Module Definition
dashboard | hierarchy | modlist | groups | tests | asserts



Module Instance : tb.dut.u_reg

Instance :
SCORELINECONDTOGGLEFSMBRANCHASSERT
100.00 100.00 100.00 100.00 100.00


Instance's subtree :
SCORELINECONDTOGGLEFSMBRANCHASSERT
99.65 98.40 99.85 100.00 100.00 100.00


Parent :
SCORELINECONDTOGGLEFSMBRANCHASSERTNAME
99.55 100.00 98.21 100.00 100.00 dut


Subtrees :
NAMESCORELINECONDTOGGLEFSMBRANCHASSERT
u_alert_info 100.00 100.00
u_alert_info_attr 33.33 33.33
u_alert_info_ctrl_en 100.00 100.00 100.00 100.00
u_alert_info_ctrl_index 100.00 100.00 100.00 100.00
u_alert_regwen 100.00 100.00 100.00 100.00
u_alert_test_fatal_cnsty_fault 100.00 100.00
u_alert_test_fatal_fault 100.00 100.00
u_chk 100.00 100.00 100.00 100.00
u_cpu_info 100.00 100.00
u_cpu_info_attr 33.33 33.33
u_cpu_info_ctrl_en 100.00 100.00 100.00 100.00
u_cpu_info_ctrl_index 100.00 100.00 100.00 100.00
u_cpu_regwen 100.00 100.00 100.00 100.00
u_err_code_fsm_err 96.30 88.89 100.00 100.00
u_err_code_reg_intg_err 96.30 88.89 100.00 100.00
u_err_code_reset_consistency_err 96.30 88.89 100.00 100.00
u_prim_reg_we_check 100.00 100.00 100.00
u_reg_if 98.97 97.14 98.75 100.00 100.00
u_reset_info_hw_req 100.00 100.00 100.00 100.00
u_reset_info_low_power_exit 100.00 100.00 100.00 100.00
u_reset_info_por 100.00 100.00 100.00 100.00
u_reset_info_sw_reset 100.00 100.00 100.00 100.00
u_reset_req 100.00 100.00 100.00 100.00
u_rsp_intg_gen 100.00 100.00 100.00
u_sw_rst_ctrl_n_0 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_1 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_2 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_3 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_4 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_5 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_6 100.00 100.00 100.00 100.00
u_sw_rst_ctrl_n_7 100.00 100.00 100.00 100.00
u_sw_rst_regwen_0 100.00 100.00 100.00 100.00
u_sw_rst_regwen_1 100.00 100.00 100.00 100.00
u_sw_rst_regwen_2 100.00 100.00 100.00 100.00
u_sw_rst_regwen_3 100.00 100.00 100.00 100.00
u_sw_rst_regwen_4 100.00 100.00 100.00 100.00
u_sw_rst_regwen_5 100.00 100.00 100.00 100.00
u_sw_rst_regwen_6 100.00 100.00 100.00 100.00
u_sw_rst_regwen_7 100.00 100.00 100.00 100.00


Since this is the module's only instance, the coverage report is the same as for the module.
Line Coverage for Module : rstmgr_reg_top
Line No.TotalCoveredPercent
TOTAL178178100.00
ALWAYS7044100.00
CONT_ASSIGN7911100.00
CONT_ASSIGN9111100.00
CONT_ASSIGN9211100.00
CONT_ASSIGN12011100.00
CONT_ASSIGN12111100.00
CONT_ASSIGN22311100.00
CONT_ASSIGN23811100.00
CONT_ASSIGN25411100.00
CONT_ASSIGN43011100.00
CONT_ASSIGN55111100.00
CONT_ASSIGN87711100.00
CONT_ASSIGN90911100.00
CONT_ASSIGN94111100.00
CONT_ASSIGN97311100.00
CONT_ASSIGN100511100.00
CONT_ASSIGN103711100.00
CONT_ASSIGN106911100.00
CONT_ASSIGN110111100.00
ALWAYS12152929100.00
CONT_ASSIGN124611100.00
ALWAYS125011100.00
CONT_ASSIGN128211100.00
CONT_ASSIGN128411100.00
CONT_ASSIGN128611100.00
CONT_ASSIGN128711100.00
CONT_ASSIGN128911100.00
CONT_ASSIGN129011100.00
CONT_ASSIGN129211100.00
CONT_ASSIGN129411100.00
CONT_ASSIGN129611100.00
CONT_ASSIGN129811100.00
CONT_ASSIGN129911100.00
CONT_ASSIGN130111100.00
CONT_ASSIGN130211100.00
CONT_ASSIGN130411100.00
CONT_ASSIGN130611100.00
CONT_ASSIGN130711100.00
CONT_ASSIGN130811100.00
CONT_ASSIGN130911100.00
CONT_ASSIGN131111100.00
CONT_ASSIGN131211100.00
CONT_ASSIGN131411100.00
CONT_ASSIGN131611100.00
CONT_ASSIGN131711100.00
CONT_ASSIGN131811100.00
CONT_ASSIGN131911100.00
CONT_ASSIGN132111100.00
CONT_ASSIGN132211100.00
CONT_ASSIGN132411100.00
CONT_ASSIGN132511100.00
CONT_ASSIGN132711100.00
CONT_ASSIGN132811100.00
CONT_ASSIGN133011100.00
CONT_ASSIGN133111100.00
CONT_ASSIGN133311100.00
CONT_ASSIGN133411100.00
CONT_ASSIGN133611100.00
CONT_ASSIGN133711100.00
CONT_ASSIGN133911100.00
CONT_ASSIGN134011100.00
CONT_ASSIGN134211100.00
CONT_ASSIGN134311100.00
CONT_ASSIGN134511100.00
CONT_ASSIGN134611100.00
CONT_ASSIGN134811100.00
CONT_ASSIGN134911100.00
CONT_ASSIGN135111100.00
CONT_ASSIGN135211100.00
CONT_ASSIGN135411100.00
CONT_ASSIGN135511100.00
CONT_ASSIGN135711100.00
CONT_ASSIGN135811100.00
CONT_ASSIGN136011100.00
CONT_ASSIGN136111100.00
CONT_ASSIGN136311100.00
CONT_ASSIGN136411100.00
CONT_ASSIGN136611100.00
ALWAYS13702929100.00
ALWAYS14033838100.00
CONT_ASSIGN153600
CONT_ASSIGN154411100.00
CONT_ASSIGN154511100.00

69 always_ff @(posedge clk_i or negedge rst_ni) begin 70 1/1 if (!rst_ni) begin Tests: T1 T2 T3  71 1/1 err_q <= '0; Tests: T1 T2 T3  72 1/1 end else if (intg_err || reg_we_err) begin Tests: T1 T2 T3  73 1/1 err_q <= 1'b1; Tests: T78 T42 T79  74 end MISSING_ELSE 75 end 76 77 // integrity error output is permanent and should be used for alert generation 78 // register errors are transactional 79 1/1 assign intg_err_o = err_q | intg_err | reg_we_err; Tests: T2 T3 T4  80 81 // outgoing integrity generation 82 tlul_pkg::tl_d2h_t tl_o_pre; 83 tlul_rsp_intg_gen #( 84 .EnableRspIntgGen(1), 85 .EnableDataIntgGen(1) 86 ) u_rsp_intg_gen ( 87 .tl_i(tl_o_pre), 88 .tl_o(tl_o) 89 ); 90 91 1/1 assign tl_reg_h2d = tl_i; Tests: T1 T2 T3  92 1/1 assign tl_o_pre = tl_reg_d2h; Tests: T1 T2 T3  93 94 tlul_adapter_reg #( 95 .RegAw(AW), 96 .RegDw(DW), 97 .EnableDataIntgGen(0) 98 ) u_reg_if ( 99 .clk_i (clk_i), 100 .rst_ni (rst_ni), 101 102 .tl_i (tl_reg_h2d), 103 .tl_o (tl_reg_d2h), 104 105 .en_ifetch_i(prim_mubi_pkg::MuBi4False), 106 .intg_error_o(), 107 108 .we_o (reg_we), 109 .re_o (reg_re), 110 .addr_o (reg_addr), 111 .wdata_o (reg_wdata), 112 .be_o (reg_be), 113 .busy_i (reg_busy), 114 .rdata_i (reg_rdata), 115 .error_i (reg_error) 116 ); 117 118 // cdc oversampling signals 119 120 1/1 assign reg_rdata = reg_rdata_next ; Tests: T1 T2 T3  121 1/1 assign reg_error = addrmiss | wr_err | intg_err; Tests: T76 T80 T81  122 123 // Define SW related signals 124 // Format: <reg>_<field>_{wd|we|qs} 125 // or <reg>_{wd|we|qs} if field == 1 or 0 126 logic alert_test_we; 127 logic alert_test_fatal_fault_wd; 128 logic alert_test_fatal_cnsty_fault_wd; 129 logic reset_req_we; 130 logic [3:0] reset_req_qs; 131 logic [3:0] reset_req_wd; 132 logic reset_info_we; 133 logic reset_info_por_qs; 134 logic reset_info_por_wd; 135 logic reset_info_low_power_exit_qs; 136 logic reset_info_low_power_exit_wd; 137 logic reset_info_sw_reset_qs; 138 logic reset_info_sw_reset_wd; 139 logic [4:0] reset_info_hw_req_qs; 140 logic [4:0] reset_info_hw_req_wd; 141 logic alert_regwen_we; 142 logic alert_regwen_qs; 143 logic alert_regwen_wd; 144 logic alert_info_ctrl_we; 145 logic alert_info_ctrl_en_qs; 146 logic alert_info_ctrl_en_wd; 147 logic [3:0] alert_info_ctrl_index_qs; 148 logic [3:0] alert_info_ctrl_index_wd; 149 logic alert_info_attr_re; 150 logic [3:0] alert_info_attr_qs; 151 logic alert_info_re; 152 logic [31:0] alert_info_qs; 153 logic cpu_regwen_we; 154 logic cpu_regwen_qs; 155 logic cpu_regwen_wd; 156 logic cpu_info_ctrl_we; 157 logic cpu_info_ctrl_en_qs; 158 logic cpu_info_ctrl_en_wd; 159 logic [3:0] cpu_info_ctrl_index_qs; 160 logic [3:0] cpu_info_ctrl_index_wd; 161 logic cpu_info_attr_re; 162 logic [3:0] cpu_info_attr_qs; 163 logic cpu_info_re; 164 logic [31:0] cpu_info_qs; 165 logic sw_rst_regwen_0_we; 166 logic sw_rst_regwen_0_qs; 167 logic sw_rst_regwen_0_wd; 168 logic sw_rst_regwen_1_we; 169 logic sw_rst_regwen_1_qs; 170 logic sw_rst_regwen_1_wd; 171 logic sw_rst_regwen_2_we; 172 logic sw_rst_regwen_2_qs; 173 logic sw_rst_regwen_2_wd; 174 logic sw_rst_regwen_3_we; 175 logic sw_rst_regwen_3_qs; 176 logic sw_rst_regwen_3_wd; 177 logic sw_rst_regwen_4_we; 178 logic sw_rst_regwen_4_qs; 179 logic sw_rst_regwen_4_wd; 180 logic sw_rst_regwen_5_we; 181 logic sw_rst_regwen_5_qs; 182 logic sw_rst_regwen_5_wd; 183 logic sw_rst_regwen_6_we; 184 logic sw_rst_regwen_6_qs; 185 logic sw_rst_regwen_6_wd; 186 logic sw_rst_regwen_7_we; 187 logic sw_rst_regwen_7_qs; 188 logic sw_rst_regwen_7_wd; 189 logic sw_rst_ctrl_n_0_we; 190 logic sw_rst_ctrl_n_0_qs; 191 logic sw_rst_ctrl_n_0_wd; 192 logic sw_rst_ctrl_n_1_we; 193 logic sw_rst_ctrl_n_1_qs; 194 logic sw_rst_ctrl_n_1_wd; 195 logic sw_rst_ctrl_n_2_we; 196 logic sw_rst_ctrl_n_2_qs; 197 logic sw_rst_ctrl_n_2_wd; 198 logic sw_rst_ctrl_n_3_we; 199 logic sw_rst_ctrl_n_3_qs; 200 logic sw_rst_ctrl_n_3_wd; 201 logic sw_rst_ctrl_n_4_we; 202 logic sw_rst_ctrl_n_4_qs; 203 logic sw_rst_ctrl_n_4_wd; 204 logic sw_rst_ctrl_n_5_we; 205 logic sw_rst_ctrl_n_5_qs; 206 logic sw_rst_ctrl_n_5_wd; 207 logic sw_rst_ctrl_n_6_we; 208 logic sw_rst_ctrl_n_6_qs; 209 logic sw_rst_ctrl_n_6_wd; 210 logic sw_rst_ctrl_n_7_we; 211 logic sw_rst_ctrl_n_7_qs; 212 logic sw_rst_ctrl_n_7_wd; 213 logic err_code_reg_intg_err_qs; 214 logic err_code_reset_consistency_err_qs; 215 logic err_code_fsm_err_qs; 216 // Define register CDC handling. 217 // CDC handling is done on a per-reg instead of per-field boundary. 218 219 // Register instances 220 // R[alert_test]: V(True) 221 logic alert_test_qe; 222 logic [1:0] alert_test_flds_we; 223 1/1 assign alert_test_qe = &alert_test_flds_we; Tests: T8 T54 T66  224 // F[fatal_fault]: 0:0 225 prim_subreg_ext #( 226 .DW (1) 227 ) u_alert_test_fatal_fault ( 228 .re (1'b0), 229 .we (alert_test_we), 230 .wd (alert_test_fatal_fault_wd), 231 .d ('0), 232 .qre (), 233 .qe (alert_test_flds_we[0]), 234 .q (reg2hw.alert_test.fatal_fault.q), 235 .ds (), 236 .qs () 237 ); 238 1/1 assign reg2hw.alert_test.fatal_fault.qe = alert_test_qe; Tests: T8 T54 T66  239 240 // F[fatal_cnsty_fault]: 1:1 241 prim_subreg_ext #( 242 .DW (1) 243 ) u_alert_test_fatal_cnsty_fault ( 244 .re (1'b0), 245 .we (alert_test_we), 246 .wd (alert_test_fatal_cnsty_fault_wd), 247 .d ('0), 248 .qre (), 249 .qe (alert_test_flds_we[1]), 250 .q (reg2hw.alert_test.fatal_cnsty_fault.q), 251 .ds (), 252 .qs () 253 ); 254 1/1 assign reg2hw.alert_test.fatal_cnsty_fault.qe = alert_test_qe; Tests: T8 T54 T66  255 256 257 // R[reset_req]: V(False) 258 prim_subreg #( 259 .DW (4), 260 .SwAccess(prim_subreg_pkg::SwAccessRW), 261 .RESVAL (4'h9), 262 .Mubi (1'b1) 263 ) u_reset_req ( 264 .clk_i (clk_i), 265 .rst_ni (rst_ni), 266 267 // from register interface 268 .we (reset_req_we), 269 .wd (reset_req_wd), 270 271 // from internal hardware 272 .de (hw2reg.reset_req.de), 273 .d (hw2reg.reset_req.d), 274 275 // to internal hardware 276 .qe (), 277 .q (reg2hw.reset_req.q), 278 .ds (), 279 280 // to register interface (read) 281 .qs (reset_req_qs) 282 ); 283 284 285 // R[reset_info]: V(False) 286 // F[por]: 0:0 287 prim_subreg #( 288 .DW (1), 289 .SwAccess(prim_subreg_pkg::SwAccessW1C), 290 .RESVAL (1'h1), 291 .Mubi (1'b0) 292 ) u_reset_info_por ( 293 // sync clock and reset required for this register 294 .clk_i (clk_por_i), 295 .rst_ni (rst_por_ni), 296 297 // from register interface 298 .we (reset_info_we), 299 .wd (reset_info_por_wd), 300 301 // from internal hardware 302 .de (1'b0), 303 .d ('0), 304 305 // to internal hardware 306 .qe (), 307 .q (), 308 .ds (), 309 310 // to register interface (read) 311 .qs (reset_info_por_qs) 312 ); 313 314 // F[low_power_exit]: 1:1 315 prim_subreg #( 316 .DW (1), 317 .SwAccess(prim_subreg_pkg::SwAccessW1C), 318 .RESVAL (1'h0), 319 .Mubi (1'b0) 320 ) u_reset_info_low_power_exit ( 321 // sync clock and reset required for this register 322 .clk_i (clk_por_i), 323 .rst_ni (rst_por_ni), 324 325 // from register interface 326 .we (reset_info_we), 327 .wd (reset_info_low_power_exit_wd), 328 329 // from internal hardware 330 .de (hw2reg.reset_info.low_power_exit.de), 331 .d (hw2reg.reset_info.low_power_exit.d), 332 333 // to internal hardware 334 .qe (), 335 .q (), 336 .ds (), 337 338 // to register interface (read) 339 .qs (reset_info_low_power_exit_qs) 340 ); 341 342 // F[sw_reset]: 2:2 343 prim_subreg #( 344 .DW (1), 345 .SwAccess(prim_subreg_pkg::SwAccessW1C), 346 .RESVAL (1'h0), 347 .Mubi (1'b0) 348 ) u_reset_info_sw_reset ( 349 // sync clock and reset required for this register 350 .clk_i (clk_por_i), 351 .rst_ni (rst_por_ni), 352 353 // from register interface 354 .we (reset_info_we), 355 .wd (reset_info_sw_reset_wd), 356 357 // from internal hardware 358 .de (hw2reg.reset_info.sw_reset.de), 359 .d (hw2reg.reset_info.sw_reset.d), 360 361 // to internal hardware 362 .qe (), 363 .q (reg2hw.reset_info.sw_reset.q), 364 .ds (), 365 366 // to register interface (read) 367 .qs (reset_info_sw_reset_qs) 368 ); 369 370 // F[hw_req]: 7:3 371 prim_subreg #( 372 .DW (5), 373 .SwAccess(prim_subreg_pkg::SwAccessW1C), 374 .RESVAL (5'h0), 375 .Mubi (1'b0) 376 ) u_reset_info_hw_req ( 377 // sync clock and reset required for this register 378 .clk_i (clk_por_i), 379 .rst_ni (rst_por_ni), 380 381 // from register interface 382 .we (reset_info_we), 383 .wd (reset_info_hw_req_wd), 384 385 // from internal hardware 386 .de (hw2reg.reset_info.hw_req.de), 387 .d (hw2reg.reset_info.hw_req.d), 388 389 // to internal hardware 390 .qe (), 391 .q (reg2hw.reset_info.hw_req.q), 392 .ds (), 393 394 // to register interface (read) 395 .qs (reset_info_hw_req_qs) 396 ); 397 398 399 // R[alert_regwen]: V(False) 400 prim_subreg #( 401 .DW (1), 402 .SwAccess(prim_subreg_pkg::SwAccessW0C), 403 .RESVAL (1'h1), 404 .Mubi (1'b0) 405 ) u_alert_regwen ( 406 .clk_i (clk_i), 407 .rst_ni (rst_ni), 408 409 // from register interface 410 .we (alert_regwen_we), 411 .wd (alert_regwen_wd), 412 413 // from internal hardware 414 .de (1'b0), 415 .d ('0), 416 417 // to internal hardware 418 .qe (), 419 .q (), 420 .ds (), 421 422 // to register interface (read) 423 .qs (alert_regwen_qs) 424 ); 425 426 427 // R[alert_info_ctrl]: V(False) 428 // Create REGWEN-gated WE signal 429 logic alert_info_ctrl_gated_we; 430 1/1 assign alert_info_ctrl_gated_we = alert_info_ctrl_we & alert_regwen_qs; Tests: T2 T3 T4  431 // F[en]: 0:0 432 prim_subreg #( 433 .DW (1), 434 .SwAccess(prim_subreg_pkg::SwAccessRW), 435 .RESVAL (1'h0), 436 .Mubi (1'b0) 437 ) u_alert_info_ctrl_en ( 438 // sync clock and reset required for this register 439 .clk_i (clk_por_i), 440 .rst_ni (rst_por_ni), 441 442 // from register interface 443 .we (alert_info_ctrl_gated_we), 444 .wd (alert_info_ctrl_en_wd), 445 446 // from internal hardware 447 .de (hw2reg.alert_info_ctrl.en.de), 448 .d (hw2reg.alert_info_ctrl.en.d), 449 450 // to internal hardware 451 .qe (), 452 .q (reg2hw.alert_info_ctrl.en.q), 453 .ds (), 454 455 // to register interface (read) 456 .qs (alert_info_ctrl_en_qs) 457 ); 458 459 // F[index]: 7:4 460 prim_subreg #( 461 .DW (4), 462 .SwAccess(prim_subreg_pkg::SwAccessRW), 463 .RESVAL (4'h0), 464 .Mubi (1'b0) 465 ) u_alert_info_ctrl_index ( 466 // sync clock and reset required for this register 467 .clk_i (clk_por_i), 468 .rst_ni (rst_por_ni), 469 470 // from register interface 471 .we (alert_info_ctrl_gated_we), 472 .wd (alert_info_ctrl_index_wd), 473 474 // from internal hardware 475 .de (1'b0), 476 .d ('0), 477 478 // to internal hardware 479 .qe (), 480 .q (reg2hw.alert_info_ctrl.index.q), 481 .ds (), 482 483 // to register interface (read) 484 .qs (alert_info_ctrl_index_qs) 485 ); 486 487 488 // R[alert_info_attr]: V(True) 489 prim_subreg_ext #( 490 .DW (4) 491 ) u_alert_info_attr ( 492 .re (alert_info_attr_re), 493 .we (1'b0), 494 .wd ('0), 495 .d (hw2reg.alert_info_attr.d), 496 .qre (), 497 .qe (), 498 .q (), 499 .ds (), 500 .qs (alert_info_attr_qs) 501 ); 502 503 504 // R[alert_info]: V(True) 505 prim_subreg_ext #( 506 .DW (32) 507 ) u_alert_info ( 508 .re (alert_info_re), 509 .we (1'b0), 510 .wd ('0), 511 .d (hw2reg.alert_info.d), 512 .qre (), 513 .qe (), 514 .q (), 515 .ds (), 516 .qs (alert_info_qs) 517 ); 518 519 520 // R[cpu_regwen]: V(False) 521 prim_subreg #( 522 .DW (1), 523 .SwAccess(prim_subreg_pkg::SwAccessW0C), 524 .RESVAL (1'h1), 525 .Mubi (1'b0) 526 ) u_cpu_regwen ( 527 .clk_i (clk_i), 528 .rst_ni (rst_ni), 529 530 // from register interface 531 .we (cpu_regwen_we), 532 .wd (cpu_regwen_wd), 533 534 // from internal hardware 535 .de (1'b0), 536 .d ('0), 537 538 // to internal hardware 539 .qe (), 540 .q (), 541 .ds (), 542 543 // to register interface (read) 544 .qs (cpu_regwen_qs) 545 ); 546 547 548 // R[cpu_info_ctrl]: V(False) 549 // Create REGWEN-gated WE signal 550 logic cpu_info_ctrl_gated_we; 551 1/1 assign cpu_info_ctrl_gated_we = cpu_info_ctrl_we & cpu_regwen_qs; Tests: T2 T3 T4  552 // F[en]: 0:0 553 prim_subreg #( 554 .DW (1), 555 .SwAccess(prim_subreg_pkg::SwAccessRW), 556 .RESVAL (1'h0), 557 .Mubi (1'b0) 558 ) u_cpu_info_ctrl_en ( 559 // sync clock and reset required for this register 560 .clk_i (clk_por_i), 561 .rst_ni (rst_por_ni), 562 563 // from register interface 564 .we (cpu_info_ctrl_gated_we), 565 .wd (cpu_info_ctrl_en_wd), 566 567 // from internal hardware 568 .de (hw2reg.cpu_info_ctrl.en.de), 569 .d (hw2reg.cpu_info_ctrl.en.d), 570 571 // to internal hardware 572 .qe (), 573 .q (reg2hw.cpu_info_ctrl.en.q), 574 .ds (), 575 576 // to register interface (read) 577 .qs (cpu_info_ctrl_en_qs) 578 ); 579 580 // F[index]: 7:4 581 prim_subreg #( 582 .DW (4), 583 .SwAccess(prim_subreg_pkg::SwAccessRW), 584 .RESVAL (4'h0), 585 .Mubi (1'b0) 586 ) u_cpu_info_ctrl_index ( 587 // sync clock and reset required for this register 588 .clk_i (clk_por_i), 589 .rst_ni (rst_por_ni), 590 591 // from register interface 592 .we (cpu_info_ctrl_gated_we), 593 .wd (cpu_info_ctrl_index_wd), 594 595 // from internal hardware 596 .de (1'b0), 597 .d ('0), 598 599 // to internal hardware 600 .qe (), 601 .q (reg2hw.cpu_info_ctrl.index.q), 602 .ds (), 603 604 // to register interface (read) 605 .qs (cpu_info_ctrl_index_qs) 606 ); 607 608 609 // R[cpu_info_attr]: V(True) 610 prim_subreg_ext #( 611 .DW (4) 612 ) u_cpu_info_attr ( 613 .re (cpu_info_attr_re), 614 .we (1'b0), 615 .wd ('0), 616 .d (hw2reg.cpu_info_attr.d), 617 .qre (), 618 .qe (), 619 .q (), 620 .ds (), 621 .qs (cpu_info_attr_qs) 622 ); 623 624 625 // R[cpu_info]: V(True) 626 prim_subreg_ext #( 627 .DW (32) 628 ) u_cpu_info ( 629 .re (cpu_info_re), 630 .we (1'b0), 631 .wd ('0), 632 .d (hw2reg.cpu_info.d), 633 .qre (), 634 .qe (), 635 .q (), 636 .ds (), 637 .qs (cpu_info_qs) 638 ); 639 640 641 // Subregister 0 of Multireg sw_rst_regwen 642 // R[sw_rst_regwen_0]: V(False) 643 prim_subreg #( 644 .DW (1), 645 .SwAccess(prim_subreg_pkg::SwAccessW0C), 646 .RESVAL (1'h1), 647 .Mubi (1'b0) 648 ) u_sw_rst_regwen_0 ( 649 .clk_i (clk_i), 650 .rst_ni (rst_ni), 651 652 // from register interface 653 .we (sw_rst_regwen_0_we), 654 .wd (sw_rst_regwen_0_wd), 655 656 // from internal hardware 657 .de (1'b0), 658 .d ('0), 659 660 // to internal hardware 661 .qe (), 662 .q (), 663 .ds (), 664 665 // to register interface (read) 666 .qs (sw_rst_regwen_0_qs) 667 ); 668 669 670 // Subregister 1 of Multireg sw_rst_regwen 671 // R[sw_rst_regwen_1]: V(False) 672 prim_subreg #( 673 .DW (1), 674 .SwAccess(prim_subreg_pkg::SwAccessW0C), 675 .RESVAL (1'h1), 676 .Mubi (1'b0) 677 ) u_sw_rst_regwen_1 ( 678 .clk_i (clk_i), 679 .rst_ni (rst_ni), 680 681 // from register interface 682 .we (sw_rst_regwen_1_we), 683 .wd (sw_rst_regwen_1_wd), 684 685 // from internal hardware 686 .de (1'b0), 687 .d ('0), 688 689 // to internal hardware 690 .qe (), 691 .q (), 692 .ds (), 693 694 // to register interface (read) 695 .qs (sw_rst_regwen_1_qs) 696 ); 697 698 699 // Subregister 2 of Multireg sw_rst_regwen 700 // R[sw_rst_regwen_2]: V(False) 701 prim_subreg #( 702 .DW (1), 703 .SwAccess(prim_subreg_pkg::SwAccessW0C), 704 .RESVAL (1'h1), 705 .Mubi (1'b0) 706 ) u_sw_rst_regwen_2 ( 707 .clk_i (clk_i), 708 .rst_ni (rst_ni), 709 710 // from register interface 711 .we (sw_rst_regwen_2_we), 712 .wd (sw_rst_regwen_2_wd), 713 714 // from internal hardware 715 .de (1'b0), 716 .d ('0), 717 718 // to internal hardware 719 .qe (), 720 .q (), 721 .ds (), 722 723 // to register interface (read) 724 .qs (sw_rst_regwen_2_qs) 725 ); 726 727 728 // Subregister 3 of Multireg sw_rst_regwen 729 // R[sw_rst_regwen_3]: V(False) 730 prim_subreg #( 731 .DW (1), 732 .SwAccess(prim_subreg_pkg::SwAccessW0C), 733 .RESVAL (1'h1), 734 .Mubi (1'b0) 735 ) u_sw_rst_regwen_3 ( 736 .clk_i (clk_i), 737 .rst_ni (rst_ni), 738 739 // from register interface 740 .we (sw_rst_regwen_3_we), 741 .wd (sw_rst_regwen_3_wd), 742 743 // from internal hardware 744 .de (1'b0), 745 .d ('0), 746 747 // to internal hardware 748 .qe (), 749 .q (), 750 .ds (), 751 752 // to register interface (read) 753 .qs (sw_rst_regwen_3_qs) 754 ); 755 756 757 // Subregister 4 of Multireg sw_rst_regwen 758 // R[sw_rst_regwen_4]: V(False) 759 prim_subreg #( 760 .DW (1), 761 .SwAccess(prim_subreg_pkg::SwAccessW0C), 762 .RESVAL (1'h1), 763 .Mubi (1'b0) 764 ) u_sw_rst_regwen_4 ( 765 .clk_i (clk_i), 766 .rst_ni (rst_ni), 767 768 // from register interface 769 .we (sw_rst_regwen_4_we), 770 .wd (sw_rst_regwen_4_wd), 771 772 // from internal hardware 773 .de (1'b0), 774 .d ('0), 775 776 // to internal hardware 777 .qe (), 778 .q (), 779 .ds (), 780 781 // to register interface (read) 782 .qs (sw_rst_regwen_4_qs) 783 ); 784 785 786 // Subregister 5 of Multireg sw_rst_regwen 787 // R[sw_rst_regwen_5]: V(False) 788 prim_subreg #( 789 .DW (1), 790 .SwAccess(prim_subreg_pkg::SwAccessW0C), 791 .RESVAL (1'h1), 792 .Mubi (1'b0) 793 ) u_sw_rst_regwen_5 ( 794 .clk_i (clk_i), 795 .rst_ni (rst_ni), 796 797 // from register interface 798 .we (sw_rst_regwen_5_we), 799 .wd (sw_rst_regwen_5_wd), 800 801 // from internal hardware 802 .de (1'b0), 803 .d ('0), 804 805 // to internal hardware 806 .qe (), 807 .q (), 808 .ds (), 809 810 // to register interface (read) 811 .qs (sw_rst_regwen_5_qs) 812 ); 813 814 815 // Subregister 6 of Multireg sw_rst_regwen 816 // R[sw_rst_regwen_6]: V(False) 817 prim_subreg #( 818 .DW (1), 819 .SwAccess(prim_subreg_pkg::SwAccessW0C), 820 .RESVAL (1'h1), 821 .Mubi (1'b0) 822 ) u_sw_rst_regwen_6 ( 823 .clk_i (clk_i), 824 .rst_ni (rst_ni), 825 826 // from register interface 827 .we (sw_rst_regwen_6_we), 828 .wd (sw_rst_regwen_6_wd), 829 830 // from internal hardware 831 .de (1'b0), 832 .d ('0), 833 834 // to internal hardware 835 .qe (), 836 .q (), 837 .ds (), 838 839 // to register interface (read) 840 .qs (sw_rst_regwen_6_qs) 841 ); 842 843 844 // Subregister 7 of Multireg sw_rst_regwen 845 // R[sw_rst_regwen_7]: V(False) 846 prim_subreg #( 847 .DW (1), 848 .SwAccess(prim_subreg_pkg::SwAccessW0C), 849 .RESVAL (1'h1), 850 .Mubi (1'b0) 851 ) u_sw_rst_regwen_7 ( 852 .clk_i (clk_i), 853 .rst_ni (rst_ni), 854 855 // from register interface 856 .we (sw_rst_regwen_7_we), 857 .wd (sw_rst_regwen_7_wd), 858 859 // from internal hardware 860 .de (1'b0), 861 .d ('0), 862 863 // to internal hardware 864 .qe (), 865 .q (), 866 .ds (), 867 868 // to register interface (read) 869 .qs (sw_rst_regwen_7_qs) 870 ); 871 872 873 // Subregister 0 of Multireg sw_rst_ctrl_n 874 // R[sw_rst_ctrl_n_0]: V(False) 875 // Create REGWEN-gated WE signal 876 logic sw_rst_ctrl_n_0_gated_we; 877 1/1 assign sw_rst_ctrl_n_0_gated_we = sw_rst_ctrl_n_0_we & sw_rst_regwen_0_qs; Tests: T2 T4 T6  878 prim_subreg #( 879 .DW (1), 880 .SwAccess(prim_subreg_pkg::SwAccessRW), 881 .RESVAL (1'h1), 882 .Mubi (1'b0) 883 ) u_sw_rst_ctrl_n_0 ( 884 .clk_i (clk_i), 885 .rst_ni (rst_ni), 886 887 // from register interface 888 .we (sw_rst_ctrl_n_0_gated_we), 889 .wd (sw_rst_ctrl_n_0_wd), 890 891 // from internal hardware 892 .de (1'b0), 893 .d ('0), 894 895 // to internal hardware 896 .qe (), 897 .q (reg2hw.sw_rst_ctrl_n[0].q), 898 .ds (), 899 900 // to register interface (read) 901 .qs (sw_rst_ctrl_n_0_qs) 902 ); 903 904 905 // Subregister 1 of Multireg sw_rst_ctrl_n 906 // R[sw_rst_ctrl_n_1]: V(False) 907 // Create REGWEN-gated WE signal 908 logic sw_rst_ctrl_n_1_gated_we; 909 1/1 assign sw_rst_ctrl_n_1_gated_we = sw_rst_ctrl_n_1_we & sw_rst_regwen_1_qs; Tests: T2 T4 T6  910 prim_subreg #( 911 .DW (1), 912 .SwAccess(prim_subreg_pkg::SwAccessRW), 913 .RESVAL (1'h1), 914 .Mubi (1'b0) 915 ) u_sw_rst_ctrl_n_1 ( 916 .clk_i (clk_i), 917 .rst_ni (rst_ni), 918 919 // from register interface 920 .we (sw_rst_ctrl_n_1_gated_we), 921 .wd (sw_rst_ctrl_n_1_wd), 922 923 // from internal hardware 924 .de (1'b0), 925 .d ('0), 926 927 // to internal hardware 928 .qe (), 929 .q (reg2hw.sw_rst_ctrl_n[1].q), 930 .ds (), 931 932 // to register interface (read) 933 .qs (sw_rst_ctrl_n_1_qs) 934 ); 935 936 937 // Subregister 2 of Multireg sw_rst_ctrl_n 938 // R[sw_rst_ctrl_n_2]: V(False) 939 // Create REGWEN-gated WE signal 940 logic sw_rst_ctrl_n_2_gated_we; 941 1/1 assign sw_rst_ctrl_n_2_gated_we = sw_rst_ctrl_n_2_we & sw_rst_regwen_2_qs; Tests: T2 T4 T6  942 prim_subreg #( 943 .DW (1), 944 .SwAccess(prim_subreg_pkg::SwAccessRW), 945 .RESVAL (1'h1), 946 .Mubi (1'b0) 947 ) u_sw_rst_ctrl_n_2 ( 948 .clk_i (clk_i), 949 .rst_ni (rst_ni), 950 951 // from register interface 952 .we (sw_rst_ctrl_n_2_gated_we), 953 .wd (sw_rst_ctrl_n_2_wd), 954 955 // from internal hardware 956 .de (1'b0), 957 .d ('0), 958 959 // to internal hardware 960 .qe (), 961 .q (reg2hw.sw_rst_ctrl_n[2].q), 962 .ds (), 963 964 // to register interface (read) 965 .qs (sw_rst_ctrl_n_2_qs) 966 ); 967 968 969 // Subregister 3 of Multireg sw_rst_ctrl_n 970 // R[sw_rst_ctrl_n_3]: V(False) 971 // Create REGWEN-gated WE signal 972 logic sw_rst_ctrl_n_3_gated_we; 973 1/1 assign sw_rst_ctrl_n_3_gated_we = sw_rst_ctrl_n_3_we & sw_rst_regwen_3_qs; Tests: T2 T4 T6  974 prim_subreg #( 975 .DW (1), 976 .SwAccess(prim_subreg_pkg::SwAccessRW), 977 .RESVAL (1'h1), 978 .Mubi (1'b0) 979 ) u_sw_rst_ctrl_n_3 ( 980 .clk_i (clk_i), 981 .rst_ni (rst_ni), 982 983 // from register interface 984 .we (sw_rst_ctrl_n_3_gated_we), 985 .wd (sw_rst_ctrl_n_3_wd), 986 987 // from internal hardware 988 .de (1'b0), 989 .d ('0), 990 991 // to internal hardware 992 .qe (), 993 .q (reg2hw.sw_rst_ctrl_n[3].q), 994 .ds (), 995 996 // to register interface (read) 997 .qs (sw_rst_ctrl_n_3_qs) 998 ); 999 1000 1001 // Subregister 4 of Multireg sw_rst_ctrl_n 1002 // R[sw_rst_ctrl_n_4]: V(False) 1003 // Create REGWEN-gated WE signal 1004 logic sw_rst_ctrl_n_4_gated_we; 1005 1/1 assign sw_rst_ctrl_n_4_gated_we = sw_rst_ctrl_n_4_we & sw_rst_regwen_4_qs; Tests: T2 T4 T6  1006 prim_subreg #( 1007 .DW (1), 1008 .SwAccess(prim_subreg_pkg::SwAccessRW), 1009 .RESVAL (1'h1), 1010 .Mubi (1'b0) 1011 ) u_sw_rst_ctrl_n_4 ( 1012 .clk_i (clk_i), 1013 .rst_ni (rst_ni), 1014 1015 // from register interface 1016 .we (sw_rst_ctrl_n_4_gated_we), 1017 .wd (sw_rst_ctrl_n_4_wd), 1018 1019 // from internal hardware 1020 .de (1'b0), 1021 .d ('0), 1022 1023 // to internal hardware 1024 .qe (), 1025 .q (reg2hw.sw_rst_ctrl_n[4].q), 1026 .ds (), 1027 1028 // to register interface (read) 1029 .qs (sw_rst_ctrl_n_4_qs) 1030 ); 1031 1032 1033 // Subregister 5 of Multireg sw_rst_ctrl_n 1034 // R[sw_rst_ctrl_n_5]: V(False) 1035 // Create REGWEN-gated WE signal 1036 logic sw_rst_ctrl_n_5_gated_we; 1037 1/1 assign sw_rst_ctrl_n_5_gated_we = sw_rst_ctrl_n_5_we & sw_rst_regwen_5_qs; Tests: T2 T4 T6  1038 prim_subreg #( 1039 .DW (1), 1040 .SwAccess(prim_subreg_pkg::SwAccessRW), 1041 .RESVAL (1'h1), 1042 .Mubi (1'b0) 1043 ) u_sw_rst_ctrl_n_5 ( 1044 .clk_i (clk_i), 1045 .rst_ni (rst_ni), 1046 1047 // from register interface 1048 .we (sw_rst_ctrl_n_5_gated_we), 1049 .wd (sw_rst_ctrl_n_5_wd), 1050 1051 // from internal hardware 1052 .de (1'b0), 1053 .d ('0), 1054 1055 // to internal hardware 1056 .qe (), 1057 .q (reg2hw.sw_rst_ctrl_n[5].q), 1058 .ds (), 1059 1060 // to register interface (read) 1061 .qs (sw_rst_ctrl_n_5_qs) 1062 ); 1063 1064 1065 // Subregister 6 of Multireg sw_rst_ctrl_n 1066 // R[sw_rst_ctrl_n_6]: V(False) 1067 // Create REGWEN-gated WE signal 1068 logic sw_rst_ctrl_n_6_gated_we; 1069 1/1 assign sw_rst_ctrl_n_6_gated_we = sw_rst_ctrl_n_6_we & sw_rst_regwen_6_qs; Tests: T2 T4 T6  1070 prim_subreg #( 1071 .DW (1), 1072 .SwAccess(prim_subreg_pkg::SwAccessRW), 1073 .RESVAL (1'h1), 1074 .Mubi (1'b0) 1075 ) u_sw_rst_ctrl_n_6 ( 1076 .clk_i (clk_i), 1077 .rst_ni (rst_ni), 1078 1079 // from register interface 1080 .we (sw_rst_ctrl_n_6_gated_we), 1081 .wd (sw_rst_ctrl_n_6_wd), 1082 1083 // from internal hardware 1084 .de (1'b0), 1085 .d ('0), 1086 1087 // to internal hardware 1088 .qe (), 1089 .q (reg2hw.sw_rst_ctrl_n[6].q), 1090 .ds (), 1091 1092 // to register interface (read) 1093 .qs (sw_rst_ctrl_n_6_qs) 1094 ); 1095 1096 1097 // Subregister 7 of Multireg sw_rst_ctrl_n 1098 // R[sw_rst_ctrl_n_7]: V(False) 1099 // Create REGWEN-gated WE signal 1100 logic sw_rst_ctrl_n_7_gated_we; 1101 1/1 assign sw_rst_ctrl_n_7_gated_we = sw_rst_ctrl_n_7_we & sw_rst_regwen_7_qs; Tests: T2 T4 T6  1102 prim_subreg #( 1103 .DW (1), 1104 .SwAccess(prim_subreg_pkg::SwAccessRW), 1105 .RESVAL (1'h1), 1106 .Mubi (1'b0) 1107 ) u_sw_rst_ctrl_n_7 ( 1108 .clk_i (clk_i), 1109 .rst_ni (rst_ni), 1110 1111 // from register interface 1112 .we (sw_rst_ctrl_n_7_gated_we), 1113 .wd (sw_rst_ctrl_n_7_wd), 1114 1115 // from internal hardware 1116 .de (1'b0), 1117 .d ('0), 1118 1119 // to internal hardware 1120 .qe (), 1121 .q (reg2hw.sw_rst_ctrl_n[7].q), 1122 .ds (), 1123 1124 // to register interface (read) 1125 .qs (sw_rst_ctrl_n_7_qs) 1126 ); 1127 1128 1129 // R[err_code]: V(False) 1130 // F[reg_intg_err]: 0:0 1131 prim_subreg #( 1132 .DW (1), 1133 .SwAccess(prim_subreg_pkg::SwAccessRO), 1134 .RESVAL (1'h0), 1135 .Mubi (1'b0) 1136 ) u_err_code_reg_intg_err ( 1137 .clk_i (clk_i), 1138 .rst_ni (rst_ni), 1139 1140 // from register interface 1141 .we (1'b0), 1142 .wd ('0), 1143 1144 // from internal hardware 1145 .de (hw2reg.err_code.reg_intg_err.de), 1146 .d (hw2reg.err_code.reg_intg_err.d), 1147 1148 // to internal hardware 1149 .qe (), 1150 .q (reg2hw.err_code.reg_intg_err.q), 1151 .ds (), 1152 1153 // to register interface (read) 1154 .qs (err_code_reg_intg_err_qs) 1155 ); 1156 1157 // F[reset_consistency_err]: 1:1 1158 prim_subreg #( 1159 .DW (1), 1160 .SwAccess(prim_subreg_pkg::SwAccessRO), 1161 .RESVAL (1'h0), 1162 .Mubi (1'b0) 1163 ) u_err_code_reset_consistency_err ( 1164 .clk_i (clk_i), 1165 .rst_ni (rst_ni), 1166 1167 // from register interface 1168 .we (1'b0), 1169 .wd ('0), 1170 1171 // from internal hardware 1172 .de (hw2reg.err_code.reset_consistency_err.de), 1173 .d (hw2reg.err_code.reset_consistency_err.d), 1174 1175 // to internal hardware 1176 .qe (), 1177 .q (reg2hw.err_code.reset_consistency_err.q), 1178 .ds (), 1179 1180 // to register interface (read) 1181 .qs (err_code_reset_consistency_err_qs) 1182 ); 1183 1184 // F[fsm_err]: 2:2 1185 prim_subreg #( 1186 .DW (1), 1187 .SwAccess(prim_subreg_pkg::SwAccessRO), 1188 .RESVAL (1'h0), 1189 .Mubi (1'b0) 1190 ) u_err_code_fsm_err ( 1191 .clk_i (clk_i), 1192 .rst_ni (rst_ni), 1193 1194 // from register interface 1195 .we (1'b0), 1196 .wd ('0), 1197 1198 // from internal hardware 1199 .de (hw2reg.err_code.fsm_err.de), 1200 .d (hw2reg.err_code.fsm_err.d), 1201 1202 // to internal hardware 1203 .qe (), 1204 .q (reg2hw.err_code.fsm_err.q), 1205 .ds (), 1206 1207 // to register interface (read) 1208 .qs (err_code_fsm_err_qs) 1209 ); 1210 1211 1212 1213 logic [27:0] addr_hit; 1214 always_comb begin 1215 1/1 addr_hit = '0; Tests: T1 T2 T3  1216 1/1 addr_hit[ 0] = (reg_addr == RSTMGR_ALERT_TEST_OFFSET); Tests: T1 T2 T3  1217 1/1 addr_hit[ 1] = (reg_addr == RSTMGR_RESET_REQ_OFFSET); Tests: T1 T2 T3  1218 1/1 addr_hit[ 2] = (reg_addr == RSTMGR_RESET_INFO_OFFSET); Tests: T1 T2 T3  1219 1/1 addr_hit[ 3] = (reg_addr == RSTMGR_ALERT_REGWEN_OFFSET); Tests: T1 T2 T3  1220 1/1 addr_hit[ 4] = (reg_addr == RSTMGR_ALERT_INFO_CTRL_OFFSET); Tests: T1 T2 T3  1221 1/1 addr_hit[ 5] = (reg_addr == RSTMGR_ALERT_INFO_ATTR_OFFSET); Tests: T1 T2 T3  1222 1/1 addr_hit[ 6] = (reg_addr == RSTMGR_ALERT_INFO_OFFSET); Tests: T1 T2 T3  1223 1/1 addr_hit[ 7] = (reg_addr == RSTMGR_CPU_REGWEN_OFFSET); Tests: T1 T2 T3  1224 1/1 addr_hit[ 8] = (reg_addr == RSTMGR_CPU_INFO_CTRL_OFFSET); Tests: T1 T2 T3  1225 1/1 addr_hit[ 9] = (reg_addr == RSTMGR_CPU_INFO_ATTR_OFFSET); Tests: T1 T2 T3  1226 1/1 addr_hit[10] = (reg_addr == RSTMGR_CPU_INFO_OFFSET); Tests: T1 T2 T3  1227 1/1 addr_hit[11] = (reg_addr == RSTMGR_SW_RST_REGWEN_0_OFFSET); Tests: T1 T2 T3  1228 1/1 addr_hit[12] = (reg_addr == RSTMGR_SW_RST_REGWEN_1_OFFSET); Tests: T1 T2 T3  1229 1/1 addr_hit[13] = (reg_addr == RSTMGR_SW_RST_REGWEN_2_OFFSET); Tests: T1 T2 T3  1230 1/1 addr_hit[14] = (reg_addr == RSTMGR_SW_RST_REGWEN_3_OFFSET); Tests: T1 T2 T3  1231 1/1 addr_hit[15] = (reg_addr == RSTMGR_SW_RST_REGWEN_4_OFFSET); Tests: T1 T2 T3  1232 1/1 addr_hit[16] = (reg_addr == RSTMGR_SW_RST_REGWEN_5_OFFSET); Tests: T1 T2 T3  1233 1/1 addr_hit[17] = (reg_addr == RSTMGR_SW_RST_REGWEN_6_OFFSET); Tests: T1 T2 T3  1234 1/1 addr_hit[18] = (reg_addr == RSTMGR_SW_RST_REGWEN_7_OFFSET); Tests: T1 T2 T3  1235 1/1 addr_hit[19] = (reg_addr == RSTMGR_SW_RST_CTRL_N_0_OFFSET); Tests: T1 T2 T3  1236 1/1 addr_hit[20] = (reg_addr == RSTMGR_SW_RST_CTRL_N_1_OFFSET); Tests: T1 T2 T3  1237 1/1 addr_hit[21] = (reg_addr == RSTMGR_SW_RST_CTRL_N_2_OFFSET); Tests: T1 T2 T3  1238 1/1 addr_hit[22] = (reg_addr == RSTMGR_SW_RST_CTRL_N_3_OFFSET); Tests: T1 T2 T3  1239 1/1 addr_hit[23] = (reg_addr == RSTMGR_SW_RST_CTRL_N_4_OFFSET); Tests: T1 T2 T3  1240 1/1 addr_hit[24] = (reg_addr == RSTMGR_SW_RST_CTRL_N_5_OFFSET); Tests: T1 T2 T3  1241 1/1 addr_hit[25] = (reg_addr == RSTMGR_SW_RST_CTRL_N_6_OFFSET); Tests: T1 T2 T3  1242 1/1 addr_hit[26] = (reg_addr == RSTMGR_SW_RST_CTRL_N_7_OFFSET); Tests: T1 T2 T3  1243 1/1 addr_hit[27] = (reg_addr == RSTMGR_ERR_CODE_OFFSET); Tests: T1 T2 T3  1244 end 1245 1246 1/1 assign addrmiss = (reg_re || reg_we) ? ~|addr_hit : 1'b0 ; Tests: T1 T2 T3  1247 1248 // Check sub-word write is permitted 1249 always_comb begin 1250 1/1 wr_err = (reg_we & Tests: T1 T2 T3  1251 ((addr_hit[ 0] & (|(RSTMGR_PERMIT[ 0] & ~reg_be))) | 1252 (addr_hit[ 1] & (|(RSTMGR_PERMIT[ 1] & ~reg_be))) | 1253 (addr_hit[ 2] & (|(RSTMGR_PERMIT[ 2] & ~reg_be))) | 1254 (addr_hit[ 3] & (|(RSTMGR_PERMIT[ 3] & ~reg_be))) | 1255 (addr_hit[ 4] & (|(RSTMGR_PERMIT[ 4] & ~reg_be))) | 1256 (addr_hit[ 5] & (|(RSTMGR_PERMIT[ 5] & ~reg_be))) | 1257 (addr_hit[ 6] & (|(RSTMGR_PERMIT[ 6] & ~reg_be))) | 1258 (addr_hit[ 7] & (|(RSTMGR_PERMIT[ 7] & ~reg_be))) | 1259 (addr_hit[ 8] & (|(RSTMGR_PERMIT[ 8] & ~reg_be))) | 1260 (addr_hit[ 9] & (|(RSTMGR_PERMIT[ 9] & ~reg_be))) | 1261 (addr_hit[10] & (|(RSTMGR_PERMIT[10] & ~reg_be))) | 1262 (addr_hit[11] & (|(RSTMGR_PERMIT[11] & ~reg_be))) | 1263 (addr_hit[12] & (|(RSTMGR_PERMIT[12] & ~reg_be))) | 1264 (addr_hit[13] & (|(RSTMGR_PERMIT[13] & ~reg_be))) | 1265 (addr_hit[14] & (|(RSTMGR_PERMIT[14] & ~reg_be))) | 1266 (addr_hit[15] & (|(RSTMGR_PERMIT[15] & ~reg_be))) | 1267 (addr_hit[16] & (|(RSTMGR_PERMIT[16] & ~reg_be))) | 1268 (addr_hit[17] & (|(RSTMGR_PERMIT[17] & ~reg_be))) | 1269 (addr_hit[18] & (|(RSTMGR_PERMIT[18] & ~reg_be))) | 1270 (addr_hit[19] & (|(RSTMGR_PERMIT[19] & ~reg_be))) | 1271 (addr_hit[20] & (|(RSTMGR_PERMIT[20] & ~reg_be))) | 1272 (addr_hit[21] & (|(RSTMGR_PERMIT[21] & ~reg_be))) | 1273 (addr_hit[22] & (|(RSTMGR_PERMIT[22] & ~reg_be))) | 1274 (addr_hit[23] & (|(RSTMGR_PERMIT[23] & ~reg_be))) | 1275 (addr_hit[24] & (|(RSTMGR_PERMIT[24] & ~reg_be))) | 1276 (addr_hit[25] & (|(RSTMGR_PERMIT[25] & ~reg_be))) | 1277 (addr_hit[26] & (|(RSTMGR_PERMIT[26] & ~reg_be))) | 1278 (addr_hit[27] & (|(RSTMGR_PERMIT[27] & ~reg_be))))); 1279 end 1280 1281 // Generate write-enables 1282 1/1 assign alert_test_we = addr_hit[0] & reg_we & !reg_error; Tests: T1 T2 T3  1283 1284 1/1 assign alert_test_fatal_fault_wd = reg_wdata[0]; Tests: T1 T2 T3  1285 1286 1/1 assign alert_test_fatal_cnsty_fault_wd = reg_wdata[1]; Tests: T1 T2 T3  1287 1/1 assign reset_req_we = addr_hit[1] & reg_we & !reg_error; Tests: T1 T2 T3  1288 1289 1/1 assign reset_req_wd = reg_wdata[3:0]; Tests: T1 T2 T3  1290 1/1 assign reset_info_we = addr_hit[2] & reg_we & !reg_error; Tests: T1 T2 T3  1291 1292 1/1 assign reset_info_por_wd = reg_wdata[0]; Tests: T1 T2 T3  1293 1294 1/1 assign reset_info_low_power_exit_wd = reg_wdata[1]; Tests: T1 T2 T3  1295 1296 1/1 assign reset_info_sw_reset_wd = reg_wdata[2]; Tests: T1 T2 T3  1297 1298 1/1 assign reset_info_hw_req_wd = reg_wdata[7:3]; Tests: T1 T2 T3  1299 1/1 assign alert_regwen_we = addr_hit[3] & reg_we & !reg_error; Tests: T1 T2 T3  1300 1301 1/1 assign alert_regwen_wd = reg_wdata[0]; Tests: T1 T2 T3  1302 1/1 assign alert_info_ctrl_we = addr_hit[4] & reg_we & !reg_error; Tests: T1 T2 T3  1303 1304 1/1 assign alert_info_ctrl_en_wd = reg_wdata[0]; Tests: T1 T2 T3  1305 1306 1/1 assign alert_info_ctrl_index_wd = reg_wdata[7:4]; Tests: T1 T2 T3  1307 1/1 assign alert_info_attr_re = addr_hit[5] & reg_re & !reg_error; Tests: T1 T2 T3  1308 1/1 assign alert_info_re = addr_hit[6] & reg_re & !reg_error; Tests: T1 T2 T3  1309 1/1 assign cpu_regwen_we = addr_hit[7] & reg_we & !reg_error; Tests: T1 T2 T3  1310 1311 1/1 assign cpu_regwen_wd = reg_wdata[0]; Tests: T1 T2 T3  1312 1/1 assign cpu_info_ctrl_we = addr_hit[8] & reg_we & !reg_error; Tests: T1 T2 T3  1313 1314 1/1 assign cpu_info_ctrl_en_wd = reg_wdata[0]; Tests: T1 T2 T3  1315 1316 1/1 assign cpu_info_ctrl_index_wd = reg_wdata[7:4]; Tests: T1 T2 T3  1317 1/1 assign cpu_info_attr_re = addr_hit[9] & reg_re & !reg_error; Tests: T1 T2 T3  1318 1/1 assign cpu_info_re = addr_hit[10] & reg_re & !reg_error; Tests: T1 T2 T3  1319 1/1 assign sw_rst_regwen_0_we = addr_hit[11] & reg_we & !reg_error; Tests: T1 T2 T3  1320 1321 1/1 assign sw_rst_regwen_0_wd = reg_wdata[0]; Tests: T1 T2 T3  1322 1/1 assign sw_rst_regwen_1_we = addr_hit[12] & reg_we & !reg_error; Tests: T1 T2 T3  1323 1324 1/1 assign sw_rst_regwen_1_wd = reg_wdata[0]; Tests: T1 T2 T3  1325 1/1 assign sw_rst_regwen_2_we = addr_hit[13] & reg_we & !reg_error; Tests: T1 T2 T3  1326 1327 1/1 assign sw_rst_regwen_2_wd = reg_wdata[0]; Tests: T1 T2 T3  1328 1/1 assign sw_rst_regwen_3_we = addr_hit[14] & reg_we & !reg_error; Tests: T1 T2 T3  1329 1330 1/1 assign sw_rst_regwen_3_wd = reg_wdata[0]; Tests: T1 T2 T3  1331 1/1 assign sw_rst_regwen_4_we = addr_hit[15] & reg_we & !reg_error; Tests: T1 T2 T3  1332 1333 1/1 assign sw_rst_regwen_4_wd = reg_wdata[0]; Tests: T1 T2 T3  1334 1/1 assign sw_rst_regwen_5_we = addr_hit[16] & reg_we & !reg_error; Tests: T1 T2 T3  1335 1336 1/1 assign sw_rst_regwen_5_wd = reg_wdata[0]; Tests: T1 T2 T3  1337 1/1 assign sw_rst_regwen_6_we = addr_hit[17] & reg_we & !reg_error; Tests: T1 T2 T3  1338 1339 1/1 assign sw_rst_regwen_6_wd = reg_wdata[0]; Tests: T1 T2 T3  1340 1/1 assign sw_rst_regwen_7_we = addr_hit[18] & reg_we & !reg_error; Tests: T1 T2 T3  1341 1342 1/1 assign sw_rst_regwen_7_wd = reg_wdata[0]; Tests: T1 T2 T3  1343 1/1 assign sw_rst_ctrl_n_0_we = addr_hit[19] & reg_we & !reg_error; Tests: T1 T2 T3  1344 1345 1/1 assign sw_rst_ctrl_n_0_wd = reg_wdata[0]; Tests: T1 T2 T3  1346 1/1 assign sw_rst_ctrl_n_1_we = addr_hit[20] & reg_we & !reg_error; Tests: T1 T2 T3  1347 1348 1/1 assign sw_rst_ctrl_n_1_wd = reg_wdata[0]; Tests: T1 T2 T3  1349 1/1 assign sw_rst_ctrl_n_2_we = addr_hit[21] & reg_we & !reg_error; Tests: T1 T2 T3  1350 1351 1/1 assign sw_rst_ctrl_n_2_wd = reg_wdata[0]; Tests: T1 T2 T3  1352 1/1 assign sw_rst_ctrl_n_3_we = addr_hit[22] & reg_we & !reg_error; Tests: T1 T2 T3  1353 1354 1/1 assign sw_rst_ctrl_n_3_wd = reg_wdata[0]; Tests: T1 T2 T3  1355 1/1 assign sw_rst_ctrl_n_4_we = addr_hit[23] & reg_we & !reg_error; Tests: T1 T2 T3  1356 1357 1/1 assign sw_rst_ctrl_n_4_wd = reg_wdata[0]; Tests: T1 T2 T3  1358 1/1 assign sw_rst_ctrl_n_5_we = addr_hit[24] & reg_we & !reg_error; Tests: T1 T2 T3  1359 1360 1/1 assign sw_rst_ctrl_n_5_wd = reg_wdata[0]; Tests: T1 T2 T3  1361 1/1 assign sw_rst_ctrl_n_6_we = addr_hit[25] & reg_we & !reg_error; Tests: T1 T2 T3  1362 1363 1/1 assign sw_rst_ctrl_n_6_wd = reg_wdata[0]; Tests: T1 T2 T3  1364 1/1 assign sw_rst_ctrl_n_7_we = addr_hit[26] & reg_we & !reg_error; Tests: T1 T2 T3  1365 1366 1/1 assign sw_rst_ctrl_n_7_wd = reg_wdata[0]; Tests: T1 T2 T3  1367 1368 // Assign write-enables to checker logic vector. 1369 always_comb begin 1370 1/1 reg_we_check = '0; Tests: T2 T3 T4  1371 1/1 reg_we_check[0] = alert_test_we; Tests: T2 T3 T4  1372 1/1 reg_we_check[1] = reset_req_we; Tests: T2 T3 T4  1373 1/1 reg_we_check[2] = reset_info_we; Tests: T2 T3 T4  1374 1/1 reg_we_check[3] = alert_regwen_we; Tests: T2 T3 T4  1375 1/1 reg_we_check[4] = alert_info_ctrl_gated_we; Tests: T2 T3 T4  1376 1/1 reg_we_check[5] = 1'b0; Tests: T2 T3 T4  1377 1/1 reg_we_check[6] = 1'b0; Tests: T2 T3 T4  1378 1/1 reg_we_check[7] = cpu_regwen_we; Tests: T2 T3 T4  1379 1/1 reg_we_check[8] = cpu_info_ctrl_gated_we; Tests: T2 T3 T4  1380 1/1 reg_we_check[9] = 1'b0; Tests: T2 T3 T4  1381 1/1 reg_we_check[10] = 1'b0; Tests: T2 T3 T4  1382 1/1 reg_we_check[11] = sw_rst_regwen_0_we; Tests: T2 T3 T4  1383 1/1 reg_we_check[12] = sw_rst_regwen_1_we; Tests: T2 T3 T4  1384 1/1 reg_we_check[13] = sw_rst_regwen_2_we; Tests: T2 T3 T4  1385 1/1 reg_we_check[14] = sw_rst_regwen_3_we; Tests: T2 T3 T4  1386 1/1 reg_we_check[15] = sw_rst_regwen_4_we; Tests: T2 T3 T4  1387 1/1 reg_we_check[16] = sw_rst_regwen_5_we; Tests: T2 T3 T4  1388 1/1 reg_we_check[17] = sw_rst_regwen_6_we; Tests: T2 T3 T4  1389 1/1 reg_we_check[18] = sw_rst_regwen_7_we; Tests: T2 T3 T4  1390 1/1 reg_we_check[19] = sw_rst_ctrl_n_0_gated_we; Tests: T2 T3 T4  1391 1/1 reg_we_check[20] = sw_rst_ctrl_n_1_gated_we; Tests: T2 T3 T4  1392 1/1 reg_we_check[21] = sw_rst_ctrl_n_2_gated_we; Tests: T2 T3 T4  1393 1/1 reg_we_check[22] = sw_rst_ctrl_n_3_gated_we; Tests: T2 T3 T4  1394 1/1 reg_we_check[23] = sw_rst_ctrl_n_4_gated_we; Tests: T2 T3 T4  1395 1/1 reg_we_check[24] = sw_rst_ctrl_n_5_gated_we; Tests: T2 T3 T4  1396 1/1 reg_we_check[25] = sw_rst_ctrl_n_6_gated_we; Tests: T2 T3 T4  1397 1/1 reg_we_check[26] = sw_rst_ctrl_n_7_gated_we; Tests: T2 T3 T4  1398 1/1 reg_we_check[27] = 1'b0; Tests: T2 T3 T4  1399 end 1400 1401 // Read data return 1402 always_comb begin 1403 1/1 reg_rdata_next = '0; Tests: T1 T2 T3  1404 1/1 unique case (1'b1) Tests: T1 T2 T3  1405 addr_hit[0]: begin 1406 1/1 reg_rdata_next[0] = '0; Tests: T1 T2 T3  1407 1/1 reg_rdata_next[1] = '0; Tests: T1 T2 T3  1408 end 1409 1410 addr_hit[1]: begin 1411 1/1 reg_rdata_next[3:0] = reset_req_qs; Tests: T1 T2 T3  1412 end 1413 1414 addr_hit[2]: begin 1415 1/1 reg_rdata_next[0] = reset_info_por_qs; Tests: T1 T2 T3  1416 1/1 reg_rdata_next[1] = reset_info_low_power_exit_qs; Tests: T1 T2 T3  1417 1/1 reg_rdata_next[2] = reset_info_sw_reset_qs; Tests: T1 T2 T3  1418 1/1 reg_rdata_next[7:3] = reset_info_hw_req_qs; Tests: T1 T2 T3  1419 end 1420 1421 addr_hit[3]: begin 1422 1/1 reg_rdata_next[0] = alert_regwen_qs; Tests: T1 T2 T3  1423 end 1424 1425 addr_hit[4]: begin 1426 1/1 reg_rdata_next[0] = alert_info_ctrl_en_qs; Tests: T1 T2 T3  1427 1/1 reg_rdata_next[7:4] = alert_info_ctrl_index_qs; Tests: T1 T2 T3  1428 end 1429 1430 addr_hit[5]: begin 1431 1/1 reg_rdata_next[3:0] = alert_info_attr_qs; Tests: T1 T2 T3  1432 end 1433 1434 addr_hit[6]: begin 1435 1/1 reg_rdata_next[31:0] = alert_info_qs; Tests: T1 T2 T3  1436 end 1437 1438 addr_hit[7]: begin 1439 1/1 reg_rdata_next[0] = cpu_regwen_qs; Tests: T1 T2 T3  1440 end 1441 1442 addr_hit[8]: begin 1443 1/1 reg_rdata_next[0] = cpu_info_ctrl_en_qs; Tests: T1 T2 T3  1444 1/1 reg_rdata_next[7:4] = cpu_info_ctrl_index_qs; Tests: T1 T2 T3  1445 end 1446 1447 addr_hit[9]: begin 1448 1/1 reg_rdata_next[3:0] = cpu_info_attr_qs; Tests: T1 T2 T3  1449 end 1450 1451 addr_hit[10]: begin 1452 1/1 reg_rdata_next[31:0] = cpu_info_qs; Tests: T1 T2 T3  1453 end 1454 1455 addr_hit[11]: begin 1456 1/1 reg_rdata_next[0] = sw_rst_regwen_0_qs; Tests: T1 T2 T3  1457 end 1458 1459 addr_hit[12]: begin 1460 1/1 reg_rdata_next[0] = sw_rst_regwen_1_qs; Tests: T1 T2 T3  1461 end 1462 1463 addr_hit[13]: begin 1464 1/1 reg_rdata_next[0] = sw_rst_regwen_2_qs; Tests: T1 T2 T3  1465 end 1466 1467 addr_hit[14]: begin 1468 1/1 reg_rdata_next[0] = sw_rst_regwen_3_qs; Tests: T1 T2 T3  1469 end 1470 1471 addr_hit[15]: begin 1472 1/1 reg_rdata_next[0] = sw_rst_regwen_4_qs; Tests: T1 T2 T3  1473 end 1474 1475 addr_hit[16]: begin 1476 1/1 reg_rdata_next[0] = sw_rst_regwen_5_qs; Tests: T1 T2 T3  1477 end 1478 1479 addr_hit[17]: begin 1480 1/1 reg_rdata_next[0] = sw_rst_regwen_6_qs; Tests: T1 T2 T3  1481 end 1482 1483 addr_hit[18]: begin 1484 1/1 reg_rdata_next[0] = sw_rst_regwen_7_qs; Tests: T1 T2 T3  1485 end 1486 1487 addr_hit[19]: begin 1488 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_0_qs; Tests: T1 T2 T3  1489 end 1490 1491 addr_hit[20]: begin 1492 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_1_qs; Tests: T1 T2 T3  1493 end 1494 1495 addr_hit[21]: begin 1496 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_2_qs; Tests: T1 T2 T3  1497 end 1498 1499 addr_hit[22]: begin 1500 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_3_qs; Tests: T1 T2 T3  1501 end 1502 1503 addr_hit[23]: begin 1504 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_4_qs; Tests: T1 T2 T3  1505 end 1506 1507 addr_hit[24]: begin 1508 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_5_qs; Tests: T1 T2 T3  1509 end 1510 1511 addr_hit[25]: begin 1512 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_6_qs; Tests: T1 T2 T3  1513 end 1514 1515 addr_hit[26]: begin 1516 1/1 reg_rdata_next[0] = sw_rst_ctrl_n_7_qs; Tests: T1 T2 T3  1517 end 1518 1519 addr_hit[27]: begin 1520 1/1 reg_rdata_next[0] = err_code_reg_intg_err_qs; Tests: T1 T2 T3  1521 1/1 reg_rdata_next[1] = err_code_reset_consistency_err_qs; Tests: T1 T2 T3  1522 1/1 reg_rdata_next[2] = err_code_fsm_err_qs; Tests: T1 T2 T3  1523 end 1524 1525 default: begin 1526 reg_rdata_next = '1; 1527 end 1528 endcase 1529 end 1530 1531 // shadow busy 1532 logic shadow_busy; 1533 assign shadow_busy = 1'b0; 1534 1535 // register busy 1536 unreachable assign reg_busy = shadow_busy; 1537 1538 // Unused signal tieoff 1539 1540 // wdata / byte enable are not always fully used 1541 // add a blanket unused statement to handle lint waivers 1542 logic unused_wdata; 1543 logic unused_be; 1544 1/1 assign unused_wdata = ^reg_wdata; Tests: T1 T2 T3  1545 1/1 assign unused_be = ^reg_be; Tests: T1 T2 T3 

Cond Coverage for Module : rstmgr_reg_top
TotalCoveredPercent
Conditions329329100.00
Logical329329100.00
Non-Logical00
Event00

This module contains a very large number of conditions, so the report has been split into multiple pages, by source line number. Click on the line number range in the table below to see the condition coverage for that section of the module.
Line numbersPercent
60-1355100.00
1358-1364100.00

Branch Coverage for Module : rstmgr_reg_top
Line No.TotalCoveredPercent
Branches 34 34 100.00
TERNARY 1246 2 2 100.00
IF 70 3 3 100.00
CASE 1404 29 29 100.00


1246 assign addrmiss = (reg_re || reg_we) ? ~|addr_hit : 1'b0 ; -1- ==> ==>

Branches:
-1-StatusTests
1 Covered T1,T2,T3
0 Covered T1,T2,T3


70 if (!rst_ni) begin -1- 71 err_q <= '0; ==> 72 end else if (intg_err || reg_we_err) begin -2- 73 err_q <= 1'b1; ==> 74 end MISSING_ELSE ==>

Branches:
-1--2-StatusTests
1 - Covered T1,T2,T3
0 1 Covered T78,T42,T79
0 0 Covered T1,T2,T3


1404 unique case (1'b1) -1- 1405 addr_hit[0]: begin 1406 reg_rdata_next[0] = '0; ==> 1407 reg_rdata_next[1] = '0; 1408 end 1409 1410 addr_hit[1]: begin 1411 reg_rdata_next[3:0] = reset_req_qs; ==> 1412 end 1413 1414 addr_hit[2]: begin 1415 reg_rdata_next[0] = reset_info_por_qs; ==> 1416 reg_rdata_next[1] = reset_info_low_power_exit_qs; 1417 reg_rdata_next[2] = reset_info_sw_reset_qs; 1418 reg_rdata_next[7:3] = reset_info_hw_req_qs; 1419 end 1420 1421 addr_hit[3]: begin 1422 reg_rdata_next[0] = alert_regwen_qs; ==> 1423 end 1424 1425 addr_hit[4]: begin 1426 reg_rdata_next[0] = alert_info_ctrl_en_qs; ==> 1427 reg_rdata_next[7:4] = alert_info_ctrl_index_qs; 1428 end 1429 1430 addr_hit[5]: begin 1431 reg_rdata_next[3:0] = alert_info_attr_qs; ==> 1432 end 1433 1434 addr_hit[6]: begin 1435 reg_rdata_next[31:0] = alert_info_qs; ==> 1436 end 1437 1438 addr_hit[7]: begin 1439 reg_rdata_next[0] = cpu_regwen_qs; ==> 1440 end 1441 1442 addr_hit[8]: begin 1443 reg_rdata_next[0] = cpu_info_ctrl_en_qs; ==> 1444 reg_rdata_next[7:4] = cpu_info_ctrl_index_qs; 1445 end 1446 1447 addr_hit[9]: begin 1448 reg_rdata_next[3:0] = cpu_info_attr_qs; ==> 1449 end 1450 1451 addr_hit[10]: begin 1452 reg_rdata_next[31:0] = cpu_info_qs; ==> 1453 end 1454 1455 addr_hit[11]: begin 1456 reg_rdata_next[0] = sw_rst_regwen_0_qs; ==> 1457 end 1458 1459 addr_hit[12]: begin 1460 reg_rdata_next[0] = sw_rst_regwen_1_qs; ==> 1461 end 1462 1463 addr_hit[13]: begin 1464 reg_rdata_next[0] = sw_rst_regwen_2_qs; ==> 1465 end 1466 1467 addr_hit[14]: begin 1468 reg_rdata_next[0] = sw_rst_regwen_3_qs; ==> 1469 end 1470 1471 addr_hit[15]: begin 1472 reg_rdata_next[0] = sw_rst_regwen_4_qs; ==> 1473 end 1474 1475 addr_hit[16]: begin 1476 reg_rdata_next[0] = sw_rst_regwen_5_qs; ==> 1477 end 1478 1479 addr_hit[17]: begin 1480 reg_rdata_next[0] = sw_rst_regwen_6_qs; ==> 1481 end 1482 1483 addr_hit[18]: begin 1484 reg_rdata_next[0] = sw_rst_regwen_7_qs; ==> 1485 end 1486 1487 addr_hit[19]: begin 1488 reg_rdata_next[0] = sw_rst_ctrl_n_0_qs; ==> 1489 end 1490 1491 addr_hit[20]: begin 1492 reg_rdata_next[0] = sw_rst_ctrl_n_1_qs; ==> 1493 end 1494 1495 addr_hit[21]: begin 1496 reg_rdata_next[0] = sw_rst_ctrl_n_2_qs; ==> 1497 end 1498 1499 addr_hit[22]: begin 1500 reg_rdata_next[0] = sw_rst_ctrl_n_3_qs; ==> 1501 end 1502 1503 addr_hit[23]: begin 1504 reg_rdata_next[0] = sw_rst_ctrl_n_4_qs; ==> 1505 end 1506 1507 addr_hit[24]: begin 1508 reg_rdata_next[0] = sw_rst_ctrl_n_5_qs; ==> 1509 end 1510 1511 addr_hit[25]: begin 1512 reg_rdata_next[0] = sw_rst_ctrl_n_6_qs; ==> 1513 end 1514 1515 addr_hit[26]: begin 1516 reg_rdata_next[0] = sw_rst_ctrl_n_7_qs; ==> 1517 end 1518 1519 addr_hit[27]: begin 1520 reg_rdata_next[0] = err_code_reg_intg_err_qs; ==> 1521 reg_rdata_next[1] = err_code_reset_consistency_err_qs; 1522 reg_rdata_next[2] = err_code_fsm_err_qs; 1523 end 1524 1525 default: begin 1526 reg_rdata_next = '1; ==>

Branches:
-1-StatusTests
addr_hit[0] Covered T1,T2,T3
addr_hit[1] Covered T1,T2,T3
addr_hit[2] Covered T1,T2,T3
addr_hit[3] Covered T1,T2,T3
addr_hit[4] Covered T1,T2,T3
addr_hit[5] Covered T1,T2,T3
addr_hit[6] Covered T1,T2,T3
addr_hit[7] Covered T1,T2,T3
addr_hit[8] Covered T1,T2,T3
addr_hit[9] Covered T1,T2,T3
addr_hit[10] Covered T1,T2,T3
addr_hit[11] Covered T1,T2,T3
addr_hit[12] Covered T1,T2,T3
addr_hit[13] Covered T1,T2,T3
addr_hit[14] Covered T1,T2,T3
addr_hit[15] Covered T1,T2,T3
addr_hit[16] Covered T1,T2,T3
addr_hit[17] Covered T1,T2,T3
addr_hit[18] Covered T1,T2,T3
addr_hit[19] Covered T1,T2,T3
addr_hit[20] Covered T1,T2,T3
addr_hit[21] Covered T1,T2,T3
addr_hit[22] Covered T1,T2,T3
addr_hit[23] Covered T1,T2,T3
addr_hit[24] Covered T1,T2,T3
addr_hit[25] Covered T1,T2,T3
addr_hit[26] Covered T1,T2,T3
addr_hit[27] Covered T1,T2,T3
default Covered T1,T2,T3


Assert Coverage for Module : rstmgr_reg_top
TotalAttemptedPercentSucceeded/MatchedPercent
Assertions 4 4 100.00 4 100.00
Cover properties 0 0 0
Cover sequences 0 0 0
Total 4 4 100.00 4 100.00




Assertion Details

NameAttemptsReal SuccessesFailuresIncomplete
en2addrHit 12194319 992250 0 0
reAfterRv 12194319 992102 0 0
rePulse 12194319 531604 0 0
wePulse 12194319 460498 0 0


en2addrHit
NameAttemptsReal SuccessesFailuresIncomplete
Total 12194319 992250 0 0
T1 2136 1 0 0
T2 4398 379 0 0
T3 2388 212 0 0
T4 2075 166 0 0
T5 6768 0 0 0
T6 2925 792 0 0
T7 3605 1 0 0
T8 1495 26 0 0
T9 1979 143 0 0
T10 2621 379 0 0
T11 0 212 0 0

reAfterRv
NameAttemptsReal SuccessesFailuresIncomplete
Total 12194319 992102 0 0
T1 2136 1 0 0
T2 4398 379 0 0
T3 2388 212 0 0
T4 2075 162 0 0
T5 6768 0 0 0
T6 2925 792 0 0
T7 3605 1 0 0
T8 1495 26 0 0
T9 1979 139 0 0
T10 2621 379 0 0
T11 0 212 0 0

rePulse
NameAttemptsReal SuccessesFailuresIncomplete
Total 12194319 531604 0 0
T1 2136 1 0 0
T2 4398 186 0 0
T3 2388 99 0 0
T4 2075 78 0 0
T5 6768 0 0 0
T6 2925 419 0 0
T7 3605 1 0 0
T8 1495 0 0 0
T9 1979 66 0 0
T10 2621 186 0 0
T11 0 99 0 0
T12 0 1074 0 0

wePulse
NameAttemptsReal SuccessesFailuresIncomplete
Total 12194319 460498 0 0
T2 4398 193 0 0
T3 2388 113 0 0
T4 2075 84 0 0
T5 6768 0 0 0
T6 2925 373 0 0
T7 3605 0 0 0
T8 1495 26 0 0
T9 1979 73 0 0
T10 2621 193 0 0
T11 2375 113 0 0
T12 0 981 0 0
T54 0 10 0 0

0% 10% 20% 30% 40% 50% 60% 70% 80% 90% 100%