g2b_s;
dac_mem_laddr_toggle_m <= {dac_mem_laddr_toggle_m[2:0], axi_mem_laddr_toggle};
dac_mem_laddr <= (dac_mem_laddr_toggle_m[2] ^ dac_mem_laddr_toggle_m[1]) ?
axi_mem_laddr_s :
dac_mem_laddr;
end
end
assign dac_laddr_wea = dac_mem_laddr_toggle_m[3] ^ dac_mem_laddr_toggle_m[2];
assign dac_laddr_rea = ((dac_mem_raddr == dac_mem_laddr_b) &&
(dac_xfer_out == 1'b1)) ? 1'b1 :1'b0;
axi_dacfifo_address_buffer #(
.ADDRESS_WIDTH (4),
.DATA_WIDTH (DAC_MEM_ADDRESS_WIDTH)
) i_laddress_buffer (
.clk (dac_clk),
.rst (dac_fifo_reset_s),
.wea (dac_laddr_wea),
.din (dac_mem_laddr),
.rea (dac_laddr_rea),
.dout (dac_mem_laddr_s));
ad_g2b #(
.DATA_WIDTH(DAC_MEM_ADDRESS_WIDTH)
) i_dac_mem_waddr_m2_g2b (
.din (dac_mem_waddr_m2),
.dout (dac_mem_waddr_m2_g2b_s));
assign dac_mem_addr_diff_s = {1'b1, dac_mem_waddr} - dac_mem_raddr;
// ASYNC MEM read control
always @(posedge dac_clk) begin
if (dac_fifo_reset_s == 1'b1) begin
dac_mem_enable <= 1'b0;
dac_mem_valid <= 1'b0;
end else begin
if (dac_mem_dunf_s == 1'b1) begin
dac_mem_enable <= 1'b0;
end else if (dac_mem_addr_diff_s[(DAC_MEM_ADDRESS_WIDTH-1):0] >= DAC_BUF_THRESHOLD_HI) begin
dac_mem_enable <= 1'b1;
end
dac_mem_valid <= (dac_mem_enable) ? dac_valid : 1'b0;
end
end
// CDC for the dma_last_beats
always @(posedge dac_clk) begin
if (dac_fifo_reset_s == 1'b1) begin
dac_last_beats <= 4'b0;
dac_last_beats_m <= 4'b0;
end else begin
dac_last_beats_m <= dma_last_beats;
dac_last_beats <= dac_last_beats_m;
end
end
// If the MEM_RATIO is grater than one, it can happen that not all the DAC beats from
// an AXI beat are valid. In this case the invalid data is dropped.
// The axi_dlast indicates the last AXI beat. The valid number of DAC beats on the last AXI beat
// commes from the AXI write module. (axi_dacfifo_wr.v)
always @(posedge dac_clk) begin
if (dac_fifo_reset_s == 1'b1) begin
dac_mem_raddr <= 'd0;
dac_mem_laddr_b <= 'd0;
dac_mem_raddr_g <= 'd0;
end else begin
dac_mem_laddr_b <= dac_mem_laddr_s;
if (dac_mem_valid == 1'b1) begin
if ((dac_last_beats != 0) &&
(dac_mem_raddr == (dac_mem_laddr_b + dac_last_beats - 1))) begin
dac_mem_raddr <= dac_mem_raddr + (MEM_RATIO - (dac_last_beats - 1));
end else begin
dac_mem_raddr <= dac_mem_raddr + 1'b1;
end
end
dac_mem_raddr_g <= dac_mem_raddr_b2g_s;
end
end
ad_b2g #(
.DATA_WIDTH(DAC_MEM_ADDRESS_WIDTH)
) i_dac_mem_raddr_b2g (
.din (dac_mem_raddr),
.dout (dac_mem_raddr_b2g_s));
// underflow generation, there is no overflow
assign dac_mem_dunf_s = (dac_mem_addr_diff_s[(DAC_MEM_ADDRESS_WIDTH-1):0] == 0) ? 1'b1 : 1'b0;
always @(posedge dac_clk) begin
if(dac_fifo_reset_s == 1'b1) begin
dac_dunf <= 1'b0;
end else begin
dac_dunf <= dac_mem_dunf_s;
end
end
endmodule
@@ -0,0 +1,567 @@
// ***************************************************************************
// ***************************************************************************
// Copyright (C) 2014-2023 Analog Devices, Inc. All rights reserved.
//
// In this HDL repository, there are many different and unique modules, consisting
// of various HDL (Verilog or VHDL) components. The individual modules are
// developed independently, and may be accompanied by separate and unique license
// terms.
//
// The user should read each of these license terms, and understand the
// freedoms and responsibilities that he or she has by using this source/core.
//
// This core 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.
//
// Redistribution and use of source or resulting binaries, with or without modification
// of this file, are permitted under one of the following two license terms:
//
// 1. The GNU General Public License version 2 as published by the
// Free Software Foundation, which can be found in the top level directory
// of this repository (LICENSE_GPL2), and also online at:
// <https://www.gnu.org/licenses/old-licenses/gpl-2.0.html>
//
// OR
//
// 2. An ADI specific BSD license, which can be found in the top level directory
// of this repository (LICENSE_ADIBSD), and also on-line at:
// https://github.com/analogdevicesinc/hdl/blob/master/LICENSE_ADIBSD
// This will allow to generate bit files and not release the source code,
// as long as it attaches to an ADI device.
//
// ***************************************************************************
// ***************************************************************************
`timescale 1ns/100ps
module axi_dacfifo_wr #(
parameter AXI_DATA_WIDTH = 512,
parameter DMA_DATA_WIDTH = 64,
parameter AXI_SIZE = 6,
parameter AXI_LENGTH = 15,
parameter AXI_ADDRESS = 32'h00000000,
parameter AXI_ADDRESS_LIMIT = 32'h00000000,
parameter DMA_MEM_ADDRESS_WIDTH = 8
) (
// dma fifo interface
input dma_clk,
input dma_rst,
input [(DMA_DATA_WIDTH-1):0] dma_data,
input dma_ready,
output reg dma_ready_out,
input dma_valid,
// request and syncronizaiton
input dma_xfer_req,
input dma_xfer_last,
(* dont_touch = "true" *) output reg [ 3:0] dma_last_beats,
// last address for read side
output reg [31:0] axi_last_addr,
output reg [ 7:0] axi_last_beats,
output reg axi_xfer_out,
// axi write address, write data and write response channels
input axi_clk,
input axi_resetn,
output reg axi_awvalid,
output [ 3:0] axi_awid,
output [ 1:0] axi_awburst,
output axi_awlock,
output [ 3:0] axi_awcache,
output [ 2:0] axi_awprot,
output [ 3:0] axi_awqos,
output [ 7:0] axi_awlen,
output [ 2:0] axi_awsize,
output reg [31:0] axi_awaddr,
input axi_awready,
output axi_wvalid,
output [(AXI_DATA_WIDTH-1):0] axi_wdata,
output [((AXI_DATA_WIDTH/8)-1):0] axi_wstrb,
output axi_wlast,
input axi_wready,
input axi_bvalid,
input [ 3:0] axi_bid,
input [ 1:0] axi_bresp,
output axi_bready,
output reg axi_werror
);
`define max(a,b) {(a) > (b) ? (a) : (b)}
`define min(a,b) {(a) < (b) ? (a) : (b)}
localparam MIN_WIDTH = `min(AXI_DATA_WIDTH, DMA_DATA_WIDTH);
localparam MAX_WIDTH = `max(AXI_DATA_WIDTH, DMA_DATA_WIDTH);
localparam MEM_RATIO = MAX_WIDTH/MIN_WIDTH;
localparam AXI_BIGGER = (MAX_WIDTH == AXI_DATA_WIDTH) ? 1 : 0;
localparam AXI_MEM_ADDRESS_WIDTH = (MEM_RATIO == 1) ? DMA_MEM_ADDRESS_WIDTH :
(MEM_RATIO == 2) ? (DMA_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-1) : 1)) :
(MEM_RATIO == 4) ? (DMA_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-2) : 2)) :
(MEM_RATIO == 8) ? (DMA_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-3) : 3)) :
(DMA_MEM_ADDRESS_WIDTH + ((AXI_BIGGER == 1) ? (-4) : 4));
localparam AXI_BYTE_WIDTH = AXI_DATA_WIDTH/8;
localparam AXI_AWINCR = (AXI_LENGTH + 1) * AXI_BYTE_WIDTH;
localparam DMA_BUF_THRESHOLD_HI = {(DMA_MEM_ADDRESS_WIDTH){1'b1}} - 4;
// FSM state definition
localparam IDLE = 9'b000000001;
localparam XFER_STAGING = 9'b000000010;
localparam XFER_FULL_BURST = 9'b000000100;
localparam XFER_FB_WLAST = 9'b000001000;
localparam XFER_PARTIAL_BURST = 9'b000010000;
localparam XFER_PB_WLAST = 9'b000100000;
localparam XFER_LAST_BURST = 9'b001000000;
localparam XFER_LB_WLAST = 9'b010000000;
localparam XFER_END = 9'b100000000;
// registers
reg [(DMA_MEM_ADDRESS_WIDTH-1):0] dma_mem_waddr = 'd0;
reg [(DMA_MEM_ADDRESS_WIDTH-1):0] dma_mem_waddr_g = 'd0;
reg [(DMA_MEM_ADDRESS_WIDTH-1):0] dma_mem_addr_diff = 'd0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] dma_mem_raddr_m1 = 'd0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] dma_mem_raddr_m2 = 'd0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] dma_mem_raddr = 'd0;
reg [ 2:0] dma_mem_last_read_toggle_m = 3'b0;
reg [ 1:0] dma_xfer_req_d = 2'b0;
reg [(DMA_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_m1 = 'd0;
reg [(DMA_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_m2 = 'd0;
reg [(DMA_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr = 'd0;
reg axi_mem_rvalid = 1'b0;
reg axi_mem_rvalid_d = 1'b0;
reg axi_mem_last = 1'b0;
reg axi_mem_last_d = 1'b0;
reg [(AXI_DATA_WIDTH-1):0] axi_mem_rdata = 'd0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr = 'd0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr_g = 'd0;
reg axi_mem_read_en_d = 1'b0;
reg [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_addr_diff = 'd0;
reg axi_mem_last_read_toggle = 1'b0;
reg [ 2:0] axi_xfer_req_m = 3'b0;
reg axi_xfer_posedge = 1'b0;
reg [ 7:0] axi_wvalid_counter = 8'b0;
reg [ 7:0] axi_last_burst_length = 8'b0;
(* dont_touch = "true" *)reg [ 8:0] axi_writer_state = 9'b0;
reg [ 3:0] axi_dma_last_beats_m1 = 4'b0;
reg [ 3:0] axi_dma_last_beats_m2 = 4'b0;
reg axi_xlast;
reg [ 3:0] axi_xfer_pburst_offset = 4'b1111;
// internal signals
wire dma_fifo_reset_s;
wire [(DMA_MEM_ADDRESS_WIDTH):0] dma_mem_addr_diff_s;
wire [(DMA_MEM_ADDRESS_WIDTH-1):0] dma_mem_raddr_s;
wire dma_mem_last_read_s;
wire dma_xfer_posedge_s;
wire dma_mem_wea_s;
wire [(DMA_MEM_ADDRESS_WIDTH-1):0] dma_mem_waddr_b2g_s;
wire [(AXI_MEM_ADDRESS_WIDTH-1):0] dma_mem_raddr_m2_g2b_s;
wire axi_mem_read_en_s;
wire [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_s;
wire [AXI_MEM_ADDRESS_WIDTH:0] axi_mem_addr_diff_s;
wire [(AXI_DATA_WIDTH-1):0] axi_mem_rdata_s;
wire axi_mem_rvalid_s;
wire axi_mem_last_s;
wire [(DMA_MEM_ADDRESS_WIDTH-1):0] axi_mem_waddr_m2_g2b_s;
wire [(AXI_MEM_ADDRESS_WIDTH-1):0] axi_mem_raddr_b2g_s;
wire axi_fifo_reset_s;
wire axi_waddr_ready_s;
wire axi_wready_s;
wire axi_partial_burst_s;
wire axi_xlast_s;
wire axi_reset_s;
// Asymmetric memory to transfer data from DMAC interface to AXI Memory Map
// interface
ad_mem_asym #(
.A_ADDRESS_WIDTH (DMA_MEM_ADDRESS_WIDTH),
.A_DATA_WIDTH (DMA_DATA_WIDTH),
.B_ADDRESS_WIDTH (AXI_MEM_ADDRESS_WIDTH),
.B_DATA_WIDTH (AXI_DATA_WIDTH)
) i_mem_asym (
.clka (dma_clk),
.wea (dma_mem_wea_s),
.addra (dma_mem_waddr),
.dina (dma_data),
.clkb (axi_clk),
.reb (1'b1),
.addrb (axi_mem_raddr),
.doutb (axi_mem_rdata_s));
assign axi_reset_s = ~axi_resetn;
ad_axis_inf_rx #(
.DATA_WIDTH(AXI_DATA_WIDTH)
) i_axis_inf (
.clk (axi_clk),
.rst (axi_reset_s),
.valid (axi_mem_rvalid_d),
.last (axi_mem_last_d),
.data (axi_mem_rdata),
.inf_valid (axi_wvalid),
.inf_last (axi_wlast),
.inf_data (axi_wdata),
.inf_ready (axi_wready));
// reset signals - all the registers reset at the positive edge of
// dma_xfer_req
assign dma_xfer_posedge_s = ~dma_xfer_req_d[1] & dma_xfer_req_d[0];
assign dma_fifo_reset_s = (dma_rst == 1'b1) || (dma_xfer_posedge_s == 1'b1);
assign axi_fifo_reset_s = (axi_resetn == 1'b0) || (axi_xfer_posedge == 1'b1);
// DMA beat counter
always @(posedge dma_clk) begin
dma_xfer_req_d <= {dma_xfer_req_d[0], dma_xfer_req};
if (dma_fifo_reset_s == 1'b1) begin
dma_last_beats <= 4'b0;
end else begin
if (dma_mem_wea_s == 1'b1) begin
dma_last_beats <= (AXI_BIGGER == 1) ? ((dma_last_beats < MEM_RATIO-1) ? dma_last_beats + 4'b1 : 4'b0) : 4'b0;
end
end
end
// ASYNC MEM write control
assign dma_mem_addr_diff_s = {1'b1, dma_mem_waddr} - dma_mem_raddr_s;
assign dma_mem_raddr_s = (MEM_RATIO == 1) ? dma_mem_raddr :
(MEM_RATIO == 2) ? ((AXI_BIGGER == 1) ? {dma_mem_raddr, 1'b0} : dma_mem_raddr[AXI_MEM_ADDRESS_WIDTH-1:1]) :
(MEM_RATIO == 4) ? ((AXI_BIGGER == 1) ? {dma_mem_raddr, 2'b0} : dma_mem_raddr[AXI_MEM_ADDRESS_WIDTH-1:2]) :
(MEM_RATIO == 8) ? ((AXI_BIGGER == 1) ? {dma_mem_raddr, 3'b0} : dma_mem_raddr[AXI_MEM_ADDRESS_WIDTH-1:3]) :
((AXI_BIGGER == 1) ? {dma_mem_raddr, 4'b0} : dma_mem_raddr[AXI_MEM_ADDRESS_WIDTH-1:4]);
assign dma_mem_last_read_s = dma_mem_last_read_toggle_m[2] ^ dma_mem_last_read_toggle_m[1];
assign dma_mem_wea_s = dma_xfer_req & dma_valid & dma_ready;
always @(posedge dma_clk) begin
if (dma_fifo_reset_s == 1'b1) begin
dma_mem_waddr <= 'h0;
dma_mem_waddr_g <= 'h0;
dma_mem_last_read_toggle_m <= 3'b0;
end else begin
dma_mem_last_read_toggle_m = {dma_mem_last_read_toggle_m[1:0], axi_mem_last_read_toggle};
if (dma_mem_wea_s == 1'b1) begin
dma_mem_waddr <= dma_mem_waddr + 1;
end
if (dma_mem_last_read_s == 1'b1) begin
dma_mem_waddr <= 'h0;
end
dma_mem_waddr_g <= dma_mem_waddr_b2g_s;
end
end
ad_b2g #(
.DATA_WIDTH(DMA_MEM_ADDRESS_WIDTH)
) i_dma_mem_waddr_b2g (
.din (dma_mem_waddr),
.dout (dma_mem_waddr_b2g_s));
// The memory module request data until reaches the high threshold
always @(posedge dma_clk) begin
if (dma_fifo_reset_s == 1'b1) begin
dma_mem_addr_diff <= 'b0;
dma_mem_raddr_m1 <= 'b0;
dma_mem_raddr_m2 <= 'b0;
dma_mem_raddr <= 'b0;
dma_ready_out <= 1'b1;
end else begin
dma_mem_raddr_m1 <= axi_mem_raddr_g;
dma_mem_raddr_m2 <= dma_mem_raddr_m1;
dma_mem_raddr <= dma_mem_raddr_m2_g2b_s;
dma_mem_addr_diff <= dma_mem_addr_diff_s[DMA_MEM_ADDRESS_WIDTH-1:0];
if (dma_mem_addr_diff >= DMA_BUF_THRESHOLD_HI) begin
dma_ready_out <= 1'b0;
end else begin
dma_ready_out <= 1'b1;
end
end
end
ad_g2b #(
.DATA_WIDTH(AXI_MEM_ADDRESS_WIDTH)
) i_dma_mem_raddr_g2b (
.din (dma_mem_raddr_m2),
.dout (dma_mem_raddr_m2_g2b_s));
assign axi_xlast_s = axi_wready & axi_wvalid & axi_wlast;
// FSM to generate the necessary AXI Write transactions
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_writer_state <= IDLE;
axi_xlast <= 1'b0;
end
else
axi_xlast <= axi_xlast_s;
case (axi_writer_state)
IDLE : begin
if (axi_xfer_req_m[2] == 1'b1) begin
axi_writer_state <= XFER_STAGING;
end else begin
axi_writer_state <= IDLE;
end
end
XFER_STAGING : begin
if (axi_xfer_req_m[2] == 1'b1) begin
// there are enough data for one transaction
if (axi_mem_addr_diff >= AXI_LENGTH) begin
axi_writer_state <= XFER_FULL_BURST;
end else begin
axi_writer_state <= XFER_STAGING;
end
end else if (axi_xfer_pburst_offset == 4'b0) begin // DMA transfer was finished
if ((axi_mem_addr_diff > 0) ||
(axi_dma_last_beats_m2 > 0)) begin
axi_writer_state <= XFER_PARTIAL_BURST;
end else begin
axi_writer_state <= XFER_END;
end
end else begin
axi_writer_state <= XFER_STAGING;
end
end
// AXI transaction with full burst length
XFER_FULL_BURST : begin
if ((axi_wvalid_counter == axi_awlen) && (axi_mem_rvalid_s == 1'b1)) begin
axi_writer_state <= XFER_FB_WLAST;
end else begin
axi_writer_state <= XFER_FULL_BURST;
end
end
// Wait for the end of the transaction
XFER_FB_WLAST : begin
if (axi_xlast == 1'b1) begin
axi_writer_state <= XFER_STAGING;
end else begin
axi_writer_state <= XFER_FB_WLAST;
end
end
// AXI transaction with the remaining data, burst length is less than
// the maximum supported burst length
XFER_PARTIAL_BURST : begin
if ((axi_wvalid_counter == axi_awlen) && (axi_mem_rvalid_s == 1'b1)) begin
axi_writer_state <= XFER_PB_WLAST;
end else begin
axi_writer_state <= XFER_PARTIAL_BURST;
end
end
// Wait for the end of the transaction
XFER_PB_WLAST : begin
if (axi_xlast == 1'b1) begin
axi_writer_state <= XFER_END;
end else begin
axi_writer_state <= XFER_PB_WLAST;
end
end
XFER_END : begin
axi_writer_state <= IDLE;
end
default : begin
axi_writer_state <= IDLE;
end
endcase
end
// FSM outputs
assign axi_mem_read_en_s = ((axi_writer_state == XFER_FULL_BURST) ||
(axi_writer_state == XFER_PARTIAL_BURST)) ? 1 : 0;
assign axi_partial_burst_s = ((axi_writer_state == XFER_PARTIAL_BURST) ||
(axi_writer_state == XFER_PB_WLAST)) ? 1 : 0;
// CDC for the memory write address, xfer_req and xfer_last
always @(posedge axi_clk) begin
if (axi_resetn == 1'b0) begin
axi_xfer_req_m <= 3'b0;
axi_xfer_posedge <= 1'b0;
end else begin
axi_xfer_req_m <= {axi_xfer_req_m[1:0], dma_xfer_req};
axi_xfer_posedge <= ~axi_xfer_req_m[2] & axi_xfer_req_m[1];
end
end
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_mem_waddr_m1 <= 'b0;
axi_mem_waddr_m2 <= 'b0;
axi_mem_waddr <= 'b0;
axi_xfer_pburst_offset <= 4'b1111;
end else begin
axi_mem_waddr_m1 <= dma_mem_waddr_g;
axi_mem_waddr_m2 <= axi_mem_waddr_m1;
axi_mem_waddr <= axi_mem_waddr_m2_g2b_s;
if ((axi_xfer_req_m[2] == 0) && (axi_xfer_pburst_offset > 0)) begin
axi_xfer_pburst_offset <= axi_xfer_pburst_offset - 4'b1;
end
end
end
ad_g2b #(
.DATA_WIDTH(DMA_MEM_ADDRESS_WIDTH)
) i_axi_mem_waddr_g2b (
.din (axi_mem_waddr_m2),
.dout (axi_mem_waddr_m2_g2b_s));
// ASYNC MEM read control
assign axi_mem_waddr_s = (MEM_RATIO == 1) ? axi_mem_waddr :
(MEM_RATIO == 2) ? ((AXI_BIGGER == 1) ? axi_mem_waddr[(DMA_MEM_ADDRESS_WIDTH-1):1] : {axi_mem_waddr, 1'b0}) :
(MEM_RATIO == 4) ? ((AXI_BIGGER == 1) ? axi_mem_waddr[(DMA_MEM_ADDRESS_WIDTH-1):2] : {axi_mem_waddr, 2'b0}) :
(MEM_RATIO == 8) ? ((AXI_BIGGER == 1) ? axi_mem_waddr[(DMA_MEM_ADDRESS_WIDTH-1):3] : {axi_mem_waddr, 3'b0}) :
((AXI_BIGGER == 1) ? axi_mem_waddr[(DMA_MEM_ADDRESS_WIDTH-1):4] : {axi_mem_waddr, 4'b0});
assign axi_mem_addr_diff_s = {1'b1, axi_mem_waddr_s} - axi_mem_raddr;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_mem_addr_diff <= 'b0;
axi_mem_read_en_d <= 1'b0;
end else begin
axi_mem_addr_diff <= axi_mem_addr_diff_s[(AXI_MEM_ADDRESS_WIDTH-1):0];
axi_mem_read_en_d <= axi_mem_read_en_s;
end
end
assign axi_wready_s = ~axi_wvalid | axi_wready;
assign axi_mem_rvalid_s = axi_mem_read_en_s & axi_wready_s;
assign axi_mem_last_s = (axi_wvalid_counter == axi_awlen) ? axi_mem_rvalid_s : 1'b0;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_mem_rvalid <= 1'b0;
axi_mem_rvalid_d <= 1'b0;
axi_mem_last <= 1'b0;
axi_mem_last_d <= 1'b0;
axi_mem_rdata <= 'b0;
axi_mem_raddr <= 'b0;
axi_wvalid_counter <= 8'b0;
axi_mem_last_read_toggle <= 1'b0;
axi_mem_raddr_g <= 'b0;
end else begin
axi_mem_rvalid <= axi_mem_rvalid_s;
axi_mem_rvalid_d <= axi_mem_rvalid;
axi_mem_last <= axi_mem_last_s;
axi_mem_last_d <= axi_mem_last;
axi_mem_rdata <= axi_mem_rdata_s;
if (axi_mem_rvalid_s == 1'b1) begin
axi_mem_raddr <= axi_mem_raddr + 1;
axi_wvalid_counter <= (axi_wvalid_counter == axi_awlen) ? 0 : axi_wvalid_counter + 1;
end
if (axi_writer_state == XFER_END) begin
axi_mem_raddr <= 'b0;
axi_mem_last_read_toggle <= ~axi_mem_last_read_toggle;
end
axi_mem_raddr_g <= axi_mem_raddr_b2g_s;
end
end
ad_b2g #(
.DATA_WIDTH(AXI_MEM_ADDRESS_WIDTH)
) i_axi_mem_raddr_b2g (
.din (axi_mem_raddr),
.dout (axi_mem_raddr_b2g_s));
// AXI Memory Map interface write address channel
assign axi_awid = 4'b0000;
assign axi_awburst = 2'b01; // INCR (Incrementing address burst)
assign axi_awlock = 1'b0; // Normal access
assign axi_awcache = 4'b0010; // Cacheable, but not allocate
assign axi_awprot = 3'b000; // Normal, secure, data access
assign axi_awqos = 4'b0000; // Not used
assign axi_awlen = (axi_partial_burst_s == 1'b1) ? axi_last_burst_length : AXI_LENGTH;
assign axi_awsize = AXI_SIZE;
assign axi_waddr_ready_s = axi_mem_read_en_s & ~axi_mem_read_en_d;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_awvalid <= 'd0;
axi_awaddr <= AXI_ADDRESS;
axi_xfer_out <= 1'b0;
end else begin
if (axi_awvalid == 1'b1) begin
if (axi_awready == 1'b1) begin
axi_awvalid <= 1'b0;
end
end else begin
if (axi_waddr_ready_s == 1'b1) begin
axi_awvalid <= 1'b1;
end
end
if ((axi_awvalid == 1'b1) && (axi_awready == 1'b1)) begin
axi_awaddr <= (axi_writer_state == XFER_FULL_BURST) ? (axi_awaddr + AXI_AWINCR) :
(axi_writer_state == XFER_PARTIAL_BURST) ? (axi_awaddr + axi_last_burst_length * AXI_BYTE_WIDTH) :
(axi_awaddr + AXI_AWINCR);
end
if (axi_writer_state == XFER_END) begin
axi_xfer_out <= 1'b1;
end
end
end
// write data channel controls
assign axi_wstrb = {AXI_BYTE_WIDTH{1'b1}};
// response channel
assign axi_bready = 1'b1;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_werror <= 'd0;
end else begin
axi_werror <= axi_bvalid & axi_bresp[1];
end
end
// AXI last address and last burst length
assign axi_dma_last_beats_active_s = (axi_dma_last_beats_m2 > 0) ? 1'b1 : 1'b0;
always @(posedge axi_clk) begin
if (axi_fifo_reset_s == 1'b1) begin
axi_dma_last_beats_m1 <= 0;
axi_dma_last_beats_m2 <= 0;
axi_last_burst_length <= AXI_LENGTH;
end else begin
axi_dma_last_beats_m1 <= dma_last_beats;
axi_dma_last_beats_m2 <= axi_dma_last_beats_m1;
axi_last_burst_length <= ((axi_partial_burst_s) &&
(axi_waddr_ready_s) &&
(axi_dma_last_beats_active_s)) ? axi_mem_addr_diff :
((axi_partial_burst_s) &&
(axi_waddr_ready_s) &&
(~axi_dma_last_beats_active_s)) ? (axi_mem_addr_diff-1) :
axi_last_burst_length;
end
end
always @(posedge axi_clk) begin
if(axi_fifo_reset_s == 1'b1) begin
axi_last_addr <= AXI_ADDRESS;
axi_last_beats <= 8'b0;
end else begin
if ((axi_awready == 1'b1) && (axi_awvalid == 1'b1)) begin
axi_last_addr <= axi_awaddr & (~AXI_AWINCR+1);
axi_last_beats <= axi_last_burst_length;
end
end
end
endmodule
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,115 @@
# Definitional proc to organize widgets for parameters.
proc init_gui { IPINST } {
ipgui::add_param $IPINST -name "Component_Name"
#Adding Page
set Page_0 [ipgui::add_page $IPINST -name "Page 0"]
ipgui::add_param $IPINST -name "AXI_ADDRESS" -parent ${Page_0}
ipgui::add_param $IPINST -name "AXI_ADDRESS_LIMIT" -parent ${Page_0}
ipgui::add_param $IPINST -name "AXI_DATA_WIDTH" -parent ${Page_0}
ipgui::add_param $IPINST -name "AXI_LENGTH" -parent ${Page_0}
ipgui::add_param $IPINST -name "AXI_SIZE" -parent ${Page_0}
ipgui::add_param $IPINST -name "DAC_DATA_WIDTH" -parent ${Page_0}
ipgui::add_param $IPINST -name "DMA_DATA_WIDTH" -parent ${Page_0}
}
proc update_PARAM_VALUE.AXI_ADDRESS { PARAM_VALUE.AXI_ADDRESS } {
# Procedure called to update AXI_ADDRESS when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.AXI_ADDRESS { PARAM_VALUE.AXI_ADDRESS } {
# Procedure called to validate AXI_ADDRESS
return true
}
proc update_PARAM_VALUE.AXI_ADDRESS_LIMIT { PARAM_VALUE.AXI_ADDRESS_LIMIT } {
# Procedure called to update AXI_ADDRESS_LIMIT when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.AXI_ADDRESS_LIMIT { PARAM_VALUE.AXI_ADDRESS_LIMIT } {
# Procedure called to validate AXI_ADDRESS_LIMIT
return true
}
proc update_PARAM_VALUE.AXI_DATA_WIDTH { PARAM_VALUE.AXI_DATA_WIDTH } {
# Procedure called to update AXI_DATA_WIDTH when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.AXI_DATA_WIDTH { PARAM_VALUE.AXI_DATA_WIDTH } {
# Procedure called to validate AXI_DATA_WIDTH
return true
}
proc update_PARAM_VALUE.AXI_LENGTH { PARAM_VALUE.AXI_LENGTH } {
# Procedure called to update AXI_LENGTH when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.AXI_LENGTH { PARAM_VALUE.AXI_LENGTH } {
# Procedure called to validate AXI_LENGTH
return true
}
proc update_PARAM_VALUE.AXI_SIZE { PARAM_VALUE.AXI_SIZE } {
# Procedure called to update AXI_SIZE when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.AXI_SIZE { PARAM_VALUE.AXI_SIZE } {
# Procedure called to validate AXI_SIZE
return true
}
proc update_PARAM_VALUE.DAC_DATA_WIDTH { PARAM_VALUE.DAC_DATA_WIDTH } {
# Procedure called to update DAC_DATA_WIDTH when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.DAC_DATA_WIDTH { PARAM_VALUE.DAC_DATA_WIDTH } {
# Procedure called to validate DAC_DATA_WIDTH
return true
}
proc update_PARAM_VALUE.DMA_DATA_WIDTH { PARAM_VALUE.DMA_DATA_WIDTH } {
# Procedure called to update DMA_DATA_WIDTH when any of the dependent parameters in the arguments change
}
proc validate_PARAM_VALUE.DMA_DATA_WIDTH { PARAM_VALUE.DMA_DATA_WIDTH } {
# Procedure called to validate DMA_DATA_WIDTH
return true
}
proc update_MODELPARAM_VALUE.DAC_DATA_WIDTH { MODELPARAM_VALUE.DAC_DATA_WIDTH PARAM_VALUE.DAC_DATA_WIDTH } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.DAC_DATA_WIDTH}] ${MODELPARAM_VALUE.DAC_DATA_WIDTH}
}
proc update_MODELPARAM_VALUE.DMA_DATA_WIDTH { MODELPARAM_VALUE.DMA_DATA_WIDTH PARAM_VALUE.DMA_DATA_WIDTH } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.DMA_DATA_WIDTH}] ${MODELPARAM_VALUE.DMA_DATA_WIDTH}
}
proc update_MODELPARAM_VALUE.AXI_DATA_WIDTH { MODELPARAM_VALUE.AXI_DATA_WIDTH PARAM_VALUE.AXI_DATA_WIDTH } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.AXI_DATA_WIDTH}] ${MODELPARAM_VALUE.AXI_DATA_WIDTH}
}
proc update_MODELPARAM_VALUE.AXI_SIZE { MODELPARAM_VALUE.AXI_SIZE PARAM_VALUE.AXI_SIZE } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.AXI_SIZE}] ${MODELPARAM_VALUE.AXI_SIZE}
}
proc update_MODELPARAM_VALUE.AXI_LENGTH { MODELPARAM_VALUE.AXI_LENGTH PARAM_VALUE.AXI_LENGTH } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.AXI_LENGTH}] ${MODELPARAM_VALUE.AXI_LENGTH}
}
proc update_MODELPARAM_VALUE.AXI_ADDRESS { MODELPARAM_VALUE.AXI_ADDRESS PARAM_VALUE.AXI_ADDRESS } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.AXI_ADDRESS}] ${MODELPARAM_VALUE.AXI_ADDRESS}
}
proc update_MODELPARAM_VALUE.AXI_ADDRESS_LIMIT { MODELPARAM_VALUE.AXI_ADDRESS_LIMIT PARAM_VALUE.AXI_ADDRESS_LIMIT } {
# Procedure called to set VHDL generic/Verilog parameter value(s) based on TCL parameter value
set_property value [get_property value ${PARAM_VALUE.AXI_ADDRESS_LIMIT}] ${MODELPARAM_VALUE.AXI_ADDRESS_LIMIT}
}