Init Repo

This commit is contained in:
Jeremy Shen
2026-05-27 17:25:48 +08:00
parent fe2e5a3fdc
commit 2c6716e5eb
46 changed files with 15406 additions and 0 deletions
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{
"iis.configDir": ""
}
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module BUS_Con (
input i_sys_clk,
input i_rst_n,
// SPI Interface
input i_sclk,
input i_mosi,
input i_cs,
output o_miso, // <-- MISO Logic added here
// Local Interface
output o_rvalid, // (Typo in original: o_rvalid)
input i_rvalid, // Valid signal from Backend (Data is ready)
input i_wvalid,
output o_wready,
input i_reg_busy,
input [23:0] i_rdata, // Data from Backend to send to Master
output o_wr,
output o_cmd_valid,
output [23:0] o_data,
output [6:0] o_addr,
output o_err
);
// --- 1. Synchronization ---
reg [1:0] cs_sync;
reg [1:0] sclk_sync;
reg [1:0] mosi_sync;
wire cs_active;
wire cs_rise;
wire sclk_rise; // For Sampling MOSI
wire sclk_fall; // For Shifting MISO
wire mosi_data;
always @(posedge i_sys_clk) begin
if (!i_rst_n) begin
cs_sync <= 2'b11;
sclk_sync <= 2'b00;
mosi_sync <= 2'b00;
end else begin
cs_sync <= {cs_sync[0], i_cs};
sclk_sync <= {sclk_sync[0], i_sclk};
mosi_sync <= {mosi_sync[0], i_mosi};
end
end
assign cs_active = ~cs_sync[1];
assign cs_rise = (!cs_sync[1] && cs_sync[0]);
// SPI Mode 0: Sample MOSI on Rising, Shift MISO on Falling
assign sclk_rise = (!sclk_sync[1] && sclk_sync[0]);
assign sclk_fall = (sclk_sync[1] && !sclk_sync[0]); // Logic for MISO
assign mosi_data = mosi_sync[1];
// --- 2. MOSI (Receive) Logic ---
reg [31:0] recv_reg;
reg [5:0] bit_cnt;
reg data_ready;
reg err_flag;
reg [1:0] state;
//
reg [31:0] tx_buffer; // Holds data waiting for the next CS Low
reg [31:0] miso_shift; // The actual shifter
// Output Registers
reg [6:0] addr_out;
reg [23:0] data_out;
reg wr_out;
reg cmd_valid_out;
//
localparam IDLE = 2'b00;
localparam CMD_SENT = 2'b01;
localparam WAIT_BUSY = 2'b10;
localparam DONE = 2'b11;
always @(posedge i_sys_clk) begin
if (!i_rst_n) begin
recv_reg <= 32'd0;
bit_cnt <= 6'd0;
data_ready <= 1'b0;
err_flag <= 1'b0;
end
else begin
data_ready <= 1'b0;
if (cs_active) begin
if (sclk_rise) begin
recv_reg <= {recv_reg[30:0], mosi_data};
bit_cnt <= bit_cnt + 1'b1;
end
else if (cs_rise) begin
if (bit_cnt == 6'd32) begin
data_ready <= 1'b1;
err_flag <= 1'b0;
bit_cnt <= 6'd0;
end
else if (bit_cnt != 0) begin
err_flag <= 1'b1;
bit_cnt <= 6'd0;
recv_reg <= 'd0;
end
end
end
if (state == DONE) begin
recv_reg <= 'd0;
end
end
end
// --- 3. MISO (Transmit) Logic ---
// Protocol: We shift out 32 bits.
// Format: [8 bit Status/Padding] + [24 bit i_rdata]
// Capture data from backend when valid
always @(posedge i_sys_clk) begin
if (!i_rst_n) begin
tx_buffer <= 32'd0;
end else begin
// If backend provides valid read data, store it.
// We pad the top 8 bits with Zeros (or you can put status flags here)
if (i_rvalid) begin
tx_buffer <= {8'h00, i_rdata};
end
end
end
// Shift data out
always @(posedge i_sys_clk) begin
if (!i_rst_n) begin
miso_shift <= 32'd0;
end else begin
if (!cs_active) begin
// Pre-load the shifter while CS is High
// This ensures Bit 31 is ready BEFORE the first clock edge
miso_shift <= tx_buffer;
end else begin
// Shift on Falling Edge (Master samples on Rising)
if (sclk_fall) begin
miso_shift <= {miso_shift[30:0], 1'b0};
end
end
end
end
// Tri-state MISO when CS is high (optional, usually good practice)
// If your board doesn't need tristate, just use: assign o_miso = miso_shift[31];
assign o_miso = (cs_active) ? miso_shift[31] : 1'bz;
// --- 4. Register Control FSM ---
always @(posedge i_sys_clk) begin
if (!i_rst_n) begin
state <= IDLE;
cmd_valid_out <= 1'b0;
addr_out <= 7'd0;
data_out <= 24'd0;
wr_out <= 1'b0;
end else begin
case (state)
IDLE: begin
if (data_ready) begin
addr_out <= recv_reg[30:24];
data_out <= recv_reg[23:0];
wr_out <= recv_reg[31];
if (!i_reg_busy) begin
cmd_valid_out <= 1'b1;
state <= CMD_SENT;
end else begin
state <= WAIT_BUSY;
end
end
end
WAIT_BUSY: begin
if (!i_reg_busy) begin
cmd_valid_out <= 1'b1;
state <= CMD_SENT;
end
end
CMD_SENT: begin
cmd_valid_out <= 1'b0;
state <= DONE;
end
DONE: begin
if (!i_reg_busy) begin
state <= IDLE;
addr_out <= 'd0;
data_out <= 'd0;
wr_out <= 'd0;
end
end
endcase
end
end
assign o_addr = addr_out;
assign o_data = data_out;
assign o_wr = wr_out;
assign o_cmd_valid = cmd_valid_out;
assign o_err = err_flag;
assign o_wready = (state == IDLE);
// Pass through unused signal or hook it up if needed
assign o_rvalid = i_rvalid;
endmodule
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module CPLD_Con (
input i_sys_clk,
input i_rst_n,
input i_con_exec,
// Freq Relay Control
input [23:0]i_freq_relay1,
input [23:0]i_freq_relay2,
input [23:0]i_freq_relay3,
input [23:0]i_freq_relay4,
// DC related Control
input [23:0]i_DC_Con1,
input [23:0]i_DC_Con2,
input [23:0]i_DC_Con3,
input [23:0]i_DC_Con4,
//Output RELAYs
output [7:0]o_RC_F, //Ref: Schematic
output [15:0]o_RC_S,
output [31:0]o_RC_T,
output [3:0] o_OC_x09,
output [3:0] o_OC_x25,
output [31:0]o_PMU_OC_1 ,
output [31:0]o_PMU_OC_2 ,
output [31:0]o_PMU_OC_3 ,
output [31:0]o_PMU_OC_4,
//Output FLAGs
output o_err,
output o_con_done
);
//Output Relay Reg
reg [3:0] OC_x09;
reg [3:0] OC_x25;
//Condition Tester
reg [15:0]en_t ;
reg freq_t;
reg dc_t;
//Relay Reg
reg [7:0]relay_l1;
reg [15:0]relay_l2 ;
reg [31:0]relay_l3 ;
reg [31:0]PMU_OC_1 ;
reg [31:0]PMU_OC_2 ;
reg [31:0]PMU_OC_3 ;
reg [31:0]PMU_OC_4 ;
//Flags
reg exec_done_flag;
reg exec_flag;
reg [3:0]freq_slot_flag;
reg [3:0]dc_slot_flag ;
reg err_flag;
//Counter
reg [15:0]delay_cnt;
wire [8:0] freq_relay1 = i_freq_relay1[9:1];
wire [8:0] freq_relay2 = i_freq_relay2[9:1];
wire [8:0] freq_relay3 = i_freq_relay3[9:1];
wire [8:0] freq_relay4 = i_freq_relay4[9:1];
always @(posedge i_sys_clk) begin
if (i_rst_n == 1'b0) begin
delay_cnt <= 'd0;
end
else begin
if (exec_flag == 1'b1) begin
delay_cnt <= delay_cnt + 1'd1;
end
else begin
delay_cnt <= 'd0;
end
end
end
//Function Identify
always @(posedge i_sys_clk) begin
if (i_rst_n == 1'b0) begin
en_t <= 'd0;
freq_t <= 'd0;
dc_t <= 'd0;
end
else begin
en_t <= (i_freq_relay1[0] + i_freq_relay2[0] + i_freq_relay3[0] + i_freq_relay4[0]) + (i_DC_Con1[0] +i_DC_Con2[0] +i_DC_Con3[0] +i_DC_Con4[0] );
freq_t <= i_freq_relay1[0] + i_freq_relay2[0] + i_freq_relay3[0] + i_freq_relay4[0];
dc_t <= i_DC_Con1[0] +i_DC_Con2[0] +i_DC_Con3[0] +i_DC_Con4[0];
end
end
// Main Controller Function
always @(posedge i_sys_clk) begin
if (i_rst_n == 1'b0) begin
relay_l1 <= 'd0;
relay_l2 <= 'd0;
relay_l3 <= 'd0;
exec_flag <= 1'b0;
exec_done_flag <= 1'b1;
freq_slot_flag <= 'd0;
PMU_OC_1 <= 'd0;
PMU_OC_2 <= 'd0;
PMU_OC_3 <= 'd0;
PMU_OC_4 <= 'd0;
dc_slot_flag<='d0;
err_flag <= 'd0;
end
else begin
if ((i_con_exec == 1'b1) & (exec_flag == 1'b0)) begin
//To DO: More Sanity Check?
if (en_t > 'd1) begin //Only ONE Enable bit should be set!
err_flag <= 1'b1;
end
else begin
exec_done_flag <= 'd0;
exec_flag <= 1'b1;
freq_slot_flag[0] <= i_freq_relay1[0];
freq_slot_flag[1] <= i_freq_relay2[0];
freq_slot_flag[2] <= i_freq_relay3[0];
freq_slot_flag[3] <= i_freq_relay4[0];
dc_slot_flag[0] <= i_DC_Con1[0];
dc_slot_flag[1] <= i_DC_Con2[0];
dc_slot_flag[2] <= i_DC_Con3[0];
dc_slot_flag[3] <= i_DC_Con4[0];
end
end
else if (exec_flag == 1'b1) begin
//Output Relay
if (freq_t == 1'b1) begin
case (freq_slot_flag)
4'b0001: begin
relay_l1 <= {'d0,i_freq_relay1[22],i_freq_relay1[23]};
if (delay_cnt == 'd500) begin
relay_l2 <= {'d0,i_freq_relay1[18],i_freq_relay1[19],i_freq_relay1[20],i_freq_relay1[21]};
end
else if (delay_cnt == 'd1000) begin
relay_l3 <= {'d0,i_freq_relay1[10],i_freq_relay1[11],i_freq_relay1[12],i_freq_relay1[13],i_freq_relay1[14],i_freq_relay1[15],i_freq_relay1[16],i_freq_relay1[17]};
end
else if (delay_cnt == 'd1080) begin
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
if ((freq_relay1 > 64) & (freq_relay1 < 73)) begin
OC_x09 <= 4'b0001;
end
else if ((freq_relay1 > 192) & (freq_relay1 < 201)) begin
OC_x25 <= 4'b0001;
end
else begin
OC_x09 <= 'd0;
OC_x25 <= 'd0;
end
end
4'b0010: begin
relay_l1 <= {4'd0,i_freq_relay2[22],i_freq_relay2[23],2'd0};
if (delay_cnt == 'd500) begin
relay_l2 <= {8'd0,i_freq_relay2[18],i_freq_relay2[19],i_freq_relay2[20],i_freq_relay2[21],4'd0};
end
else if (delay_cnt == 'd1000) begin
relay_l3 <= {16'd0,i_freq_relay2[10],i_freq_relay2[11],i_freq_relay2[12],i_freq_relay2[13],i_freq_relay2[14],i_freq_relay2[15],i_freq_relay2[16],i_freq_relay2[17],8'd0};
end
else if (delay_cnt == 'd1080) begin
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
if ((freq_relay2 > 64) & (freq_relay2 < 73)) begin
OC_x09 <= 4'b0010;
end
else if ((freq_relay2 > 192) & (freq_relay2 < 201)) begin
OC_x25 <= 4'b0010;
end
else begin
OC_x09 <= 'd0;
OC_x25 <= 'd0;
end
end
4'b0100: begin
relay_l1 <= {2'd0,i_freq_relay3[22],i_freq_relay3[23],4'd0};
if (delay_cnt == 'd500) begin
relay_l2 <= {4'd0,i_freq_relay3[18],i_freq_relay3[19],i_freq_relay3[20],i_freq_relay3[21],8'd0};
end
else if (delay_cnt == 'd1000) begin
relay_l3 <= {8'd0,i_freq_relay3[12],i_freq_relay3[13],i_freq_relay3[10],i_freq_relay3[11],i_freq_relay3[16],i_freq_relay3[17],i_freq_relay3[14],i_freq_relay3[15],16'd0};
end
else if (delay_cnt == 'd1080) begin
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
if ((freq_relay3 > 64) &(freq_relay3 <73)) begin
OC_x09 <= 4'b0100;
end
else if ((freq_relay3 > 192) & (freq_relay3 < 201)) begin
OC_x25 <= 4'b0100;
end
else begin
OC_x09 <= 'd0;
OC_x25 <= 'd0;
end
end
4'b1000: begin
relay_l1 <= {i_freq_relay4[22],i_freq_relay4[23],6'd0};
if (delay_cnt == 'd500) begin
relay_l2 <= {i_freq_relay4[18],i_freq_relay4[19],i_freq_relay4[20],i_freq_relay4[21],12'd0};
end
else if (delay_cnt == 'd1000) begin
relay_l3 <= {i_freq_relay4[10],i_freq_relay4[11],i_freq_relay4[12],i_freq_relay4[13],i_freq_relay4[14],i_freq_relay4[15],i_freq_relay4[16],i_freq_relay4[17],24'd0};
end
else if (delay_cnt == 'd1080) begin
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
if ((freq_relay4 > 64) & (freq_relay4 < 73)) begin
OC_x09 <= 4'b1000;
end
else if ((freq_relay4 > 192) & (freq_relay4 < 201)) begin
OC_x25 <= 4'b1000;
end
else begin
OC_x09 <= 'd0;
OC_x25 <= 'd0;
end
end
default: begin
OC_x09 <= 4'b0000;
OC_x25 <= 4'b0000;
end
endcase
end
else if (dc_t == 1'b1) begin
case (dc_slot_flag)
4'b0001: begin
//Sanity Check
if ((i_DC_Con1[21:17] < 1) || (i_DC_Con1[21:17] > 18) || (i_DC_Con1[9:1] < 1) || (i_DC_Con1[9:1] > 256)) begin
err_flag <= 1'b1;
end
else begin
if (i_DC_Con1[23] == 1'b0) begin //Select PMU
PMU_OC_1 <= (32'b0000_0000_0000_0000_0000_0000_0000_0001)<<(i_DC_Con1[9:1]/8);
end
else if (i_DC_Con1[23] == 1'b1) begin //Select DPS
end
end
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
4'b0010: begin
//Sanity Check
if ((i_DC_Con2[21:17] < 1) || (i_DC_Con2[21:17] > 18) || (i_DC_Con2[9:1] < 1) || (i_DC_Con2[9:1] > 256)) begin
err_flag <= 1'b1;
end
else begin
if (i_DC_Con2[23] == 1'b0) begin //Select PMU
PMU_OC_2 <= (32'b0000_0000_0000_0000_0000_0000_0000_0001)<<(i_DC_Con2[9:1]/8);
end
else if (i_DC_Con2[23] == 1'b1) begin //Select DPS
end
end
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
4'b0100:begin
//Sanity Check
if ((i_DC_Con3[21:17] < 1) || (i_DC_Con3[21:17] > 18) || (i_DC_Con3[9:1] < 1) || (i_DC_Con3[9:1] > 256)) begin
err_flag <= 1'b1;
end
else begin
if (i_DC_Con3[23] == 1'b0) begin //Select PMU
PMU_OC_3 <= (32'b0000_0000_0000_0000_0000_0000_0000_0001)<<(i_DC_Con3[9:1]/8);
end
else if (i_DC_Con3[23] == 1'b1) begin //Select DPS
end
end
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
4'b1000:begin
//Sanity Check
if ((i_DC_Con4[21:17] < 1) || (i_DC_Con4[21:17] > 18) || (i_DC_Con4[9:1] < 1) || (i_DC_Con4[9:1] > 256)) begin
err_flag <= 1'b1;
end
else begin
if (i_DC_Con4[23] == 1'b0) begin //Select PMU
PMU_OC_4 <= (32'b0000_0000_0000_0000_0000_0000_0000_0001)<<(i_DC_Con4[9:1]/8);
end
else if (i_DC_Con4[23] == 1'b1) begin //Select DPS
end
end
exec_flag <= 'd0;
exec_done_flag <= 1'b1;
end
default:begin // You Should NOT be HERE
PMU_OC_1 <= 'd0 ;
PMU_OC_2 <= 'd0 ;
PMU_OC_3 <= 'd0 ;
PMU_OC_4 <= 'd0 ;
end
endcase
end
end
end
end
assign o_RC_F = relay_l1;
assign o_RC_S = relay_l2;
assign o_RC_T = relay_l3;
assign o_con_done = exec_done_flag;
assign o_OC_x09 = OC_x09;
assign o_OC_x25 = OC_x25;
assign o_PMU_OC_1 = PMU_OC_1;
assign o_PMU_OC_2 = PMU_OC_2;
assign o_PMU_OC_3 = PMU_OC_3;
assign o_PMU_OC_4 = PMU_OC_4;
assign o_err = err_flag;
endmodule
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<Property name="PROP_LST_ResolvedMixedDrivers" value="False" time="0"/>
<Property name="PROP_LST_ResourceShare" value="True" time="0"/>
<Property name="PROP_LST_UseIOReg" value="Auto" time="0"/>
<Property name="PROP_LST_UseLPF" value="True" time="0"/>
<Property name="PROP_LST_VHDL2008" value="False" time="0"/>
<Property name="PROP_MAPSTA_AnalysisOption" value="Standard Setup and Hold Analysis" time="0"/>
<Property name="PROP_MAPSTA_AutoTiming" value="True" time="0"/>
<Property name="PROP_MAPSTA_CheckUnconstrainedConns" value="False" time="0"/>
<Property name="PROP_MAPSTA_CheckUnconstrainedPaths" value="False" time="0"/>
<Property name="PROP_MAPSTA_FullName" value="False" time="0"/>
<Property name="PROP_MAPSTA_NumUnconstrainedPaths" value="0" time="0"/>
<Property name="PROP_MAPSTA_ReportStyle" value="Verbose Timing Report" time="0"/>
<Property name="PROP_MAPSTA_RouteEstAlogtithm" value="0" time="0"/>
<Property name="PROP_MAPSTA_RptAsynTimLoop" value="False" time="0"/>
<Property name="PROP_MAPSTA_WordCasePaths" value="1" time="0"/>
<Property name="PROP_MAP_IgnorePreErr" value="True" time="0"/>
<Property name="PROP_MAP_MAPIORegister" value="Auto" time="0"/>
<Property name="PROP_MAP_MAPInferGSR" value="True" time="0"/>
<Property name="PROP_MAP_MapModArgs" value="" time="0"/>
<Property name="PROP_MAP_OvermapDevice" value="False" time="0"/>
<Property name="PROP_MAP_PackLogMapDes" value="0" time="0"/>
<Property name="PROP_MAP_RegRetiming" value="False" time="0"/>
<Property name="PROP_MAP_SigCrossRef" value="False" time="0"/>
<Property name="PROP_MAP_SymCrossRef" value="False" time="0"/>
<Property name="PROP_MAP_TimingDriven" value="False" time="0"/>
<Property name="PROP_MAP_TimingDrivenNodeRep" value="False" time="0"/>
<Property name="PROP_MAP_TimingDrivenPack" value="False" time="0"/>
<Property name="PROP_PARSTA_AnalysisOption" value="Standard Setup and Hold Analysis" time="0"/>
<Property name="PROP_PARSTA_AutoTiming" value="True" time="0"/>
<Property name="PROP_PARSTA_CheckUnconstrainedConns" value="False" time="0"/>
<Property name="PROP_PARSTA_CheckUnconstrainedPaths" value="False" time="0"/>
<Property name="PROP_PARSTA_FullName" value="False" time="0"/>
<Property name="PROP_PARSTA_NumUnconstrainedPaths" value="0" time="0"/>
<Property name="PROP_PARSTA_ReportStyle" value="Verbose Timing Report" time="0"/>
<Property name="PROP_PARSTA_RptAsynTimLoop" value="False" time="0"/>
<Property name="PROP_PARSTA_SpeedForHoldAnalysis" value="m" time="0"/>
<Property name="PROP_PARSTA_SpeedForSetupAnalysis" value="default" time="0"/>
<Property name="PROP_PARSTA_WordCasePaths" value="10" time="0"/>
<Property name="PROP_PAR_CrDlyStFileParDes" value="False" time="0"/>
<Property name="PROP_PAR_DisableTDParDes" value="False" time="0"/>
<Property name="PROP_PAR_EffortParDes" value="5" time="0"/>
<Property name="PROP_PAR_MultiSeedSortMode" value="Worst Slack" time="0"/>
<Property name="PROP_PAR_NewRouteParDes" value="NBR" time="0"/>
<Property name="PROP_PAR_PARClockSkew" value="Off" time="0"/>
<Property name="PROP_PAR_PARModArgs" value="" time="0"/>
<Property name="PROP_PAR_ParMultiNodeList" value="" time="0"/>
<Property name="PROP_PAR_ParRunPlaceOnly" value="False" time="0"/>
<Property name="PROP_PAR_PlcIterParDes" value="1" time="0"/>
<Property name="PROP_PAR_PlcStCostTblParDes" value="1" time="0"/>
<Property name="PROP_PAR_PrefErrorOut" value="True" time="0"/>
<Property name="PROP_PAR_RemoveDir" value="True" time="0"/>
<Property name="PROP_PAR_RouteDlyRedParDes" value="0" time="0"/>
<Property name="PROP_PAR_RoutePassParDes" value="6" time="0"/>
<Property name="PROP_PAR_RouteResOptParDes" value="0" time="0"/>
<Property name="PROP_PAR_RoutingCDP" value="0" time="0"/>
<Property name="PROP_PAR_RoutingCDR" value="0" time="0"/>
<Property name="PROP_PAR_RunParWithTrce" value="False" time="0"/>
<Property name="PROP_PAR_RunTimeReduction" value="True" time="0"/>
<Property name="PROP_PAR_SaveBestRsltParDes" value="1" time="0"/>
<Property name="PROP_PAR_StopZero" value="False" time="0"/>
<Property name="PROP_PAR_parHold" value="On" time="0"/>
<Property name="PROP_PAR_parPathBased" value="Off" time="0"/>
<Property name="PROP_PRE_CmdLineArgs" value="" time="0"/>
<Property name="PROP_PRE_EdfArrayBoundsCase" value="False" time="0"/>
<Property name="PROP_PRE_EdfAutoResOfRam" value="False" time="0"/>
<Property name="PROP_PRE_EdfClockDomainCross" value="False" time="0"/>
<Property name="PROP_PRE_EdfDSPAcrossHie" value="False" time="0"/>
<Property name="PROP_PRE_EdfFullCase" value="False" time="0"/>
<Property name="PROP_PRE_EdfIgnoreRamRWCol" value="False" time="0"/>
<Property name="PROP_PRE_EdfMissConstraint" value="False" time="0"/>
<Property name="PROP_PRE_EdfNetFanout" value="True" time="0"/>
<Property name="PROP_PRE_EdfParaCase" value="False" time="0"/>
<Property name="PROP_PRE_EdfReencodeFSM" value="True" time="0"/>
<Property name="PROP_PRE_EdfResSharing" value="True" time="0"/>
<Property name="PROP_PRE_EdfTimingViolation" value="True" time="0"/>
<Property name="PROP_PRE_EdfUseSafeFSM" value="False" time="0"/>
<Property name="PROP_PRE_EdfVlog2001" value="True" time="0"/>
<Property name="PROP_PRE_VSynComArea" value="True" time="0"/>
<Property name="PROP_PRE_VSynCritcal" value="3" time="0"/>
<Property name="PROP_PRE_VSynFSM" value="Auto" time="0"/>
<Property name="PROP_PRE_VSynFreq" value="200" time="0"/>
<Property name="PROP_PRE_VSynGSR" value="False" time="0"/>
<Property name="PROP_PRE_VSynGatedClk" value="False" time="0"/>
<Property name="PROP_PRE_VSynIOPad" value="False" time="0"/>
<Property name="PROP_PRE_VSynOutNetForm" value="None" time="0"/>
<Property name="PROP_PRE_VSynOutPref" value="True" time="0"/>
<Property name="PROP_PRE_VSynRepClkFreq" value="True" time="0"/>
<Property name="PROP_PRE_VSynRetime" value="True" time="0"/>
<Property name="PROP_PRE_VSynTimSum" value="10" time="0"/>
<Property name="PROP_PRE_VSynTransform" value="True" time="0"/>
<Property name="PROP_PRE_VSyninpd" value="0" time="0"/>
<Property name="PROP_PRE_VSynoutd" value="0" time="0"/>
<Property name="PROP_SYN_ClockConversion" value="True" time="0"/>
<Property name="PROP_SYN_CmdLineArgs" value="" time="0"/>
<Property name="PROP_SYN_DisableRegisterRep" value="False" time="0"/>
<Property name="PROP_SYN_EdfAllowDUPMod" value="False" time="0"/>
<Property name="PROP_SYN_EdfArea" value="False" time="0"/>
<Property name="PROP_SYN_EdfArrangeVHDLFiles" value="True" time="0"/>
<Property name="PROP_SYN_EdfDefEnumEncode" value="Default" time="0"/>
<Property name="PROP_SYN_EdfFanout" value="1000" time="0"/>
<Property name="PROP_SYN_EdfFrequency" value="200" time="0"/>
<Property name="PROP_SYN_EdfGSR" value="Auto" time="0"/>
<Property name="PROP_SYN_EdfInsertIO" value="False" time="0"/>
<Property name="PROP_SYN_EdfNumCritPath" value="3" time="0"/>
<Property name="PROP_SYN_EdfNumStartEnd" value="" time="0"/>
<Property name="PROP_SYN_EdfOutNetForm" value="None" time="0"/>
<Property name="PROP_SYN_EdfPushTirstates" value="True" time="0"/>
<Property name="PROP_SYN_EdfResSharing" value="True" time="0"/>
<Property name="PROP_SYN_EdfRunRetiming" value="Pipelining Only" time="0"/>
<Property name="PROP_SYN_EdfSymFSM" value="True" time="0"/>
<Property name="PROP_SYN_EdfUnconsClk" value="False" time="0"/>
<Property name="PROP_SYN_EdfVerilogInput" value="Verilog 2001" time="0"/>
<Property name="PROP_SYN_ExportSetting" value="No" time="0"/>
<Property name="PROP_SYN_LibPath" value="" time="0"/>
<Property name="PROP_SYN_ResolvedMixedDrivers" value="False" time="0"/>
<Property name="PROP_SYN_UpdateCompilePtTimData" value="False" time="0"/>
<Property name="PROP_SYN_UseLPF" value="True" time="0"/>
<Property name="PROP_SYN_VHDL2008" value="False" time="0"/>
<Property name="PROP_THERMAL_DefaultFreq" value="0" time="0"/>
<Property name="PROP_TIM_MaxDelSimDes" value="" time="0"/>
<Property name="PROP_TIM_MinSpeedGrade" value="False" time="0"/>
<Property name="PROP_TIM_ModPreSimDes" value="" time="0"/>
<Property name="PROP_TIM_NegStupHldTim" value="True" time="0"/>
<Property name="PROP_TIM_TimSimGenPUR" value="True" time="0"/>
<Property name="PROP_TIM_TimSimGenX" value="False" time="0"/>
<Property name="PROP_TIM_TimSimHierSep" value="" time="0"/>
<Property name="PROP_TIM_TransportModeOfPathDelay" value="False" time="0"/>
<Property name="PROP_TIM_TrgtSpeedGrade" value="" time="0"/>
<Property name="PROP_TIM_WriteVerboseNetlist" value="False" time="0"/>
<Property name="PROP_TMCHK_EnableCheck" value="True" time="0"/>
</Strategy>
+1
View File
@@ -0,0 +1 @@
VERSION=20110520
+38
View File
@@ -0,0 +1,38 @@
<?xml version="1.0" encoding="UTF-8"?>
<BaliProject version="3.2" title="NewExtIns_CPLD2" device="LCMXO2-7000HC-4FG484C" default_implementation="impl1">
<Options/>
<Implementation title="impl1" dir="impl1" description="impl1" synthesis="synplify" default_strategy="Strategy1">
<Options def_top="RelayConTop" top="RelayConTop"/>
<Source name="RelayConTop.v" type="Verilog" type_short="Verilog">
<Options top_module="RelayConTop"/>
</Source>
<Source name="BUS_Con.v" type="Verilog" type_short="Verilog">
<Options/>
</Source>
<Source name="Reg_file.v" type="Verilog" type_short="Verilog">
<Options/>
</Source>
<Source name="tb_RelayConTop.sv" type="Verilog" type_short="Verilog" syn_sim="SimOnly">
<Options VerilogStandard="System Verilog"/>
</Source>
<Source name="CPLD_Con.v" type="Verilog" type_short="Verilog">
<Options/>
</Source>
<Source name="NewExtIns_CPLD2.lpf" type="Logic Preference" type_short="LPF">
<Options/>
</Source>
<Source name="debug.rvl" type="Reveal" type_short="Reveal">
<Options/>
</Source>
<Source name="impl1/impl1.xcf" type="Programming Project File" type_short="Programming">
<Options/>
</Source>
<Source name="tb_RelayConTop/tb_RelayConTop.spf" type="Simulation Project File" type_short="SPF">
<Options/>
</Source>
<Source name="untitled.rva" type="Reveal Analyzer Project File" type_short="RVA">
<Options/>
</Source>
</Implementation>
<Strategy name="Strategy1" file="NewExtInsRelay1.sty"/>
</BaliProject>
+324
View File
@@ -0,0 +1,324 @@
rvl_alias "i_sys_clk" "i_sys_clk";
RVL_ALIAS "i_sys_clk" "i_sys_clk";
RVL_ALIAS "i_sys_clk" "i_sys_clk";
RVL_ALIAS "i_sys_clk" "i_sys_clk";
RVL_ALIAS "i_sys_clk" "i_sys_clk";
RVL_ALIAS "i_sys_clk" "i_sys_clk";
RVL_ALIAS "i_sys_clk" "i_sys_clk";
BLOCK RESETPATHS ;
BLOCK ASYNCPATHS ;
LOCATE COMP "i_sys_clk" SITE "B9" ;
LOCATE COMP "i_rst_n" SITE "Y14" ;
LOCATE COMP "i_sclk" SITE "AA16" ;
LOCATE COMP "i_cs" SITE "Y15" ;
LOCATE COMP "i_mosi" SITE "AB12" ;
//LOCATE COMP "o_RC_T[26]" SITE "U13" ;
//LOCATE COMP "o_RC_T[27]" SITE "U12" ;
//LOCATE COMP "o_RC_T[28]" SITE "T12" ;
//LOCATE COMP "o_RC_T[29]" SITE "T11" ;
//LOCATE COMP "o_RC_T[30]" SITE "U11" ;
//LOCATE COMP "o_RC_T[31]" SITE "V11" ;
IOBUF PORT "i_cs" IO_TYPE=LVCMOS33 ;
IOBUF PORT "i_mosi" IO_TYPE=LVCMOS33 ;
IOBUF PORT "i_rst_n" IO_TYPE=LVCMOS33 ;
IOBUF PORT "i_sclk" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_miso" IO_TYPE=LVCMOS33 PULLMODE=NONE DRIVE=8 ;
IOBUF PORT "o_wready" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_RC_F[0]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_F[1]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "i_sys_clk" DRIVE=NA IO_TYPE=LVCMOS33 SLEWRATE=NA PULLMODE=DOWN ;
IOBUF PORT "o_RC_F[2]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_F[3]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_F[4]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_F[5]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_F[6]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_F[7]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[0]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[1]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[2]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[3]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[4]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[5]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[6]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[7]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[8]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[9]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[10]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[11]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[12]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[13]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[14]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_S[15]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[0]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[1]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[2]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[3]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[4]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[5]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[6]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[7]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[8]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[9]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[10]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[11]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[12]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[13]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[14]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[15]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[16]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[17]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[18]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[19]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[20]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[21]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[22]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[23]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[24]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_RC_T[25]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_err" IO_TYPE=LVCMOS33 ;
BLOCK JTAGPATHS ;
LOCATE COMP "o_RC_F[0]" SITE "U13" ;
LOCATE COMP "o_RC_F[1]" SITE "U12" ;
LOCATE COMP "o_RC_F[2]" SITE "T12" ;
LOCATE COMP "o_RC_F[3]" SITE "T11" ;
LOCATE COMP "o_RC_F[4]" SITE "U11" ;
LOCATE COMP "o_RC_F[5]" SITE "V11" ;
LOCATE COMP "o_RC_F[6]" SITE "W11" ;
LOCATE COMP "o_RC_F[7]" SITE "U10" ;
LOCATE COMP "o_RC_S[0]" SITE "T10" ;
LOCATE COMP "o_RC_S[1]" SITE "W9" ;
LOCATE COMP "o_RC_S[2]" SITE "AB2" ;
LOCATE COMP "o_RC_S[3]" SITE "Y3" ;
LOCATE COMP "o_RC_S[4]" SITE "AA3" ;
LOCATE COMP "o_RC_S[5]" SITE "AB3" ;
LOCATE COMP "o_RC_S[6]" SITE "Y4" ;
LOCATE COMP "o_RC_S[7]" SITE "AA4" ;
LOCATE COMP "o_RC_S[8]" SITE "Y5" ;
LOCATE COMP "o_RC_S[9]" SITE "W6" ;
LOCATE COMP "o_RC_S[10]" SITE "AB5" ;
LOCATE COMP "o_RC_S[11]" SITE "AB6" ;
LOCATE COMP "o_RC_S[12]" SITE "Y6" ;
LOCATE COMP "o_RC_S[13]" SITE "Y7" ;
LOCATE COMP "o_RC_S[14]" SITE "AB7" ;
LOCATE COMP "o_RC_S[15]" SITE "AA7" ;
LOCATE COMP "o_RC_T[0]" SITE "AA8" ;
LOCATE COMP "o_RC_T[1]" SITE "Y10" ;
LOCATE COMP "o_RC_T[2]" SITE "AB10" ;
LOCATE COMP "o_RC_T[3]" SITE "AA10" ;
LOCATE COMP "o_RC_T[4]" SITE "AA11" ;
LOCATE COMP "o_RC_T[5]" SITE "AB11" ;
LOCATE COMP "o_RC_T[6]" SITE "AA12" ;
LOCATE COMP "o_RC_T[7]" SITE "AB13" ;
LOCATE COMP "o_RC_T[8]" SITE "V8" ;
LOCATE COMP "o_RC_T[9]" SITE "V12" ;
LOCATE COMP "o_RC_T[10]" SITE "W12" ;
LOCATE COMP "o_RC_T[11]" SITE "Y12" ;
LOCATE COMP "o_RC_T[12]" SITE "V13" ;
LOCATE COMP "o_RC_T[13]" SITE "V14" ;
LOCATE COMP "o_RC_T[14]" SITE "V16" ;
LOCATE COMP "o_RC_T[15]" SITE "AB17" ;
LOCATE COMP "o_RC_T[16]" SITE "Y18" ;
LOCATE COMP "o_RC_T[17]" SITE "AA19" ;
LOCATE COMP "o_RC_T[18]" SITE "AB20" ;
LOCATE COMP "o_RC_T[19]" SITE "W19" ;
LOCATE COMP "o_RC_T[20]" SITE "W17" ;
LOCATE COMP "o_RC_T[21]" SITE "Y17" ;
LOCATE COMP "o_RC_T[22]" SITE "T15" ;
LOCATE COMP "o_RC_T[23]" SITE "U15" ;
LOCATE COMP "o_RC_T[24]" SITE "T13" ;
LOCATE COMP "o_RC_T[25]" SITE "AA13" ;
LOCATE COMP "o_err" SITE "AB16" ;
IOBUF PORT "o_PMU_OC_1[0]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[1]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[2]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[3]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[4]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[5]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[6]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[7]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[9]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[10]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[11]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[12]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[13]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[14]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[15]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[16]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[17]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[18]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[19]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[20]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[21]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[22]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[23]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[24]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[25]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[26]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[27]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[28]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[29]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[30]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[31]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[0]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[1]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[2]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[3]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[4]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[5]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[6]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[7]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[9]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[10]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[11]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[12]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[13]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[14]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[15]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[16]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[17]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[18]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[19]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[20]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[21]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[22]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[23]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[24]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[25]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[26]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[27]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[28]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[29]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[30]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_2[31]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[0]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[1]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[2]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[3]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[4]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[5]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[6]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[7]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[9]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[10]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[11]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[12]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[13]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[14]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[15]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[16]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[17]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[18]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[19]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[20]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[21]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[22]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[23]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[24]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[25]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[26]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[27]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[28]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[29]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[30]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_3[31]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[0]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[1]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[2]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[3]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[4]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[5]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[6]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[7]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[9]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[10]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[11]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[12]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[13]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[14]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[15]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[16]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[17]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[18]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[19]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[20]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[21]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[22]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[23]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[24]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[25]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[26]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[27]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[28]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[29]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[30]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_4[31]" IO_TYPE=LVCMOS33 PULLMODE=NONE ;
IOBUF PORT "o_PMU_OC_1[8]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_PMU_OC_2[8]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_PMU_OC_3[8]" IO_TYPE=LVCMOS33 ;
IOBUF PORT "o_PMU_OC_4[8]" IO_TYPE=LVCMOS33 ;
LOCATE COMP "o_PMU_OC_1[8]" SITE "D14" ;
LOCATE COMP "o_PMU_OC_1[9]" SITE "G13" ;
LOCATE COMP "o_PMU_OC_1[10]" SITE "C13" ;
LOCATE COMP "o_PMU_OC_1[11]" SITE "F13" ;
LOCATE COMP "o_PMU_OC_1[12]" SITE "C17" ;
LOCATE COMP "o_PMU_OC_1[13]" SITE "F17" ;
LOCATE COMP "o_PMU_OC_1[14]" SITE "D17" ;
LOCATE COMP "o_PMU_OC_1[15]" SITE "E17" ;
LOCATE COMP "o_PMU_OC_1[24]" SITE "N5" ;
LOCATE COMP "o_PMU_OC_1[25]" SITE "D15" ;
LOCATE COMP "o_PMU_OC_1[26]" SITE "P3" ;
LOCATE COMP "o_PMU_OC_1[27]" SITE "M4" ;
LOCATE COMP "o_PMU_OC_1[28]" SITE "R6" ;
LOCATE COMP "o_PMU_OC_1[29]" SITE "T5" ;
LOCATE COMP "o_PMU_OC_1[30]" SITE "P6" ;
LOCATE COMP "o_PMU_OC_1[31]" SITE "U4" ;
LOCATE COMP "o_PMU_OC_2[8]" SITE "C1" ;
LOCATE COMP "o_PMU_OC_2[9]" SITE "C2" ;
LOCATE COMP "o_PMU_OC_2[10]" SITE "C3" ;
LOCATE COMP "o_PMU_OC_2[11]" SITE "B1" ;
LOCATE COMP "o_PMU_OC_2[12]" SITE "H5" ;
LOCATE COMP "o_PMU_OC_2[13]" SITE "H6" ;
LOCATE COMP "o_PMU_OC_2[14]" SITE "H2" ;
LOCATE COMP "o_PMU_OC_2[15]" SITE "H3" ;
LOCATE COMP "o_PMU_OC_2[24]" SITE "T7" ;
LOCATE COMP "o_PMU_OC_2[25]" SITE "U5" ;
LOCATE COMP "o_PMU_OC_2[26]" SITE "W5" ;
LOCATE COMP "o_PMU_OC_2[27]" SITE "T6" ;
LOCATE COMP "o_PMU_OC_2[28]" SITE "E8" ;
LOCATE COMP "o_PMU_OC_2[29]" SITE "E9" ;
LOCATE COMP "o_PMU_OC_2[30]" SITE "E10" ;
LOCATE COMP "o_PMU_OC_2[31]" SITE "D11" ;
LOCATE COMP "o_PMU_OC_3[8]" SITE "A11" ;
LOCATE COMP "o_PMU_OC_3[9]" SITE "A12" ;
LOCATE COMP "o_PMU_OC_3[10]" SITE "B12" ;
LOCATE COMP "o_PMU_OC_3[11]" SITE "A13" ;
LOCATE COMP "o_PMU_OC_3[12]" SITE "B19" ;
LOCATE COMP "o_PMU_OC_3[13]" SITE "C18" ;
LOCATE COMP "o_PMU_OC_3[14]" SITE "A17" ;
LOCATE COMP "o_PMU_OC_3[15]" SITE "B16" ;
LOCATE COMP "o_PMU_OC_3[24]" SITE "B13" ;
LOCATE COMP "o_PMU_OC_3[25]" SITE "B14" ;
LOCATE COMP "o_PMU_OC_3[26]" SITE "B15" ;
LOCATE COMP "o_PMU_OC_3[27]" SITE "C15" ;
LOCATE COMP "o_PMU_OC_3[28]" SITE "G21" ;
LOCATE COMP "o_PMU_OC_3[29]" SITE "E22" ;
LOCATE COMP "o_PMU_OC_3[30]" SITE "E20" ;
LOCATE COMP "o_PMU_OC_3[31]" SITE "D21" ;
LOCATE COMP "o_PMU_OC_4[8]" SITE "G1" ;
LOCATE COMP "o_PMU_OC_4[9]" SITE "G2" ;
LOCATE COMP "o_PMU_OC_4[10]" SITE "G3" ;
LOCATE COMP "o_PMU_OC_4[11]" SITE "F1" ;
LOCATE COMP "o_PMU_OC_4[12]" SITE "C4" ;
LOCATE COMP "o_PMU_OC_4[13]" SITE "C5" ;
LOCATE COMP "o_PMU_OC_4[14]" SITE "G11" ;
LOCATE COMP "o_PMU_OC_4[15]" SITE "E11" ;
LOCATE COMP "o_PMU_OC_4[24]" SITE "E1" ;
LOCATE COMP "o_PMU_OC_4[25]" SITE "D1" ;
LOCATE COMP "o_PMU_OC_4[26]" SITE "E2" ;
LOCATE COMP "o_PMU_OC_4[27]" SITE "D3" ;
LOCATE COMP "o_PMU_OC_4[28]" SITE "C11" ;
LOCATE COMP "o_PMU_OC_4[29]" SITE "A2" ;
LOCATE COMP "o_PMU_OC_4[30]" SITE "B3" ;
LOCATE COMP "o_PMU_OC_4[31]" SITE "A3" ;
USE PRIMARY NET "i_sys_clk_c" ;
IOBUF PORT "o_rvalid" IO_TYPE=LVCMOS33 ;
+178
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module Reg_file (
input i_sys_clk,
input i_rst_n,
// Bus Interface
input i_wr_req,
input i_wr,
input [6:0] i_addr,
input [23:0] i_wdata,
output [23:0] o_rdata,
output o_rvalid,
output o_busy,
output o_err,
// Controller Interface
input i_con_done, // 1=IDLE/DONE, 0=BUSY
output o_exec,
// Direct Register Outputs
output [23:0] o_freq1,
output [23:0] o_freq2,
output [23:0] o_freq3,
output [23:0] o_freq4,
//DC Regs
output [23:0] o_DC1,
output [23:0] o_DC2,
output [23:0] o_DC3,
output [23:0] o_DC4
);
// --- Parameters ---
localparam REG_COUNT = 16;
localparam [23:0]
IDENT = 24'h400000 | 12'b0001_0001_0000, //CPLD2==1,version=1.1.0
STATE_INIT = 24'h800000;
// State Machine Definition
localparam IDLE = 4'd0;
localparam BUSY = 4'd1;
localparam EXEC_ACK = 4'd2; // Wait for controller to go BUSY (Done=0)
localparam EXEC_WAIT = 4'd3; // Wait for controller to go DONE (Done=1)
// --- Internal Signals ---
reg [3:0] state;
reg [23:0] regtable [0:REG_COUNT - 1];
reg [23:0] rdata_reg;
reg busy_flag;
reg err_flag;
reg rvalid_flag;
integer i;
// Mapping Control Bits
wire exec_bit = regtable[1][0];
always @(posedge i_sys_clk or negedge i_rst_n) begin
if (!i_rst_n) begin
for (i = 0; i < REG_COUNT; i = i + 1) begin
regtable[i] <= 24'h0;
end
regtable[0] <= IDENT;
regtable[1] <= STATE_INIT;
rvalid_flag <= 1'b0;
busy_flag <= 1'b0;
err_flag <= 1'b0;
state <= IDLE;
end
else begin
case (state)
IDLE: begin
rvalid_flag <= 1'b0;
err_flag <= 1'b0;
// Priority Check: Did we crash/reset while EXEC bit was still 1?
if (exec_bit == 1'b1) begin
state <= EXEC_ACK;
busy_flag <= 1'b1;
end
else if (i_wr_req == 1'b1) begin
busy_flag <= 1'b1;
state <= BUSY;
// Addr Sanity Check
if ((i_wr && (i_addr == 'd0 || i_addr >= REG_COUNT)) ||
(!i_wr && (i_addr >= REG_COUNT)))
begin
err_flag <= 1'b1;
end
end
else begin
busy_flag <= 1'b0;
end
end
BUSY: begin
if (err_flag) begin
state <= IDLE;
end
else begin
if (i_wr == 1'b1) begin // --- WRITE ---
if (exec_bit == 1'b1) begin
// Cannot write if Controller is already running
err_flag <= 1'b1;
state <= IDLE;
end
else begin
regtable[i_addr] <= i_wdata;
// Check if this write is a "Start Command"
if (i_addr == 7'd1 && i_wdata[0] == 1'b1) begin
// Go to Handshake Start
state <= EXEC_ACK;
end else begin
state <= IDLE;
end
end
end
else begin // --- READ ---
rdata_reg <= regtable[i_addr];
rvalid_flag <= 1'b1;
state <= IDLE;
end
end
end
// --- EXEC PHASE 1: ACK ---
// Wait for Controller to register the command and pull 'done' LOW (Busy)
EXEC_ACK: begin
busy_flag <= 1'b1;
if (i_con_done == 1'b0) begin
state <= EXEC_WAIT;
end
// Optional: Timeout counter here to prevent hanging if Controller is dead
end
// --- EXEC PHASE 2: WAIT ---
// Now wait for Controller to finish and pull 'done' HIGH (Idle/Ready)
EXEC_WAIT: begin
busy_flag <= 1'b1;
if (i_con_done == 1'b1) begin
// 1. Clear the Exec bit (Auto-Clear)
// 2. Set the Ready bit (Bit 23) if you wish
regtable[1] <= {1'b1, regtable[1][22:1], 1'b0};
busy_flag <= 1'b0;
state <= IDLE;
end
end
default: state <= IDLE;
endcase
end
end
assign o_rvalid = rvalid_flag;
assign o_rdata = rdata_reg;
assign o_busy = busy_flag;
assign o_err = err_flag;
// Output the control bit to the controller
// This stays HIGH during both EXEC_ACK and EXEC_WAIT
assign o_exec = exec_bit;
assign o_freq1 = regtable[2];
assign o_freq2 = regtable[3];
assign o_freq3 = regtable[4];
assign o_freq4 = regtable[5];
assign o_DC1 = regtable[6];
assign o_DC2 = regtable[7];
assign o_DC3 = regtable[8];
assign o_DC4 = regtable[9];
endmodule
+167
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@@ -0,0 +1,167 @@
module RelayConTop (
input i_sys_clk,
input i_rst_n,
input i_sclk,
input i_mosi,
input i_cs,
output o_miso,
output o_rvalid,
input i_rready,
input i_wvalid,
output o_wready,
output o_err,
output [7:0]o_RC_F, //Ref: Schematic
output [15:0]o_RC_S,
output [25:0]o_RC_T, //Actually ONLY 25 pin(rest is on CPLD1)
//output [3:0] o_OC_x09,
//output [3:0] o_OC_x25,
output [31:0]o_PMU_OC_1 ,
output [31:0]o_PMU_OC_2 ,
output [31:0]o_PMU_OC_3 ,
output [31:0]o_PMU_OC_4
);
wire [7:0] RC_F;
wire [15:0] RC_S;
wire [31:0] RC_T;
wire [3:0]OC_x09 ;
wire [3:0]OC_x25 ;
wire [23:0]r_data ;
wire [23:0]w_data ;
wire [6:0]reg_addr ;
wire cmd_valid;
wire reg_busy;
wire wr_flag; //1=write,0=read
wire bus_err_flag;
wire reg_err_flag;
wire cpld_err_flag;
wire con_exec;
wire [23:0]freq1_relay ;
wire [23:0]freq2_relay ;
wire [23:0]freq3_relay ;
wire [23:0]freq4_relay ;
//DC Control Reg output
wire [23:0]DC_Con1 ;
wire [23:0]DC_Con2 ;
wire [23:0]DC_Con3 ;
wire [23:0]DC_Con4 ;
//PMU OC Control
wire [31:0]PMU_OC_1 ;
wire [31:0]PMU_OC_2 ;
wire [31:0]PMU_OC_3 ;
wire [31:0]PMU_OC_4 ;
wire con_rvalid;
wire con_done;
BUS_Con BUS_Con_2(
.i_sys_clk(i_sys_clk),
.i_rst_n(i_rst_n),
.i_sclk(i_sclk),
.i_mosi(i_mosi),
.i_cs(i_cs),
.i_rvalid(con_rvalid),
.i_wvalid(i_wvalid),
.i_reg_busy(reg_busy),
.i_rdata(r_data),
.o_cmd_valid(cmd_valid),
.o_wr(wr_flag),
.o_miso(o_miso),
.o_rvalid(o_rvalid),
.o_wready(o_wready),
.o_data(w_data),
.o_addr(reg_addr),
.o_err(bus_err_flag)
);
Reg_file CPLD_Reg_2(
.i_sys_clk(i_sys_clk),
.i_rst_n(i_rst_n),
.i_wr_req(cmd_valid),
.i_wr(wr_flag),
.i_addr(reg_addr),
.i_wdata(w_data),
.i_con_done(con_done), //Controller Exec Done
.o_freq1(freq1_relay), //Freq_Slot1
.o_freq2(freq2_relay), //Freq_Slot2
.o_freq3(freq3_relay), //Freq_Slot3
.o_freq4(freq4_relay), //Freq_Slot4
.o_DC1(DC_Con1),
.o_DC2(DC_Con2),
.o_DC3(DC_Con3),
.o_DC4(DC_Con4),
.o_rvalid(con_rvalid),
.o_rdata(r_data),
.o_exec(con_exec), //Exec cmd
.o_busy(reg_busy),
.o_err(reg_err_flag)
);
CPLD_Con CPLD_Con_2(
.i_sys_clk(i_sys_clk),
.i_rst_n(i_rst_n),
.i_con_exec(con_exec),
.i_freq_relay1(freq1_relay),
.i_freq_relay2(freq2_relay),
.i_freq_relay3(freq3_relay),
.i_freq_relay4(freq4_relay),
.i_DC_Con1(DC_Con1),
.i_DC_Con2(DC_Con2),
.i_DC_Con3(DC_Con3),
.i_DC_Con4(DC_Con4),
.o_PMU_OC_1(PMU_OC_1),
.o_PMU_OC_2(PMU_OC_2),
.o_PMU_OC_3(PMU_OC_3),
.o_PMU_OC_4(PMU_OC_4),
.o_con_done(con_done),
.o_RC_F(RC_F),
.o_RC_S(RC_S),
.o_RC_T(RC_T),
.o_OC_x09(OC_x09),
.o_OC_x25(OC_x25),
.o_err(cpld_err_flag)
);
assign o_RC_F = RC_F;
assign o_RC_S = RC_S;
assign o_RC_T = RC_T[25:0];
assign o_PMU_OC_1[8] = OC_x09[0];
assign o_PMU_OC_2[8] = OC_x09[1];
assign o_PMU_OC_3[8] = OC_x09[2];
assign o_PMU_OC_4[8] = OC_x09[3];
assign o_PMU_OC_1[24] = OC_x25[0];
assign o_PMU_OC_2[24] = OC_x25[1];
assign o_PMU_OC_3[24] = OC_x25[2];
assign o_PMU_OC_4[24] = OC_x25[3];
assign o_PMU_OC_1[7:0] = PMU_OC_1[7:0];
assign o_PMU_OC_1[23:9] = PMU_OC_1[23:8];
assign o_PMU_OC_1[31:25] = PMU_OC_1[31:25];
assign o_PMU_OC_2[7:0] = PMU_OC_2[7:0];
assign o_PMU_OC_2[23:9] = PMU_OC_2[23:9];
assign o_PMU_OC_2[31:25] = PMU_OC_2[31:25];
assign o_PMU_OC_3[7:0] = PMU_OC_3[7:0];
assign o_PMU_OC_3[23:9] = PMU_OC_3[23:9];
assign o_PMU_OC_3[31:25]= PMU_OC_3[31:25];
assign o_PMU_OC_4[7:0] = PMU_OC_4[7:0];
assign o_PMU_OC_4[23:9] = PMU_OC_4[23:9];
assign o_PMU_OC_4[31:25] = PMU_OC_4[31:25];
assign o_err = bus_err_flag || reg_err_flag || cpld_err_flag;
endmodule
+68
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@@ -0,0 +1,68 @@
<Project ModBy="Inserter" SigType="0" Name="/home/ly0kos/work/prj/New_CalBoard/2.FW/CPLD2/debug.rvl" Date="2026-05-26">
<IP Version="1_6_042617"/>
<Design DesignEntry="Schematic/Verilog HDL" Synthesis="synplify" DeviceFamily="MachXO2" DesignName="NewExtIns_CPLD2"/>
<Core InsertDataset="0" Insert="1" Reveal_sig="695532641" Name="RelayConTop_LA0" ID="0">
<Setting>
<Clock SampleClk="i_sys_clk" SampleEnable="0" EnableClk="" EnableClk_Pri="0"/>
<TraceBuffer Implementation="0" BitTimeStamp="0" hasTimeStamp="0" IncTrigSig="0" BufferDepth="2048"/>
<Capture Mode="0" MinSamplesPerTrig="8"/>
<Event CntEnable="0" MaxEventCnt="8"/>
<TrigOut Polarity="0" MinPulseWidth="0" TrigOutNetType="1" EnableTrigOut="0" TrigOutNet="reveal_debug_RelayConTop_LA0_net"/>
<DistRAM Disable="0"/>
</Setting>
<Dataset Name="Base">
<Trace>
<Sig Type="SIG" Name="i_rst_n"/>
<Sig Type="SIG" Name="BUS_Con_2/i_cs"/>
<Sig Type="SIG" Name="BUS_Con_2/i_sclk"/>
<Sig Type="SIG" Name="BUS_Con_2/i_mosi"/>
<Sig Type="SIG" Name="BUS_Con_2/i_reg_busy"/>
<Sig Type="SIG" Name="CPLD_Reg_2/o_exec"/>
<Bus Name="RC_T">
<Sig Type="SIG" Name="RC_T:0"/>
<Sig Type="SIG" Name="RC_T:1"/>
<Sig Type="SIG" Name="RC_T:2"/>
<Sig Type="SIG" Name="RC_T:3"/>
<Sig Type="SIG" Name="RC_T:4"/>
<Sig Type="SIG" Name="RC_T:5"/>
<Sig Type="SIG" Name="RC_T:6"/>
<Sig Type="SIG" Name="RC_T:7"/>
<Sig Type="SIG" Name="RC_T:8"/>
<Sig Type="SIG" Name="RC_T:9"/>
<Sig Type="SIG" Name="RC_T:10"/>
<Sig Type="SIG" Name="RC_T:11"/>
<Sig Type="SIG" Name="RC_T:12"/>
<Sig Type="SIG" Name="RC_T:13"/>
<Sig Type="SIG" Name="RC_T:14"/>
<Sig Type="SIG" Name="RC_T:15"/>
<Sig Type="SIG" Name="RC_T:16"/>
<Sig Type="SIG" Name="RC_T:17"/>
<Sig Type="SIG" Name="RC_T:18"/>
<Sig Type="SIG" Name="RC_T:19"/>
<Sig Type="SIG" Name="RC_T:20"/>
<Sig Type="SIG" Name="RC_T:21"/>
<Sig Type="SIG" Name="RC_T:22"/>
<Sig Type="SIG" Name="RC_T:23"/>
<Sig Type="SIG" Name="RC_T:24"/>
<Sig Type="SIG" Name="RC_T:25"/>
<Sig Type="SIG" Name="RC_T:26"/>
<Sig Type="SIG" Name="RC_T:27"/>
<Sig Type="SIG" Name="RC_T:28"/>
<Sig Type="SIG" Name="RC_T:29"/>
<Sig Type="SIG" Name="RC_T:30"/>
<Sig Type="SIG" Name="RC_T:31"/>
</Bus>
<Sig Type="SIG" Name="BUS_Con_2/err_flag"/>
<Sig Type="SIG" Name="CPLD_Con_2/err_flag"/>
<Sig Type="SIG" Name="CPLD_Reg_2/err_flag"/>
<Sig Type="SIG" Name="CPLD_Con_2/i_con_exec"/>
</Trace>
<Trigger>
<TU Serialbits="0" Type="0" ID="1" Sig="i_cs,"/>
<TU Serialbits="0" Type="0" ID="2" Sig="i_rst_n,"/>
<TE MaxSequence="2" MaxEvnCnt="1" ID="1" Resource="0"/>
<TE MaxSequence="2" MaxEvnCnt="1" ID="2" Resource="0"/>
</Trigger>
</Dataset>
</Core>
</Project>
+964
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//------------------------------------------------------------------------------
//
// Testbench: CPLD2 - RelayConTop
// Project: NewCalBoard DIG
// Tool: Lattice Diamond Verilog-2001 simulator
// Purpose: Verify SPI interface, register file, and relay control logic
// for CPLD2 (RC_F/RC_S/RC_T relay control + OC channels + PMU_OC).
//
// CPLD2-specific:
// - Outputs: RC_F[7:0], RC_S[15:0], RC_T[25:0], OC_x09[3:0], OC_x25[3:0]
// - PMU_OC_1-4[31:0] (from OC_x09/OC_x25 mapping)
// - CPLD_Con handles freq relays only (DC slots are stubs)
// - Signal names: i_wvaild (typo), i_rvaild (typo)
//
// Architecture (3 sub-modules):
// RelayConTop
// - BUS_Con - SPI Mode 0 master interface (32-bit transactions)
// - Reg_file - 16-register file + execution FSM
// - CPLD_Con - Freq relay control logic (no DC handling)
//
// SPI Protocol:
// Frame: [WR:1][Addr:7][Data:24] (MSB first, CPOL=0 CPHA=0)
// Read response: [8'h00][24-bit rdata]
//
//------------------------------------------------------------------------------
`timescale 1ns / 1ps
`define SYS_CLK_PERIOD 20 // 50 MHz system clock
`define SPI_CLK_PERIOD 400 // 1 MHz SPI clock (200x slower than sys clk)
module tb_RelayConTop;
//==========================================================================
// Signal declarations - mirrors CPLD2 RelayConTop pinout
//==========================================================================
// Clock & reset
reg i_sys_clk;
reg i_rst_n;
// SPI interface (Zynq PS drives these)
reg i_sclk;
reg i_mosi;
reg i_cs;
// Flow control (CPLD2 uses typo names: i_wvaild, i_rvaild)
reg i_rready;
reg i_wvaild;
// Status outputs (monitored by testbench)
// Note: CPLD2 does NOT expose o_con_done as a top-level output
wire o_miso;
wire o_rvalid;
wire o_wready;
wire o_err;
// Relay control outputs (CPLD2 specific)
wire [7:0] o_RC_F; // RC_F relays (2 bits used per slot)
wire [15:0] o_RC_S; // RC_S relays (4 bits used per slot)
wire [25:0] o_RC_T; // RC_T relays (8 bits used per slot, only 26 bits)
// OC channel selectors
wire [3:0] o_OC_x09; // OC channel selector (range 65-72)
wire [3:0] o_OC_x25; // OC channel selector (range 193-200)
// PMU output channels (4 x 32-bit, mapped from OC_x09/OC_x25)
wire [31:0] o_PMU_OC_1;
wire [31:0] o_PMU_OC_2;
wire [31:0] o_PMU_OC_3;
wire [31:0] o_PMU_OC_4;
//==========================================================================
// DUT instantiation - CPLD2 specific pin names
// Note: CPLD2 does NOT expose o_con_done as a top-level output
//==========================================================================
RelayConTop DUT (
.i_sys_clk (i_sys_clk),
.i_rst_n (i_rst_n),
.i_sclk (i_sclk),
.i_mosi (i_mosi),
.i_cs (i_cs),
.o_miso (o_miso),
.o_rvalid (o_rvalid),
.i_rready (i_rready),
.i_wvaild (i_wvaild), // CPLD2 typo: wvaild
.o_wready (o_wready),
.o_err (o_err),
.o_RC_F (o_RC_F),
.o_RC_S (o_RC_S),
.o_RC_T (o_RC_T),
.o_PMU_OC_1 (o_PMU_OC_1),
.o_PMU_OC_2 (o_PMU_OC_2),
.o_PMU_OC_3 (o_PMU_OC_3),
.o_PMU_OC_4 (o_PMU_OC_4)
);
//==========================================================================
// Clock generation
//==========================================================================
// System clock: 50 MHz (period = 20 ns)
initial begin
i_sys_clk = 0;
forever #(`SYS_CLK_PERIOD / 2) i_sys_clk = ~i_sys_clk;
end
// SPI clock: 1 MHz (period = 400 ns)
initial begin
i_sclk = 0;
forever #(`SPI_CLK_PERIOD / 2) i_sclk = ~i_sclk;
end
//==========================================================================
// Test statistics
//==========================================================================
integer test_pass;
integer test_fail;
integer test_num;
initial begin
test_pass = 0;
test_fail = 0;
test_num = 0;
end
// Helper: log a pass
task tb_pass;
input string msg;
begin
test_pass = test_pass + 1;
$display("[PASS] Test %0d: %s", test_num, msg);
end
endtask
// Helper: log a fail with optional detail
task tb_fail;
input string msg;
input string detail;
begin
test_fail = test_fail + 1;
$display("[FAIL] Test %0d: %s >> %s", test_num, msg, detail);
end
endtask
// Helper: assert a condition
task tb_assert;
input condition;
input string msg;
input string detail;
begin
test_num = test_num + 1;
if (condition) begin
tb_pass(msg);
end else begin
tb_fail(msg, detail);
end
end
endtask
//==========================================================================
// SPI helper tasks
//
// SPI Mode 0 timing:
// - CPOL = 0: SCLK idle LOW
// - CPHA = 0: data sampled on RISING edge, shifted on FALLING edge
// - MSB first, 32 bits per transaction
//
// Frame layout: [bit31: WR] [bit30:24: Addr(7b)] [bit23:0: Data(24b)]
// Read response: [8'h00][24-bit rdata] shifted out on falling SCLK edges
//
// MISO is tri-stated (high-Z) when CS is HIGH.
//==========================================================================
// --- spi_send: Drive a 32-bit word out through MOSI ---
task spi_send;
input [31:0] data;
integer i;
begin
@(negedge i_sclk);
i_cs = 1'b0;
@(negedge i_sclk);
for (i = 31; i >= 0; i = i - 1) begin
i_mosi = data[i];
@(posedge i_sclk);
end
@(negedge i_sclk);
i_cs = 1'b1;
i_mosi = 1'b0;
@(negedge i_sclk);
end
endtask
// --- spi_read: Send command, capture 32-bit response on MISO ---
task spi_read;
input [31:0] cmd;
output [31:0] rdata;
integer i;
begin
@(negedge i_sclk);
i_cs = 1'b0;
@(negedge i_sclk);
rdata = 32'b0;
for (i = 31; i >= 0; i = i - 1) begin
i_mosi = cmd[i];
@(posedge i_sclk);
@(negedge i_sclk);
#1;
rdata[i] = o_miso;
end
@(negedge i_sclk);
i_cs = 1'b1;
i_mosi = 1'b0;
@(negedge i_sclk);
end
endtask
// --- spi_write: Send a write command (no response capture needed) ---
task spi_write;
input [31:0] data;
begin
spi_send(data);
end
endtask
// --- wait_con_done: Poll o_wready for HIGH (CPLD2 doesn't expose con_done)
// When execution completes, the SPI interface becomes ready again (o_wready=1)
task wait_con_done;
input [15:0] max_cycles;
output [1:0] result;
integer i;
begin
result = 2'b0;
// Wait for o_wready to go HIGH (SPI interface ready after execution)
for (i = 0; i < max_cycles; i = i + 1) begin
#(`SYS_CLK_PERIOD);
if (o_wready) begin
result = 2'b1;
return;
end
end
end
endtask
// --- wait_wready: Poll o_wready until HIGH ---
task wait_wready;
input [15:0] max_cycles;
output [1:0] result;
integer i;
begin
result = 2'b0;
for (i = 0; i < max_cycles; i = i + 1) begin
#(`SYS_CLK_PERIOD);
if (o_wready) begin
result = 2'b1;
return;
end
end
end
endtask
//==========================================================================
// Convenience: build SPI frame fields
//==========================================================================
function [31:0] mk_write;
input [6:0] addr;
input [23:0] data;
begin
mk_write = {1'b1, addr, data};
end
endfunction
function [31:0] mk_read;
input [6:0] addr;
begin
mk_read = {1'b0, addr, 24'b0};
end
endfunction
//==========================================================================
// Main test sequence
//==========================================================================
initial begin
// Initialize all signals to safe defaults
i_rst_n = 1'b0;
i_cs = 1'b1;
i_mosi = 1'b0;
i_rready = 1'b0;
i_wvaild = 1'b0;
// Hold reset for 4 system clock cycles (80 ns)
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
// Allow CPLD internal state machines to settle
#(`SYS_CLK_PERIOD * 10);
$display("");
$display("=============================================================");
$display(" CPLD2 RelayConTop - Comprehensive Testbench");
$display(" System clock: %d MHz | SPI clock: %d MHz",
1000 / `SYS_CLK_PERIOD, 1000 / `SPI_CLK_PERIOD);
$display(" Outputs: RC_F[7:0], RC_S[15:0], RC_T[25:0], OC_x09/25, PMU_OC[4x32]");
$display("=============================================================");
$display("");
test_reset_behavior();
test_register_rw();
test_exec_protocol();
test_freq_slots();
test_rc_relay_outputs();
test_dc_stub_behavior();
test_error_conditions();
test_edge_cases();
print_summary();
#(`SYS_CLK_PERIOD * 20);
$finish;
end
//==========================================================================
// Test Group 1: Reset behavior & IDENT register (ADDR 0)
//==========================================================================
task test_reset_behavior;
reg [31:0] r_ident;
begin
$display("-------------------------------------------------------------");
$display(" Group 1: Reset behavior & IDENT register");
$display("-------------------------------------------------------------");
tb_assert(o_wready === 1'b1,
"o_wready is HIGH after reset (SPI ready, controller idle)", "");
tb_assert(o_err === 1'b0,
"o_err is LOW after reset", "");
tb_assert(o_wready === 1'b1,
"o_wready is HIGH after reset (SPI ready)", "");
// IDENT register: CPLD2=bit22, version=1.1.0 = 24'h400010
spi_read(mk_read(7'd0), r_ident);
r_ident = r_ident[23:0];
tb_assert(r_ident === 24'h400010,
"IDENT register returns 24'h400010 (CPLD2, v1.1.0)", "");
// All relay outputs should be zero after reset
tb_assert(o_RC_F === 8'b0,
"o_RC_F is all zeros after reset", "");
tb_assert(o_RC_S === 16'b0,
"o_RC_S is all zeros after reset", "");
tb_assert(o_RC_T[25:0] === 26'b0,
"o_RC_T[25:0] is all zeros after reset", "");
tb_assert(o_OC_x09 === 4'b0,
"o_OC_x09 is all zeros after reset", "");
tb_assert(o_OC_x25 === 4'b0,
"o_OC_x25 is all zeros after reset", "");
tb_assert(o_PMU_OC_1 === 32'b0 && o_PMU_OC_2 === 32'b0 &&
o_PMU_OC_3 === 32'b0 && o_PMU_OC_4 === 32'b0,
"All PMU_OC outputs are zero after reset", "");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 2: Register read/write (ADDR 0-9)
//==========================================================================
task test_register_rw;
reg [31:0] rdata;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 2: Register read/write (ADDR 0-9)");
$display("-------------------------------------------------------------");
spi_write(mk_write(7'd2, 24'h000005));
@(negedge i_sclk);
spi_read(mk_read(7'd2), rdata);
tb_assert(rdata === 24'h000005,
"Freq_Slot1 (ADDR 2) write/read back", "");
spi_write(mk_write(7'd3, 24'h003001));
@(negedge i_sclk);
spi_read(mk_read(7'd3), rdata);
tb_assert(rdata === 24'h003001,
"Freq_Slot2 (ADDR 3) write/read back", "");
spi_write(mk_write(7'd4, 24'h001040));
@(negedge i_sclk);
spi_read(mk_read(7'd4), rdata);
tb_assert(rdata === 24'h001040,
"Freq_Slot3 (ADDR 4) write/read back", "");
spi_write(mk_write(7'd5, 24'h000802));
@(negedge i_sclk);
spi_read(mk_read(7'd5), rdata);
tb_assert(rdata === 24'h000802,
"Freq_Slot4 (ADDR 5) write/read back", "");
spi_write(mk_write(7'd6, 24'h002003));
@(negedge i_sclk);
spi_read(mk_read(7'd6), rdata);
tb_assert(rdata === 24'h002003,
"DC_Slot1 (ADDR 6) write/read back", "");
spi_write(mk_write(7'd7, 24'h004005));
@(negedge i_sclk);
spi_read(mk_read(7'd7), rdata);
tb_assert(rdata === 24'h004005,
"DC_Slot2 (ADDR 7) write/read back", "");
spi_write(mk_write(7'd8, 24'h006007));
@(negedge i_sclk);
spi_read(mk_read(7'd8), rdata);
tb_assert(rdata === 24'h006007,
"DC_Slot3 (ADDR 8) write/read back", "");
spi_write(mk_write(7'd9, 24'h008009));
@(negedge i_sclk);
spi_read(mk_read(7'd9), rdata);
tb_assert(rdata === 24'h008009,
"DC_Slot4 (ADDR 9) write/read back", "");
spi_read(mk_read(7'd1), rdata);
tb_assert(rdata === 24'h800000,
"STATE register (ADDR 1) default (RDY=1)", "");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 3: Execution protocol
//==========================================================================
task test_exec_protocol;
reg [1:0] done_result;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 3: Execution protocol");
$display("-------------------------------------------------------------");
// Configure and trigger execution with Freq_Slot1
spi_write(mk_write(7'd2, 24'h000005));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001)); // EXEC=1
@(negedge i_sclk);
wait_con_done(500, done_result);
tb_assert(done_result === 1'b1,
"con_done goes HIGH after execution completes", "");
tb_assert(o_err === 1'b0,
"No error flag set after successful execution", "");
wait_wready(100, done_result);
tb_assert(done_result === 1'b1,
"o_wready is HIGH after execution (SPI ready)", "");
// Execute with DC_Slot1 (should complete but produce no output)
spi_write(mk_write(7'd6, 24'h002003));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_result);
tb_assert(done_result === 1'b1,
"DC slot execution completes (stub behavior)", "");
tb_assert(o_err === 1'b0,
"No error after DC slot execution (stub)", "");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 4: Frequency slot decoding (all 4 slots)
//
// Freq_Slot N bit layout:
// Bit 23:10: Per Relay_Control (14 bits)
// Bit 9:1: Channel_Number (9 bits)
// Bit 0: Slot_EN (1=Enable)
//
// Channel ranges:
// 1-8: OC_x09 = slot_bit, PMU_OC[0] bit 0
// 9-72: (no OC_x09/OC_x25), PMU_OC[0] from channel
// 73-136: OC_x25 = slot_bit, PMU_OC[0] bit 16+
// 137-200: (no OC_x09/OC_x25), PMU_OC[0] bit 24+
//==========================================================================
task test_freq_slots;
reg [1:0] done_r;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 4: Frequency slot decoding (all 4 slots)");
$display("-------------------------------------------------------------");
// Slot1 Ch5 (range 1-8): OC_x09 = 4'b0001
// = (1<<23) | (0<<22) | (5<<1) | 1 = 24'h08000B (sets RC_F[1:0]=01)
$display(" Slot1 Ch5 (range 1-8): OC_x09=0001");
spi_write(mk_write(7'd2, 24'h08000B));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot1 Ch5 exec done", "timeout");
tb_assert(o_OC_x09[0] === 1'b1, "Slot1 Ch5: OC_x09[0]=1", "OC_x09[0] mismatch");
tb_assert(o_OC_x25 === 4'b0, "Slot1 Ch5: OC_x25=0", "OC_x25 mismatch");
tb_assert(o_RC_F[1:0] == 2'b01, "Slot1 Ch5: RC_F[1:0] has relay bits", "RC_F mismatch");
#(`SPI_CLK_PERIOD);
// Slot1 Ch50 (range 9-72): no OC_x09/OC_x25
// = (0<<10) | (50<<1) | 1 = 24'h000065
$display(" Slot1 Ch50 (range 9-72): OC_x09=0, OC_x25=0");
spi_write(mk_write(7'd2, 24'h000065));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot1 Ch50 exec done", "timeout");
tb_assert(o_OC_x09 === 4'b0, "Slot1 Ch50: OC_x09=0", "OC_x09 mismatch");
tb_assert(o_OC_x25 === 4'b0, "Slot1 Ch50: OC_x25=0", "OC_x25 mismatch");
#(`SPI_CLK_PERIOD);
// Slot1 Ch100 (range 73-136): OC_x25 = 4'b0001
// = (0<<10) | (100<<1) | 1 = 24'h0000C9
$display(" Slot1 Ch100 (range 73-136): OC_x25=0001");
spi_write(mk_write(7'd2, 24'h0000C9));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot1 Ch100 exec done", "timeout");
tb_assert(o_OC_x09 === 4'b0, "Slot1 Ch100: OC_x09=0", "OC_x09 mismatch");
tb_assert(o_OC_x25[0] === 1'b1, "Slot1 Ch100: OC_x25[0]=1", "OC_x25[0] mismatch");
tb_assert(o_RC_T[15:8] != 8'b0, "Slot1 Ch100: RC_T has relay bits", "RC_T mismatch");
#(`SPI_CLK_PERIOD);
// Slot1 Ch150 (range 137-200): no OC_x09/OC_x25
// = (0<<10) | (150<<1) | 1 = 24'h00012D
$display(" Slot1 Ch150 (range 137-200): OC_x09=0, OC_x25=0");
spi_write(mk_write(7'd2, 24'h00012D));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot1 Ch150 exec done", "timeout");
tb_assert(o_OC_x09 === 4'b0, "Slot1 Ch150: OC_x09=0", "OC_x09 mismatch");
tb_assert(o_OC_x25 === 4'b0, "Slot1 Ch150: OC_x25=0", "OC_x25 mismatch");
#(`SPI_CLK_PERIOD);
// Slot2 Ch5 (range 1-8): OC_x09 = 4'b0010
// = (1<<23) | (0<<22) | (5<<1) | 1 = 24'h08000B (sets RC_F[3:2]=01)
$display(" Slot2 Ch5 (range 1-8): OC_x09=0010");
spi_write(mk_write(7'd3, 24'h08000B));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot2 Ch5 exec done", "timeout");
tb_assert(o_OC_x09[1] === 1'b1, "Slot2 Ch5: OC_x09[1]=1", "OC_x09[1] mismatch");
tb_assert(o_RC_F[5:4] == 2'b01, "Slot2 Ch5: RC_F[5:4] has relay bits", "RC_F mismatch");
#(`SPI_CLK_PERIOD);
// Slot3 Ch100 (range 73-136): OC_x25 = 4'b0100
// = (0xAA<<10) | (100<<1) | 1 = 24'h02A8C9 (sets RC_T bits)
$display(" Slot3 Ch100 (range 73-136): OC_x25=0100");
spi_write(mk_write(7'd4, 24'h02A8C9));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot3 Ch100 exec done", "timeout");
tb_assert(o_OC_x25[2] === 1'b1, "Slot3 Ch100: OC_x25[2]=1", "OC_x25[2] mismatch");
#(`SPI_CLK_PERIOD);
// Slot4 Ch50 (range 9-72): no OC_x09/OC_x25
// = (0<<10) | (50<<1) | 1 = 24'h000065
$display(" Slot4 Ch50 (range 9-72): OC_x09=0, OC_x25=0");
spi_write(mk_write(7'd5, 24'h000065));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot4 Ch50 exec done", "timeout");
tb_assert(o_OC_x09 === 4'b0, "Slot4 Ch50: OC_x09=0", "OC_x09 mismatch");
tb_assert(o_OC_x25 === 4'b0, "Slot4 Ch50: OC_x25=0", "OC_x25 mismatch");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 5: RC relay output patterns (RC_F, RC_S, RC_T)
//
// CPLD2 CPLD_Con relay mapping (frequency mode):
// Slot1: RC_F[1:0], RC_S[3:0], RC_T[7:0]
// Slot2: RC_F[5:4], RC_S[11:8], RC_T[23:16]
// Slot3: RC_F[7:6], RC_S[15:12], RC_T[15:8] (bit-reordered)
// Slot4: RC_F[1:0], RC_S[3:0], RC_T[7:0]
//
// Timing: relay_l1 at t=0, relay_l2 at t=500, relay_l3 at t=1000
// exec_done at t=1080
//==========================================================================
task test_rc_relay_outputs;
reg [1:0] done_r;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 5: RC relay output patterns (RC_F/RC_S/RC_T)");
$display("-------------------------------------------------------------");
// 5a. Slot4 Ch5: Verify RC_F, RC_S, RC_T relay bit extraction
// Freq_Slot4 with RC_F[1:0]={1,0}, RC_S[3:0]={1,0,1,0}, Ch=5
// = (1<<23) | (0xA<<18) | (5<<1) | 1 = 24'hA8000B
$display(" Slot4: RC_F/RC_S/RC_T relay extraction");
spi_write(mk_write(7'd5, 24'hA8000B));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot4 relay exec done", "timeout");
// RC_F[1:0] should have relay bits from freq4[23:22]
tb_assert(o_RC_F[1:0] != 2'b00,
"Slot4: RC_F[1:0] has relay bits from freq4[23:22]",
$sformatf("RC_F[1:0]=%b", o_RC_F[1:0]));
// RC_S[3:0] should have relay bits from freq4[21:18]
tb_assert(o_RC_S[3:0] != 4'b0000,
"Slot4: RC_S[3:0] has relay bits from freq4[21:18]",
$sformatf("RC_S[3:0]=%b", o_RC_S[3:0]));
// RC_T[7:0] should have relay bits from freq4[17:10]
tb_assert(o_RC_T[7:0] != 8'b00000000,
"Slot4: RC_T[7:0] has relay bits from freq4[17:10]",
$sformatf("RC_T[7:0]=%b", o_RC_T[7:0]));
// 5b. Slot4 with specific relay pattern: bits 23=1, 22=0, 21=1, 20=0, 19=1, 18=0, Ch=5
// = (1<<23) | (0<<22) | (1<<21) | (0<<20) | (1<<19) | (0<<18) | (5<<1) | 1
// = 24'hA8000B
$display(" Slot4: RC_F/RC_S/RC_T specific relay pattern");
spi_write(mk_write(7'd5, 24'hA8000B));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Slot4 pattern exec done", "timeout");
// Verify RC_F[1:0] = {freq4[22], freq4[23]} = {0, 1} = 2'b01
tb_assert(o_RC_F[1:0] === 2'b01,
"Slot4: RC_F[1:0] = {freq4[22], freq4[23]} = 01",
$sformatf("RC_F[1:0]=%b", o_RC_F[1:0]));
// Verify RC_S[3:0] = {freq4[21], freq4[20], freq4[19], freq4[18]} = {1, 0, 1, 0} = 4'b1010
tb_assert(o_RC_S[3:0] === 4'b1010,
"Slot4: RC_S[3:0] = freq4[21:18] = 1010",
$sformatf("RC_S[3:0]=%b", o_RC_S[3:0]));
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 6: DC stub behavior
//
// CPLD2 CPLD_Con has DC slot cases but they are stubs:
// - No relay output changes
// - No PMU_OC output changes
// - Just sets exec_flag=0, exec_done_flag=1
//
// The top module maps OC_x09/OC_x25 to PMU_OC via:
// PMU_OC_N[8] = OC_x09[N-1]
// PMU_OC_N[24] = OC_x25[N-1]
// PMU_OC_N[7:0] = PMU_OC_internal[7:0] (always zero for DC stubs)
// PMU_OC_N[23:9] = PMU_OC_internal[23:8] (always zero for DC stubs)
// PMU_OC_N[31:25] = PMU_OC_internal[31:25] (always zero for DC stubs)
//==========================================================================
task test_dc_stub_behavior;
reg [1:0] done_r;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 6: DC stub behavior (no output changes)");
$display("-------------------------------------------------------------");
// 6a. DC_Slot1: Should complete but produce no relay/PMU output
$display(" DC1: Stub behavior - no relay or PMU output");
spi_write(mk_write(7'd6, 24'h002003));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "DC1 exec done (stub)", "timeout");
// RC outputs should remain at their previous state or be zero
// (DC stub doesn't change relay outputs)
tb_assert(o_err === 1'b0,
"DC1 stub: no error flag", "");
// 6b. DC_Slot2: Same stub behavior
$display(" DC2: Stub behavior - no relay or PMU output");
spi_write(mk_write(7'd7, 24'h004005));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "DC2 exec done (stub)", "timeout");
tb_assert(o_err === 1'b0,
"DC2 stub: no error flag", "");
// 6c. DC_Slot3: Same stub behavior
$display(" DC3: Stub behavior - no relay or PMU output");
spi_write(mk_write(7'd8, 24'h006007));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "DC3 exec done (stub)", "timeout");
tb_assert(o_err === 1'b0,
"DC3 stub: no error flag", "");
// 6d. DC_Slot4: Same stub behavior
$display(" DC4: Stub behavior - no relay or PMU output");
spi_write(mk_write(7'd9, 24'h008009));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "DC4 exec done (stub)", "timeout");
tb_assert(o_err === 1'b0,
"DC4 stub: no error flag", "");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 7: Error conditions
//==========================================================================
task test_error_conditions;
reg [1:0] done_r;
reg [31:0] rdata;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 7: Error conditions");
$display("-------------------------------------------------------------");
// 7a. Short SPI transaction (16 bits)
$display(" Error 7a: Short SPI transaction (16 bits)");
i_cs = 1'b0;
@(negedge i_sclk);
@(negedge i_sclk);
for (integer bi = 0; bi < 16; bi = bi + 1) begin
i_mosi = 1'b0;
@(posedge i_sclk);
@(negedge i_sclk);
end
i_cs = 1'b1;
@(negedge i_sclk);
#(`SYS_CLK_PERIOD * 5);
tb_assert(o_err === 1'b1,
"o_err HIGH after short SPI transaction", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD);
// 7b. Write to IDENT register (ADDR 0, read-only)
$display(" Error 7b: Write to IDENT register (ADDR 0)");
spi_write(mk_write(7'd0, 24'hDEADBEE >> 8));
@(negedge i_sclk);
tb_assert(o_err === 1'b1,
"o_err HIGH after write to IDENT register", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD);
// 7c. Read out-of-bounds address (ADDR 16)
$display(" Error 7c: Read out-of-bounds address (ADDR 16)");
spi_read(mk_read(7'd16), rdata);
@(negedge i_sclk);
#(`SYS_CLK_PERIOD * 5);
tb_assert(o_err === 1'b1,
"o_err HIGH after reading ADDR 16", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD);
// 7d. Multiple slot enable bits (en_t > 1)
$display(" Error 7d: Multiple slot enable bits");
spi_write(mk_write(7'd2, 24'h000005));
@(negedge i_sclk);
spi_write(mk_write(7'd3, 24'h000006));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001));
@(negedge i_sclk);
wait_con_done(500, done_r);
tb_assert(done_r === 1'b1, "Execution completes (even with error)", "");
tb_assert(o_err === 1'b1,
"o_err HIGH with multiple slot enables", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD);
// 7e. Write to out-of-bounds address (ADDR 31)
$display(" Error 7e: Write to out-of-bounds address (ADDR 31)");
spi_write(mk_write(7'd31, 24'h123456));
@(negedge i_sclk);
#(`SYS_CLK_PERIOD * 5);
tb_assert(o_err === 1'b1,
"o_err HIGH after writing ADDR 31", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Test Group 8: Edge cases
//==========================================================================
task test_edge_cases;
reg [31:0] rdata;
begin
$display("");
$display("-------------------------------------------------------------");
$display(" Group 8: Edge cases");
$display("-------------------------------------------------------------");
// 8a. Brief CS pulse (too short for 32-bit)
$display(" Edge 8a: Brief CS pulse");
i_cs = 1'b0;
@(negedge i_sclk);
@(negedge i_sclk);
i_cs = 1'b1;
@(negedge i_sclk);
#(`SYS_CLK_PERIOD * 5);
tb_assert(o_err === 1'b1,
"o_err detected brief CS pulse", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD);
// 8b. Rapid successive SPI writes
$display(" Edge 8b: Rapid successive SPI writes");
spi_write(mk_write(7'd2, 24'h000001));
spi_write(mk_write(7'd3, 24'h000002));
spi_write(mk_write(7'd4, 24'h000003));
spi_write(mk_write(7'd5, 24'h000004));
@(negedge i_sclk);
spi_read(mk_read(7'd2), rdata);
tb_assert(rdata === 24'h000001, "Rapid write: ADDR 2 correct", "ADDR 2 mismatch");
spi_read(mk_read(7'd3), rdata);
tb_assert(rdata === 24'h000002, "Rapid write: ADDR 3 correct", "ADDR 3 mismatch");
spi_read(mk_read(7'd4), rdata);
tb_assert(rdata === 24'h000003, "Rapid write: ADDR 4 correct", "ADDR 4 mismatch");
spi_read(mk_read(7'd5), rdata);
tb_assert(rdata === 24'h000004, "Rapid write: ADDR 5 correct", "ADDR 5 mismatch");
#(`SPI_CLK_PERIOD);
// 8c. Write to reserved registers (ADDR 10-15) - no error
$display(" Edge 8c: Write to reserved registers");
spi_write(mk_write(7'd10, 24'hABCDEF));
@(negedge i_sclk);
spi_write(mk_write(7'd15, 24'h123456));
@(negedge i_sclk);
tb_assert(o_err === 1'b0, "No error writing to reserved ADDR 10 and 15",
"Unexpected error");
// 8d. Write STATE with EXEC=1 while already executing (should error)
$display(" Edge 8d: Write STATE while already executing");
spi_write(mk_write(7'd2, 24'h000005));
@(negedge i_sclk);
spi_write(mk_write(7'd1, 24'h000001)); // EXEC=1
@(negedge i_sclk);
// Try to write another register while EXEC is still active
spi_write(mk_write(7'd3, 24'h000006));
@(negedge i_sclk);
#(`SYS_CLK_PERIOD * 5);
tb_assert(o_err === 1'b1,
"o_err HIGH when writing during execution", "");
i_rst_n = 1'b0;
#(`SYS_CLK_PERIOD * 4);
i_rst_n = 1'b1;
#(`SYS_CLK_PERIOD * 4);
tb_assert(o_err === 1'b0, "o_err cleared after reset", "o_err not cleared");
#(`SPI_CLK_PERIOD * 2);
end
endtask
//==========================================================================
// Summary
//==========================================================================
task print_summary;
begin
$display("");
$display("=============================================================");
$display(" Test Summary");
$display("=============================================================");
$display(" Total tests: %0d", test_pass + test_fail);
$display(" Passed: %0d", test_pass);
$display(" Failed: %0d", test_fail);
$display("=============================================================");
if (test_fail == 0) begin
$display(" *** ALL TESTS PASSED ***");
end else begin
$display(" *** SOME TESTS FAILED - CHECK DESIGN ***");
end
$display("=============================================================");
$display("");
end
endtask
endmodule
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<!DOCTYPE ispTLA>
<ispTLA>
<CreationDate>??? 1?? 13 14:14:20 2026</CreationDate>
<XCFFileName/>
<CableSetting>
<IsTRSTConnected val="false"/>
<TRSTSetting val="0"/>
<IsBSCANConnected val="false"/>
<BSCANSetting val="0"/>
<CableType val="USB"/>
<PortAddress val="0"/>
<PortSetting val="0"/>
<TCKDelay val="1"/>
</CableSetting>
<DeviceCount>1</DeviceCount>
<Device>
<DeviceIndex>0</DeviceIndex>
<DeviceName>1. LCMXO2-7000HC</DeviceName>
<DeviceID>0x012BD043</DeviceID>
<HasIspTRACY>true</HasIspTRACY>
<HasJTAG2WB>false</HasJTAG2WB>
<SERDES/>
<IRBypassLen>8</IRBypassLen>
<RVLFileName>debug.rvl</RVLFileName>
<RVSFileName>debug.rvs</RVSFileName>
<LACoreCount>1</LACoreCount>
<WinUI CoreIndex="0">
<TraceSigTreeData>
<TraceSignal IsHidden="false" Name="i_rst_n" NodeType="0" PortIndex="0"/>
<TraceSignal IsHidden="false" Name="BUS_Con_2/i_cs" NodeType="0" PortIndex="1"/>
<TraceSignal IsHidden="false" Name="BUS_Con_2/i_sclk" NodeType="0" PortIndex="2"/>
<TraceSignal IsHidden="false" Name="BUS_Con_2/i_mosi" NodeType="0" PortIndex="3"/>
<TraceSignal IsHidden="false" Name="BUS_Con_2/i_reg_busy" NodeType="0" PortIndex="4"/>
<TraceSignal IsHidden="false" Name="CPLD_Reg_2/o_exec" NodeType="0" PortIndex="5"/>
<TraceSignal IsHidden="false" Name="RC_T" NodeType="1" PortIndex="6">
<BusRadix Radix="0"/>
<IsExpanded Expand="false"/>
</TraceSignal>
<TraceSignal IsHidden="false" Name="RC_T:0" NodeType="2" PortIndex="6"/>
<TraceSignal IsHidden="false" Name="RC_T:1" NodeType="2" PortIndex="7"/>
<TraceSignal IsHidden="false" Name="RC_T:2" NodeType="2" PortIndex="8"/>
<TraceSignal IsHidden="false" Name="RC_T:3" NodeType="2" PortIndex="9"/>
<TraceSignal IsHidden="false" Name="RC_T:4" NodeType="2" PortIndex="10"/>
<TraceSignal IsHidden="false" Name="RC_T:5" NodeType="2" PortIndex="11"/>
<TraceSignal IsHidden="false" Name="RC_T:6" NodeType="2" PortIndex="12"/>
<TraceSignal IsHidden="false" Name="RC_T:7" NodeType="2" PortIndex="13"/>
<TraceSignal IsHidden="false" Name="RC_T:8" NodeType="2" PortIndex="14"/>
<TraceSignal IsHidden="false" Name="RC_T:9" NodeType="2" PortIndex="15"/>
<TraceSignal IsHidden="false" Name="RC_T:10" NodeType="2" PortIndex="16"/>
<TraceSignal IsHidden="false" Name="RC_T:11" NodeType="2" PortIndex="17"/>
<TraceSignal IsHidden="false" Name="RC_T:12" NodeType="2" PortIndex="18"/>
<TraceSignal IsHidden="false" Name="RC_T:13" NodeType="2" PortIndex="19"/>
<TraceSignal IsHidden="false" Name="RC_T:14" NodeType="2" PortIndex="20"/>
<TraceSignal IsHidden="false" Name="RC_T:15" NodeType="2" PortIndex="21"/>
<TraceSignal IsHidden="false" Name="RC_T:16" NodeType="2" PortIndex="22"/>
<TraceSignal IsHidden="false" Name="RC_T:17" NodeType="2" PortIndex="23"/>
<TraceSignal IsHidden="false" Name="RC_T:18" NodeType="2" PortIndex="24"/>
<TraceSignal IsHidden="false" Name="RC_T:19" NodeType="2" PortIndex="25"/>
<TraceSignal IsHidden="false" Name="RC_T:20" NodeType="2" PortIndex="26"/>
<TraceSignal IsHidden="false" Name="RC_T:21" NodeType="2" PortIndex="27"/>
<TraceSignal IsHidden="false" Name="RC_T:22" NodeType="2" PortIndex="28"/>
<TraceSignal IsHidden="false" Name="RC_T:23" NodeType="2" PortIndex="29"/>
<TraceSignal IsHidden="false" Name="RC_T:24" NodeType="2" PortIndex="30"/>
<TraceSignal IsHidden="false" Name="RC_T:25" NodeType="2" PortIndex="31"/>
<TraceSignal IsHidden="false" Name="RC_T:26" NodeType="2" PortIndex="32"/>
<TraceSignal IsHidden="false" Name="RC_T:27" NodeType="2" PortIndex="33"/>
<TraceSignal IsHidden="false" Name="RC_T:28" NodeType="2" PortIndex="34"/>
<TraceSignal IsHidden="false" Name="RC_T:29" NodeType="2" PortIndex="35"/>
<TraceSignal IsHidden="false" Name="RC_T:30" NodeType="2" PortIndex="36"/>
<TraceSignal IsHidden="false" Name="RC_T:31" NodeType="2" PortIndex="37"/>
</TraceSigTreeData>
<TriggerUI UserSelect="0" PreSelectType="0" PreSelect="1" UserSelectPos="0"/>
<CoreRun Run="true"/>
<CoreWndUIData>
<ClockFrequency Unit="ns" Frequency="-1.0"/>
</CoreWndUIData>
</WinUI>
</Device>
</ispTLA>
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