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RTSD
HDL
Commits
3db7f083
Commit
3db7f083
authored
1 year ago
by
Reinier van der Walle
Browse files
Options
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Patches
Plain Diff
removed constant usage for Vivado IP packager
parent
3ed294cf
No related branches found
No related tags found
1 merge request
!327
Resolve HPR-85
Pipeline
#48090
passed
1 year ago
Stage: linting
Stage: simulation
Stage: synthesis
Changes
2
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1
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2 changed files
libraries/io/eth/src/vhdl/eth_tester_axi4_wrapper.vhd
+70
-70
70 additions, 70 deletions
libraries/io/eth/src/vhdl/eth_tester_axi4_wrapper.vhd
libraries/technology/ip_ultrascale/ram/ip_ultrascale_ram_cr_cw.vhd
+0
-19
0 additions, 19 deletions
.../technology/ip_ultrascale/ram/ip_ultrascale_ram_cr_cw.vhd
with
70 additions
and
89 deletions
libraries/io/eth/src/vhdl/eth_tester_axi4_wrapper.vhd
+
70
−
70
View file @
3db7f083
...
...
@@ -31,7 +31,7 @@ USE axi4_lib.axi4_lite_pkg.ALL;
USE
work
.
eth_pkg
.
ALL
;
USE
work
.
eth_tester_pkg
.
ALL
;
ENTITY
eth_tester_axi4_wrapper
IS
ENTITY
eth_tester_axi4_wrapper
IS
PORT
(
-- Clocks and reset
mm_clk
:
IN
STD_LOGIC
;
...
...
@@ -39,9 +39,9 @@ ENTITY eth_tester_axi4_wrapper IS
st_pps
:
IN
STD_LOGIC
;
aresetn
:
IN
STD_LOGIC
;
-- UDP transmit interface
eth_src_mac
:
IN
STD_LOGIC_VECTOR
(
c_network_eth_mac_addr_w
-1
DOWNTO
0
);
ip_src_addr
:
IN
STD_LOGIC_VECTOR
(
c_network_ip_addr_w
-1
DOWNTO
0
);
udp_src_port
:
IN
STD_LOGIC_VECTOR
(
c_network_udp_port_w
-1
DOWNTO
0
);
eth_src_mac
:
IN
STD_LOGIC_VECTOR
(
6
*
8
-1
DOWNTO
0
);
ip_src_addr
:
IN
STD_LOGIC_VECTOR
(
4
*
8
-1
DOWNTO
0
);
udp_src_port
:
IN
STD_LOGIC_VECTOR
(
2
*
8
-1
DOWNTO
0
);
tx_fifo_rd_emp_arr
:
OUT
STD_LOGIC_VECTOR
(
0
DOWNTO
0
);
...
...
@@ -51,13 +51,13 @@ ENTITY eth_tester_axi4_wrapper IS
-- Source Out and Sink In
tx_udp_tvalid
:
OUT
STD_LOGIC
;
tx_udp_tdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_stream_data_w
-1
DOWNTO
0
);
tx_udp_tstrb
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_stream_strb_w
-1
DOWNTO
0
);
tx_udp_tkeep
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_stream_keep_w
-1
DOWNTO
0
);
tx_udp_tdata
:
OUT
STD_LOGIC_VECTOR
(
512
-1
DOWNTO
0
);
tx_udp_tstrb
:
OUT
STD_LOGIC_VECTOR
(
512
/
8
-1
DOWNTO
0
);
tx_udp_tkeep
:
OUT
STD_LOGIC_VECTOR
(
512
/
8
-1
DOWNTO
0
);
tx_udp_tlast
:
OUT
STD_LOGIC
;
tx_udp_tid
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_stream_tid_w
-1
DOWNTO
0
);
tx_udp_tdest
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_stream_dest_w
-1
DOWNTO
0
);
tx_udp_tuser
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_stream_user_w
-1
DOWNTO
0
);
tx_udp_tid
:
OUT
STD_LOGIC_VECTOR
(
4
-1
DOWNTO
0
);
tx_udp_tdest
:
OUT
STD_LOGIC_VECTOR
(
32
-1
DOWNTO
0
);
tx_udp_tuser
:
OUT
STD_LOGIC_VECTOR
(
70
-1
DOWNTO
0
);
-- rx_udp
-- Source In and Sink Out
...
...
@@ -65,150 +65,150 @@ ENTITY eth_tester_axi4_wrapper IS
-- Source Out and Sink In
rx_udp_tvalid
:
IN
STD_LOGIC
;
rx_udp_tdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_stream_data_w
-1
DOWNTO
0
);
rx_udp_tstrb
:
IN
STD_LOGIC_VECTOR
(
c_axi4_stream_strb_w
-1
DOWNTO
0
);
rx_udp_tkeep
:
IN
STD_LOGIC_VECTOR
(
c_axi4_stream_keep_w
-1
DOWNTO
0
);
rx_udp_tdata
:
IN
STD_LOGIC_VECTOR
(
512
-1
DOWNTO
0
);
rx_udp_tstrb
:
IN
STD_LOGIC_VECTOR
(
512
/
8
-1
DOWNTO
0
);
rx_udp_tkeep
:
IN
STD_LOGIC_VECTOR
(
512
/
8
-1
DOWNTO
0
);
rx_udp_tlast
:
IN
STD_LOGIC
;
rx_udp_tid
:
IN
STD_LOGIC_VECTOR
(
c_axi4_stream_tid_w
-1
DOWNTO
0
);
rx_udp_tdest
:
IN
STD_LOGIC_VECTOR
(
c_axi4_stream_dest_w
-1
DOWNTO
0
);
rx_udp_tuser
:
IN
STD_LOGIC_VECTOR
(
c_axi4_stream_user_w
-1
DOWNTO
0
);
rx_udp_tid
:
IN
STD_LOGIC_VECTOR
(
4
-1
DOWNTO
0
);
rx_udp_tdest
:
IN
STD_LOGIC_VECTOR
(
32
-1
DOWNTO
0
);
rx_udp_tuser
:
IN
STD_LOGIC_VECTOR
(
70
-1
DOWNTO
0
);
-- reg_bg_ctrl
-- copi
reg_bg_ctrl_awaddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_bg_ctrl_awprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_bg_ctrl_awaddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bg_ctrl_awprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_bg_ctrl_awvalid
:
IN
STD_LOGIC
;
reg_bg_ctrl_wdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_bg_ctrl_wstrb
:
IN
STD_LOGIC_VECTOR
((
c_axi4_lite_data_w
/
c_byte_w
)
-1
downto
0
);
reg_bg_ctrl_wdata
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bg_ctrl_wstrb
:
IN
STD_LOGIC_VECTOR
((
32
/
8
)
-1
downto
0
);
reg_bg_ctrl_wvalid
:
IN
STD_LOGIC
;
reg_bg_ctrl_bready
:
IN
STD_LOGIC
;
reg_bg_ctrl_araddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_bg_ctrl_arprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_bg_ctrl_araddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bg_ctrl_arprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_bg_ctrl_arvalid
:
IN
STD_LOGIC
;
reg_bg_ctrl_rready
:
IN
STD_LOGIC
;
-- cipo
reg_bg_ctrl_awready
:
OUT
STD_LOGIC
;
reg_bg_ctrl_wready
:
OUT
STD_LOGIC
;
reg_bg_ctrl_bresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_bg_ctrl_bresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_bg_ctrl_bvalid
:
OUT
STD_LOGIC
;
reg_bg_ctrl_arready
:
OUT
STD_LOGIC
;
reg_bg_ctrl_rdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_bg_ctrl_rresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_bg_ctrl_rdata
:
OUT
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bg_ctrl_rresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_bg_ctrl_rvalid
:
OUT
STD_LOGIC
;
-- reg_hdr_dat
-- copi
reg_hdr_dat_awaddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_hdr_dat_awprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_hdr_dat_awaddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_hdr_dat_awprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_hdr_dat_awvalid
:
IN
STD_LOGIC
;
reg_hdr_dat_wdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_hdr_dat_wstrb
:
IN
STD_LOGIC_VECTOR
((
c_axi4_lite_data_w
/
c_byte_w
)
-1
downto
0
);
reg_hdr_dat_wdata
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_hdr_dat_wstrb
:
IN
STD_LOGIC_VECTOR
((
32
/
8
)
-1
downto
0
);
reg_hdr_dat_wvalid
:
IN
STD_LOGIC
;
reg_hdr_dat_bready
:
IN
STD_LOGIC
;
reg_hdr_dat_araddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_hdr_dat_arprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_hdr_dat_araddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_hdr_dat_arprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_hdr_dat_arvalid
:
IN
STD_LOGIC
;
reg_hdr_dat_rready
:
IN
STD_LOGIC
;
-- cipo
reg_hdr_dat_awready
:
OUT
STD_LOGIC
;
reg_hdr_dat_wready
:
OUT
STD_LOGIC
;
reg_hdr_dat_bresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_hdr_dat_bresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_hdr_dat_bvalid
:
OUT
STD_LOGIC
;
reg_hdr_dat_arready
:
OUT
STD_LOGIC
;
reg_hdr_dat_rdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_hdr_dat_rresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_hdr_dat_rdata
:
OUT
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_hdr_dat_rresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_hdr_dat_rvalid
:
OUT
STD_LOGIC
;
-- reg_bsn_monitor_v2_tx
-- copi
reg_bsn_monitor_v2_tx_awaddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_awprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_awaddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_tx_awprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_bsn_monitor_v2_tx_awvalid
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_tx_wdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_wstrb
:
IN
STD_LOGIC_VECTOR
((
c_axi4_lite_data_w
/
c_byte_w
)
-1
downto
0
);
reg_bsn_monitor_v2_tx_wdata
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_tx_wstrb
:
IN
STD_LOGIC_VECTOR
((
32
/
8
)
-1
downto
0
);
reg_bsn_monitor_v2_tx_wvalid
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_tx_bready
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_tx_araddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_arprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_araddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_tx_arprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_bsn_monitor_v2_tx_arvalid
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_tx_rready
:
IN
STD_LOGIC
;
-- cipo
reg_bsn_monitor_v2_tx_awready
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_tx_wready
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_tx_bresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_bresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_bsn_monitor_v2_tx_bvalid
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_tx_arready
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_tx_rdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_rresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_bsn_monitor_v2_tx_rdata
:
OUT
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_tx_rresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_bsn_monitor_v2_tx_rvalid
:
OUT
STD_LOGIC
;
-- reg_strobe_total_count_tx
-- copi
reg_strobe_total_count_tx_awaddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_strobe_total_count_tx_awprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_strobe_total_count_tx_awaddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_tx_awprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_strobe_total_count_tx_awvalid
:
IN
STD_LOGIC
;
reg_strobe_total_count_tx_wdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_strobe_total_count_tx_wstrb
:
IN
STD_LOGIC_VECTOR
((
c_axi4_lite_data_w
/
c_byte_w
)
-1
downto
0
);
reg_strobe_total_count_tx_wdata
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_tx_wstrb
:
IN
STD_LOGIC_VECTOR
((
32
/
8
)
-1
downto
0
);
reg_strobe_total_count_tx_wvalid
:
IN
STD_LOGIC
;
reg_strobe_total_count_tx_bready
:
IN
STD_LOGIC
;
reg_strobe_total_count_tx_araddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_strobe_total_count_tx_arprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_strobe_total_count_tx_araddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_tx_arprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_strobe_total_count_tx_arvalid
:
IN
STD_LOGIC
;
reg_strobe_total_count_tx_rready
:
IN
STD_LOGIC
;
-- cipo
reg_strobe_total_count_tx_awready
:
OUT
STD_LOGIC
;
reg_strobe_total_count_tx_wready
:
OUT
STD_LOGIC
;
reg_strobe_total_count_tx_bresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_strobe_total_count_tx_bresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_strobe_total_count_tx_bvalid
:
OUT
STD_LOGIC
;
reg_strobe_total_count_tx_arready
:
OUT
STD_LOGIC
;
reg_strobe_total_count_tx_rdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_strobe_total_count_tx_rresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_strobe_total_count_tx_rdata
:
OUT
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_tx_rresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_strobe_total_count_tx_rvalid
:
OUT
STD_LOGIC
;
-- reg_bsn_monitor_v2_rx
-- copi
reg_bsn_monitor_v2_rx_awaddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_awprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_awaddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_rx_awprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_bsn_monitor_v2_rx_awvalid
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_rx_wdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_wstrb
:
IN
STD_LOGIC_VECTOR
((
c_axi4_lite_data_w
/
c_byte_w
)
-1
downto
0
);
reg_bsn_monitor_v2_rx_wdata
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_rx_wstrb
:
IN
STD_LOGIC_VECTOR
((
32
/
8
)
-1
downto
0
);
reg_bsn_monitor_v2_rx_wvalid
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_rx_bready
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_rx_araddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_arprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_araddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_rx_arprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_bsn_monitor_v2_rx_arvalid
:
IN
STD_LOGIC
;
reg_bsn_monitor_v2_rx_rready
:
IN
STD_LOGIC
;
-- cipo
reg_bsn_monitor_v2_rx_awready
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_rx_wready
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_rx_bresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_bresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_bsn_monitor_v2_rx_bvalid
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_rx_arready
:
OUT
STD_LOGIC
;
reg_bsn_monitor_v2_rx_rdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_rresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_bsn_monitor_v2_rx_rdata
:
OUT
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_bsn_monitor_v2_rx_rresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_bsn_monitor_v2_rx_rvalid
:
OUT
STD_LOGIC
;
-- reg_strobe_total_count_rx
-- copi
reg_strobe_total_count_rx_awaddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_strobe_total_count_rx_awprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_strobe_total_count_rx_awaddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_rx_awprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_strobe_total_count_rx_awvalid
:
IN
STD_LOGIC
;
reg_strobe_total_count_rx_wdata
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_strobe_total_count_rx_wstrb
:
IN
STD_LOGIC_VECTOR
((
c_axi4_lite_data_w
/
c_byte_w
)
-1
downto
0
);
reg_strobe_total_count_rx_wdata
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_rx_wstrb
:
IN
STD_LOGIC_VECTOR
((
32
/
8
)
-1
downto
0
);
reg_strobe_total_count_rx_wvalid
:
IN
STD_LOGIC
;
reg_strobe_total_count_rx_bready
:
IN
STD_LOGIC
;
reg_strobe_total_count_rx_araddr
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_address_w
-1
downto
0
);
reg_strobe_total_count_rx_arprot
:
IN
STD_LOGIC_VECTOR
(
c_axi4_lite_prot_w
-1
downto
0
);
reg_strobe_total_count_rx_araddr
:
IN
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_rx_arprot
:
IN
STD_LOGIC_VECTOR
(
3
-1
downto
0
);
reg_strobe_total_count_rx_arvalid
:
IN
STD_LOGIC
;
reg_strobe_total_count_rx_rready
:
IN
STD_LOGIC
;
-- cipo
reg_strobe_total_count_rx_awready
:
OUT
STD_LOGIC
;
reg_strobe_total_count_rx_wready
:
OUT
STD_LOGIC
;
reg_strobe_total_count_rx_bresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_strobe_total_count_rx_bresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_strobe_total_count_rx_bvalid
:
OUT
STD_LOGIC
;
reg_strobe_total_count_rx_arready
:
OUT
STD_LOGIC
;
reg_strobe_total_count_rx_rdata
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_data_w
-1
downto
0
);
reg_strobe_total_count_rx_rresp
:
OUT
STD_LOGIC_VECTOR
(
c_axi4_lite_resp_w
-1
downto
0
);
reg_strobe_total_count_rx_rdata
:
OUT
STD_LOGIC_VECTOR
(
32
-1
downto
0
);
reg_strobe_total_count_rx_rresp
:
OUT
STD_LOGIC_VECTOR
(
2
-1
downto
0
);
reg_strobe_total_count_rx_rvalid
:
OUT
STD_LOGIC
);
...
...
This diff is collapsed.
Click to expand it.
libraries/technology/ip_ultrascale/ram/ip_ultrascale_ram_cr_cw.vhd
+
0
−
19
View file @
3db7f083
...
...
@@ -90,15 +90,11 @@ BEGIN
WRITE_PROTECT
=>
1
-- DECIMAL
)
port
map
(
dbiterra
=>
OPEN
,
-- 1-bit output: Status signal to indicate double bit error occurrence
-- on the data output of port A.
dbiterrb
=>
OPEN
,
-- 1-bit output: Status signal to indicate double bit error occurrence
-- on the data output of port A.
doutb
=>
q
,
-- READ_DATA_WIDTH_B-bit output: Data output for port B read operations.
sbiterra
=>
OPEN
,
-- 1-bit output: Status signal to indicate single bit error occurrence
-- on the data output of port A.
sbiterrb
=>
OPEN
,
-- 1-bit output: Status signal to indicate single bit error occurrence
-- on the data output of port B.
...
...
@@ -125,28 +121,13 @@ BEGIN
-- ECC enabled (Error injection capability is not available in
-- "decode_only" mode).
injectdbiterrb
=>
'0'
,
-- 1-bit input: Controls double bit error injection on input data when
-- ECC enabled (Error injection capability is not available in
-- "decode_only" mode).
injectsbiterra
=>
'0'
,
-- 1-bit input: Controls single bit error injection on input data when
-- ECC enabled (Error injection capability is not available in
-- "decode_only" mode).
injectsbiterrb
=>
'0'
,
-- 1-bit input: Controls single bit error injection on input data when
-- ECC enabled (Error injection capability is not available in
-- "decode_only" mode).
regcea
=>
'1'
,
-- 1-bit input: Clock Enable for the last register stage on the output
-- data path.
regceb
=>
'1'
,
-- 1-bit input: Clock Enable for the last register stage on the output
-- data path.
rsta
=>
'0'
,
-- 1-bit input: Reset signal for the final port A output register
-- stage. Synchronously resets output port douta to the value specified
-- by parameter READ_RESET_VALUE_A.
rstb
=>
'0'
,
-- 1-bit input: Reset signal for the final port B output register
-- stage. Synchronously resets output port doutb to the value specified
-- by parameter READ_RESET_VALUE_B.
...
...
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