Module Definition
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Module Instance : tb.dut.u_sha3.u_keccak.u_keccak_p

Instance :
SCORELINECONDTOGGLEFSMBRANCHASSERT
99.37 100.00 98.75 98.73 100.00


Instance's subtree :
SCORELINECONDTOGGLEFSMBRANCHASSERT
99.42 100.00 98.75 98.93 100.00


Parent :
SCORELINECONDTOGGLEFSMBRANCHASSERTNAME
91.81 94.55 100.00 73.33 91.18 100.00 u_keccak


Subtrees :
NAMESCORELINECONDTOGGLEFSMBRANCHASSERT
g_2share_chi.g_chi_w[0].u_dom 100.00 100.00 100.00 100.00
g_2share_chi.g_chi_w[1].u_dom 100.00 100.00 100.00 100.00
g_2share_chi.g_chi_w[2].u_dom 100.00 100.00 100.00 100.00
g_2share_chi.g_chi_w[3].u_dom 100.00 100.00 100.00 100.00
g_2share_chi.g_chi_w[4].u_dom 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 : keccak_2share
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ROUTINE36300
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97 for (genvar i = 0 ; i < Share ; i++) begin : g_state_inout 98 2/2 assign state_in[i] = bitarray_to_box(s_i[i]); Tests: T1 T2 T3  | T1 T2 T3  99 2/2 assign s_o[i] = box_to_bitarray(state_out[i]); Tests: T1 T2 T3  | T1 T2 T3  100 end : g_state_inout 101 102 if (EnMasking) begin : g_2share_data 103 1/1 assign phase1_in = state_in; Tests: T1 T2 T3  104 1/1 assign phase2_in = state_in; Tests: T1 T2 T3  105 106 always_comb begin 107 1/1 unique case (phase_sel_i) Tests: T1 T2 T3  108 1/1 MuBi4False: state_out = phase1_out; Tests: T1 T2 T3  109 1/1 MuBi4True: state_out = phase2_out; Tests: T1 T2 T3  110 default: state_out = phase1_out; 111 endcase 112 end 113 end else begin : g_single_data 114 assign phase1_in = state_in; 115 assign phase2_in = phase1_out; 116 assign state_out = phase2_out; 117 end 118 119 ////////////// 120 // Datapath // 121 ////////////// 122 for (genvar i = 0 ; i < Share ; i++) begin : g_datapath 123 124 // Phase 1: 125 2/2 assign theta_data[i] = theta(phase1_in[i]); Tests: T1 T2 T3  | T1 T2 T3  126 // Commented out rho function as vcs complains z-Offset%W isn't constant 127 // assign rho_data[i] = rho(theta_data[i]); 128 129 2/2 assign pi_data[i] = pi(rho_data[i]); Tests: T1 T2 T3  | T1 T2 T3  130 131 // Phase 2 (Cycles 1, 2 and 3): 132 // Chi : See below 133 // Iota: See below 134 end : g_datapath 135 136 1/1 assign phase1_out = pi_data; Tests: T1 T2 T3  137 138 // Iota adds Round Constants(RC), so only one share should be XORed 139 if (EnMasking) begin : g_2share_iota 140 1/1 assign iota_data[0] = iota(chi_data[0], rnd_i); Tests: T1 T2 T3  141 1/1 assign iota_data[1] = chi_data[1]; Tests: T1 T2 T3  142 end else begin : g_single_iota 143 assign iota_data[0] = iota(chi_data[0], rnd_i); 144 end 145 146 if (EnMasking) begin : g_2share_chi 147 // Domain-Oriented Masking 148 // reference: https://eprint.iacr.org/2017/395.pdf 149 150 localparam int unsigned WSheetHalf = $bits(sheet_t)/2; 151 logic [4:0][WSheetHalf-1:0] in_prd, out_prd; 152 153 ///////////////////// 154 // DOM multipliers // 155 ///////////////////// 156 157 for (genvar x = 0 ; x < 5 ; x++) begin : g_chi_w 158 localparam int X1 = (x + 1) % 5; 159 localparam int X2 = (x + 2) % 5; 160 161 sheet_t sheet0[Share]; // Inverted input X1 162 sheet_t sheet1[Share]; // X2 163 sheet_t sheet2[Share]; // DOM output 164 165 5/5 assign sheet0[0] = ~phase2_in[0][X1]; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  166 5/5 assign sheet0[1] = phase2_in[1][X1]; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  167 168 5/5 assign sheet1[0] = phase2_in[0][X2]; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  169 5/5 assign sheet1[1] = phase2_in[1][X2]; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  170 171 // Convert sheet_t to 1D arrays, one for the upper and lower half lane. 172 logic [WSheetHalf-1:0] a0_l, a1_l, b0_l, b1_l; 173 logic [WSheetHalf-1:0] a0_h, a1_h, b0_h, b1_h; 174 logic [WSheetHalf-1:0] a0, a1, b0, b1, q0, q1; 175 176 5/5 assign a0_l = {sheet0[0][0][W/2-1:0], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  177 sheet0[0][1][W/2-1:0], 178 sheet0[0][2][W/2-1:0], 179 sheet0[0][3][W/2-1:0], 180 sheet0[0][4][W/2-1:0]}; 181 5/5 assign a1_l = {sheet0[1][0][W/2-1:0], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  182 sheet0[1][1][W/2-1:0], 183 sheet0[1][2][W/2-1:0], 184 sheet0[1][3][W/2-1:0], 185 sheet0[1][4][W/2-1:0]}; 186 187 5/5 assign a0_h = {sheet0[0][0][W-1:W/2], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  188 sheet0[0][1][W-1:W/2], 189 sheet0[0][2][W-1:W/2], 190 sheet0[0][3][W-1:W/2], 191 sheet0[0][4][W-1:W/2]}; 192 5/5 assign a1_h = {sheet0[1][0][W-1:W/2], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  193 sheet0[1][1][W-1:W/2], 194 sheet0[1][2][W-1:W/2], 195 sheet0[1][3][W-1:W/2], 196 sheet0[1][4][W-1:W/2]}; 197 198 5/5 assign b0_l = {sheet1[0][0][W/2-1:0], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  199 sheet1[0][1][W/2-1:0], 200 sheet1[0][2][W/2-1:0], 201 sheet1[0][3][W/2-1:0], 202 sheet1[0][4][W/2-1:0]}; 203 5/5 assign b1_l = {sheet1[1][0][W/2-1:0], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  204 sheet1[1][1][W/2-1:0], 205 sheet1[1][2][W/2-1:0], 206 sheet1[1][3][W/2-1:0], 207 sheet1[1][4][W/2-1:0]}; 208 209 5/5 assign b0_h = {sheet1[0][0][W-1:W/2], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  210 sheet1[0][1][W-1:W/2], 211 sheet1[0][2][W-1:W/2], 212 sheet1[0][3][W-1:W/2], 213 sheet1[0][4][W-1:W/2]}; 214 5/5 assign b1_h = {sheet1[1][0][W-1:W/2], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  215 sheet1[1][1][W-1:W/2], 216 sheet1[1][2][W-1:W/2], 217 sheet1[1][3][W-1:W/2], 218 sheet1[1][4][W-1:W/2]}; 219 220 // Input muxing 221 5/5 assign a0 = dom_in_low_i ? a0_l : a0_h; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  222 5/5 assign a1 = dom_in_low_i ? a1_l : a1_h; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  223 5/5 assign b0 = dom_in_low_i ? b0_l : b0_h; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  224 5/5 assign b1 = dom_in_low_i ? b1_l : b1_h; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  225 226 // Randomness muxing 227 if (!ForceRandExt) begin : gen_in_prd_mux 228 // Intermediate results are rotated across rows. The new Row x depends on 229 // data from Rows x + 1 and x + 2. Hence we don't want to use intermediate 230 // results from Rows x, x + 1, and x + 2 for remasking. 231 5/5 assign in_prd[x] = dom_in_rand_ext_i ? rand_i[x * WSheetHalf +: WSheetHalf] : Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  232 out_prd[rot_int(x, 5)]; 233 end else begin : gen_no_in_prd_mux 234 // Always use the externally provided randomness. 235 assign in_prd[x] = rand_i[x * WSheetHalf +: WSheetHalf]; 236 // Tie off unused signals. 237 logic unused_out_prd; 238 assign unused_out_prd = ^{dom_in_rand_ext_i, out_prd[rot_int(x, 5)]}; 239 end 240 241 prim_dom_and_2share #( 242 .DW (WSheetHalf), // a half sheet 243 .Pipeline(1) // Process the full sheet in 3 clock cycles. This reduces 244 // SCA leakage. 245 ) u_dom ( 246 .clk_i, 247 .rst_ni, 248 249 .a0_i (a0), 250 .a1_i (a1), 251 .b0_i (b0), 252 .b1_i (b1), 253 .z_valid_i (dom_update_i), 254 .z_i (in_prd[x]), 255 .q0_o (q0), 256 .q1_o (q1), 257 .prd_o (out_prd[x]) 258 ); 259 260 // Output conversion from q0, q1 to sheet_t 261 // For simplicity, we forward the generated lane half to both the upper 262 // and lower lane halves at this point. The actual output muxing/selection 263 // happens after the Iota step when generating phase2_out from iota_data 264 // and state_in below. 265 5/5 assign sheet2[0][4] = {2{q0[W/2*0+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  266 5/5 assign sheet2[0][3] = {2{q0[W/2*1+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  267 5/5 assign sheet2[0][2] = {2{q0[W/2*2+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  268 5/5 assign sheet2[0][1] = {2{q0[W/2*3+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  269 5/5 assign sheet2[0][0] = {2{q0[W/2*4+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  270 271 5/5 assign sheet2[1][4] = {2{q1[W/2*0+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  272 5/5 assign sheet2[1][3] = {2{q1[W/2*1+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  273 5/5 assign sheet2[1][2] = {2{q1[W/2*2+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  274 5/5 assign sheet2[1][1] = {2{q1[W/2*3+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  275 5/5 assign sheet2[1][0] = {2{q1[W/2*4+:W/2]}}; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  276 277 // Final XOR to generate the output 278 5/5 assign chi_data[0][x] = sheet2[0] ^ phase2_in[0][x]; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  279 5/5 assign chi_data[1][x] = sheet2[1] ^ phase2_in[1][x]; Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  280 end : g_chi_w 281 282 // Since Chi and thus Iota are separately applied to the lower and upper half 283 // lanes, we need to forward the input to the other half. 284 for (genvar x = 0 ; x < 5 ; x++) begin : g_2share_phase2_out_row 285 for (genvar y = 0 ; y < 5 ; y++) begin : g_2share_phase2_out_col 286 25/25 assign phase2_out[0][x][y] = dom_out_low_i ? Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  287 { state_in[0][x][y][W-1:W/2], iota_data[0][x][y][W/2-1:0]} : 288 {iota_data[0][x][y][W-1:W/2], state_in[0][x][y][W/2-1:0]}; 289 25/25 assign phase2_out[1][x][y] = dom_out_low_i ? Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  290 { state_in[1][x][y][W-1:W/2], iota_data[1][x][y][W/2-1:0]} : 291 {iota_data[1][x][y][W-1:W/2], state_in[1][x][y][W/2-1:0]}; 292 end 293 end 294 295 end else begin : g_single_chi 296 assign chi_data[0] = chi(phase2_in[0]); 297 assign phase2_out = iota_data; 298 end 299 300 // Rho ====================================================================== 301 // As RhoOffset[x][y] is considered as variable int in VCS, 302 // it is replaced with generate statement. 303 // Revised to meet verilator lint. Now RhoOffset is 1-D array 304 localparam int RhoOffset [25] = '{ 305 //y 0 1 2 3 4 x 306 0, 36, 3, 105, 210, // 0: 0 1 2 3 4 307 1, 300, 10, 45, 66, // 1: 5 6 7 8 9 308 190, 6, 171, 15, 253, // 2: 10 11 12 13 14 309 28, 55, 153, 21, 120, // 3: 15 16 17 18 19 310 91, 276, 231, 136, 78 // 4: 20 21 22 23 24 311 }; 312 for (genvar i = 0 ; i < Share ; i++) begin : g_rho 313 box_t rho_in, rho_out; 314 2/2 assign rho_in = theta_data[i]; Tests: T1 T2 T3  | T1 T2 T3  315 2/2 assign rho_data[i] = rho_out; Tests: T1 T2 T3  | T1 T2 T3  316 317 for (genvar x = 0 ; x < 5 ; x++) begin : gen_rho_x 318 for (genvar y = 0 ; y < 5 ; y++) begin : gen_rho_y 319 localparam int Offset = RhoOffset[5*x+y]%W; 320 localparam int ShiftAmt = W- Offset; 321 if (Offset == 0) begin : gen_offset0 322 2/2 assign rho_out[x][y][W-1:0] = rho_in[x][y][W-1:0]; Tests: T1 T2 T3  | T1 T2 T3  323 end else begin : gen_others 324 48/48 assign rho_out[x][y][W-1:0] = {rho_in[x][y][0+:ShiftAmt], Tests: T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  | T1 T2 T3  325 rho_in[x][y][ShiftAmt+:Offset]}; 326 end 327 end 328 end 329 end : g_rho 330 331 //////////////// 332 // Assertions // 333 //////////////// 334 335 `ASSERT_INIT(ValidWidth_A, 336 EnMasking == 0 && Width inside {25, 50, 100, 200, 400, 800, 1600} || 337 EnMasking == 1 && Width inside {50, 100, 200, 400, 800, 1600}) 338 `ASSERT_INIT(ValidW_A, W inside {1, 2, 4, 8, 16, 32, 64}) 339 `ASSERT_INIT(ValidL_A, L inside {0, 1, 2, 3, 4, 5, 6}) 340 `ASSERT_INIT(ValidRound_A, MaxRound <= 24) // Keccak-f only 341 342 // phase_sel_i shall stay for two cycle after change to 1. 343 lc_ctrl_pkg::lc_tx_t unused_lc_sig; 344 1/1 assign unused_lc_sig = lc_escalate_en_i; Tests: T1 T2 T3  345 if (EnMasking) begin : gen_selperiod_chk 346 `ASSUME(SelStayTwoCycleIfTrue_A, 347 ($past(phase_sel_i) == MuBi4False) && (phase_sel_i == MuBi4True) 348 |=> phase_sel_i == MuBi4True, clk_i, !rst_ni || 349 lc_ctrl_pkg::lc_tx_test_true_loose(lc_escalate_en_i)) 350 end 351 352 /////////////// 353 // Functions // 354 /////////////// 355 356 // Convert bitarray to 3D box 357 // Please take a look at FIPS PUB 202 358 // https://nvlpubs.nist.gov/nistpubs/FIPS/NIST.FIPS.202.pdf 359 // > For all triples (x,y,z) such that 0<=x<5, 0<=y<5, and 0<=z<w, 360 // > A[x,y,z]=S[w(5y+x)+z] 361 function automatic box_t bitarray_to_box(logic [Width-1:0] s_in); 362 automatic box_t box; 363 1/1 for (int y = 0 ; y < 5 ; y++) begin Tests: T1 T2 T3  364 1/1 for (int x = 0 ; x < 5 ; x++) begin Tests: T1 T2 T3  365 1/1 for (int z = 0 ; z < W ; z++) begin Tests: T1 T2 T3  366 1/1 box[x][y][z] = s_in[W*(5*y+x) + z]; Tests: T1 T2 T3  367 end 368 end 369 end 370 1/1 return box; Tests: T1 T2 T3  371 endfunction : bitarray_to_box 372 373 // Convert 3D cube to bitarray 374 function automatic logic [Width-1:0] box_to_bitarray(box_t state); 375 automatic logic [Width-1:0] bitarray; 376 1/1 for (int y = 0 ; y < 5 ; y++) begin Tests: T1 T2 T3  377 1/1 for (int x = 0 ; x < 5 ; x++) begin Tests: T1 T2 T3  378 1/1 for (int z = 0 ; z < W ; z++) begin Tests: T1 T2 T3  379 1/1 bitarray[W*(5*y+x)+z] = state[x][y][z]; Tests: T1 T2 T3  380 end 381 end 382 end 383 1/1 return bitarray; Tests: T1 T2 T3  384 endfunction : box_to_bitarray 385 386 // Rotate integer indices 387 function automatic integer rot_int(integer in, integer num); 388 integer out; 389 1/1 if (in == 0) begin Tests: T1 T2 T3  390 1/1 out = num - 1; Tests: T1 T2 T3  391 end else begin 392 1/1 out = in - 1; Tests: T1 T2 T3  393 end 394 1/1 return out; Tests: T1 T2 T3  395 endfunction 396 397 // Step Mapping ============================================================= 398 // theta 399 // XOR each bit in the state with the parity of two columns 400 // C[x,z] = A[x,0,z] ^ A[x,1,z] ^ A[x,2,z] ^ A[x,3,z] ^ A[x,4,z] 401 // D[x,z] = C[x-1,z] ^ C[x+1,z-1] 402 // theta = A[x,y,z] ^ D[x,z] 403 localparam int ThetaIndexX1 [5] = '{4, 0, 1, 2, 3}; // (x-1)%5 404 localparam int ThetaIndexX2 [5] = '{1, 2, 3, 4, 0}; // (x+1)%5 405 function automatic box_t theta(box_t state); 406 plane_t c; 407 plane_t d; 408 box_t result; 409 1/1 for (int x = 0 ; x < 5 ; x++) begin Tests: T1 T2 T3  410 1/1 c[x] = state[x][0] ^ state[x][1] ^ state[x][2] ^ state[x][3] ^ state[x][4]; Tests: T1 T2 T3  411 end 412 1/1 for (int x = 0 ; x < 5 ; x++) begin Tests: T1 T2 T3  413 1/1 for (int z = 0 ; z < W ; z++) begin Tests: T1 T2 T3  414 int index_z; 415 1/1 index_z = (z == 0) ? W-1 : z-1; // (z+1)%W Tests: T1 T2 T3  416 1/1 d[x][z] = c[ThetaIndexX1[x]][z] ^ c[ThetaIndexX2[x]][index_z]; Tests: T1 T2 T3  417 end 418 end 419 1/1 for (int x = 0 ; x < 5 ; x++) begin Tests: T1 T2 T3  420 1/1 for (int y = 0 ; y < 5 ; y++) begin Tests: T1 T2 T3  421 1/1 result[x][y] = state[x][y] ^ d[x]; Tests: T1 T2 T3  422 end 423 end 424 1/1 return result; Tests: T1 T2 T3  425 endfunction : theta 426 427 // rho 428 429 // Commented out entire rho function due to VCS elaboration error. 430 // (z-RhoOffset[x][y]%W) isn't considered as a constant in VCS. 431 // Even changing it to W-RhoOffset[x][y]%W and assign to ShiftAmt 432 // creates same error. 433 434 // Offset : Look at Table 2 in FIPS PUB 202 435 //localparam int RhoOffset [5][5] = '{ 436 // //y 0 1 2 3 4 x 437 // '{ 0, 36, 3, 105, 210},// 0 438 // '{ 1, 300, 10, 45, 66},// 1 439 // '{ 190, 6, 171, 15, 253},// 2 440 // '{ 28, 55, 153, 21, 120},// 3 441 // '{ 91, 276, 231, 136, 78} // 4 442 //}; 443 444 // rotate bits of each lane by offset 445 // 1. rho[0,0,z] = A[0,0,z] 446 // 2. Offset swap 447 // a. (x,y) := (1,0) 448 // b. for t [0..23] 449 // i. rho[x,y,z] = A[x,y,z-(t+1)(t+2)/2] 450 // ii. (x,y) = (y, (2x+3y)) 451 //function automatic box_t rho(box_t state); 452 // box_t result; 453 // for (int x = 0 ; x < 5 ; x++) begin 454 // for (int y = 0 ; y < 5 ; y++) begin 455 // for (int z = 0 ; z < W ; z++) begin 456 // automatic int index_z; 457 // index_z = (z-RhoOffset[x][y])%W; 458 // result[x][y][z] = state[x][y][(z-RhoOffset[x][y])%W]; 459 // end 460 // end 461 // end 462 // return result; 463 //endfunction : rho 464 465 // pi 466 // rearrange the position of lanes 467 // pi[x,y,z] = state[(x+3y),x,z] 468 localparam int PiRotate [5][5] = '{ 469 //y 0 1 2 3 4 x 470 '{ 0, 3, 1, 4, 2},// 0 471 '{ 1, 4, 2, 0, 3},// 1 472 '{ 2, 0, 3, 1, 4},// 2 473 '{ 3, 1, 4, 2, 0},// 3 474 '{ 4, 2, 0, 3, 1} // 4 475 }; 476 function automatic box_t pi(box_t state); 477 box_t result; 478 1/1 for (int x = 0 ; x < 5 ; x++) begin Tests: T1 T2 T3  479 1/1 for (int y = 0 ; y < 5 ; y++) begin Tests: T1 T2 T3  480 1/1 result[x][y][W-1:0] = state[PiRotate[x][y]][x][W-1:0]; Tests: T1 T2 T3  481 end 482 end 483 1/1 return result; Tests: T1 T2 T3  484 endfunction : pi 485 486 // chi 487 // chi[x,y,z] = state[x,y,z] ^ ((state[x+1,y,z] ^ 1) & state[x+2,y,z]) 488 localparam int ChiIndexX1 [5] = '{1, 2, 3, 4, 0}; // (x+1)%5 489 localparam int ChiIndexX2 [5] = '{2, 3, 4, 0, 1}; // (x+2)%5 490 function automatic box_t chi(box_t state); 491 box_t result; 492 for (int x = 0 ; x < 5 ; x++) begin 493 result[x] = state[x] ^ ((~state[ChiIndexX1[x]]) & state[ChiIndexX2[x]]); 494 end 495 return result; 496 endfunction : chi 497 498 // iota 499 // XOR (x,y) = (0,0) with Round Constant (RC) 500 501 // RC parameter: Precomputed by util/keccak_rc.py. Only up-to 0..L-1 is used 502 // RC = '0 503 // RC[2**j-1] = rc(j+7*rnd) 504 // rc(t) = 505 // 1. t%255 == 0 -> 1 506 // 2. R[0:7] = 'b10000000 507 // 3. for i = [1..t%255] 508 // a. R = 0 || R 509 // b. R[0] = R[0] ^ R[8] 510 // c. R[4] = R[4] ^ R[8] 511 // d. R[5] = R[5] ^ R[8] 512 // e. R[6] = R[6] ^ R[8] 513 // f. R = R[0:7] 514 // 4. return R[0] 515 // RC has L = [0..6] 516 // for lower L case, only chopping lower part of 64bit RC is sufficient. 517 localparam logic [63:0] RC [24] = '{ 518 64'h 0000_0000_0000_0001, // Round 0 519 64'h 0000_0000_0000_8082, // Round 1 520 64'h 8000_0000_0000_808A, // Round 2 521 64'h 8000_0000_8000_8000, // Round 3 522 64'h 0000_0000_0000_808B, // Round 4 523 64'h 0000_0000_8000_0001, // Round 5 524 64'h 8000_0000_8000_8081, // Round 6 525 64'h 8000_0000_0000_8009, // Round 7 526 64'h 0000_0000_0000_008A, // Round 8 527 64'h 0000_0000_0000_0088, // Round 9 528 64'h 0000_0000_8000_8009, // Round 10 529 64'h 0000_0000_8000_000A, // Round 11 530 64'h 0000_0000_8000_808B, // Round 12 531 64'h 8000_0000_0000_008B, // Round 13 532 64'h 8000_0000_0000_8089, // Round 14 533 64'h 8000_0000_0000_8003, // Round 15 534 64'h 8000_0000_0000_8002, // Round 16 535 64'h 8000_0000_0000_0080, // Round 17 536 64'h 0000_0000_0000_800A, // Round 18 537 64'h 8000_0000_8000_000A, // Round 19 538 64'h 8000_0000_8000_8081, // Round 20 539 64'h 8000_0000_0000_8080, // Round 21 540 64'h 0000_0000_8000_0001, // Round 22 541 64'h 8000_0000_8000_8008 // Round 23 542 }; 543 544 // iota: XOR with RC for (x,y) = (0,0) 545 function automatic box_t iota(box_t state, logic [RndW-1:0] rnd); 546 box_t result; 547 1/1 result = state; Tests: T1 T2 T3  548 1/1 result[0][0][W-1:0] = state[0][0][W-1:0] ^ RC[rnd][W-1:0]; Tests: T1 T2 T3  549 550 1/1 return result; Tests: T1 T2 T3 

Cond Coverage for Module : keccak_2share
TotalCoveredPercent
Conditions16015898.75
Logical16015898.75
Non-Logical00
Event00

 LINE       221
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[0].a0_l : g_2share_chi.g_chi_w[0].a0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       221
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[1].a0_l : g_2share_chi.g_chi_w[1].a0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       221
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[2].a0_l : g_2share_chi.g_chi_w[2].a0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       221
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[3].a0_l : g_2share_chi.g_chi_w[3].a0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       221
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[4].a0_l : g_2share_chi.g_chi_w[4].a0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       222
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[0].a1_l : g_2share_chi.g_chi_w[0].a1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       222
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[1].a1_l : g_2share_chi.g_chi_w[1].a1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       222
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[2].a1_l : g_2share_chi.g_chi_w[2].a1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       222
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[3].a1_l : g_2share_chi.g_chi_w[3].a1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       222
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[4].a1_l : g_2share_chi.g_chi_w[4].a1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       223
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[0].b0_l : g_2share_chi.g_chi_w[0].b0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       223
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[1].b0_l : g_2share_chi.g_chi_w[1].b0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       223
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[2].b0_l : g_2share_chi.g_chi_w[2].b0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       223
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[3].b0_l : g_2share_chi.g_chi_w[3].b0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       223
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[4].b0_l : g_2share_chi.g_chi_w[4].b0_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       224
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[0].b1_l : g_2share_chi.g_chi_w[0].b1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       224
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[1].b1_l : g_2share_chi.g_chi_w[1].b1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       224
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[2].b1_l : g_2share_chi.g_chi_w[2].b1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       224
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[3].b1_l : g_2share_chi.g_chi_w[3].b1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       224
 EXPRESSION (dom_in_low_i ? g_2share_chi.g_chi_w[4].b1_l : g_2share_chi.g_chi_w[4].b1_h)
             ------1-----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       231
 EXPRESSION (dom_in_rand_ext_i ? rand_i[(0 * g_2share_chi.WSheetHalf)+:g_2share_chi.WSheetHalf] : g_2share_chi.out_prd[keccak_2share.rot_int(0, 5)])
             --------1--------
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       231
 EXPRESSION (dom_in_rand_ext_i ? rand_i[(1 * g_2share_chi.WSheetHalf)+:g_2share_chi.WSheetHalf] : g_2share_chi.out_prd[keccak_2share.rot_int(1, 5)])
             --------1--------
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       231
 EXPRESSION (dom_in_rand_ext_i ? rand_i[(2 * g_2share_chi.WSheetHalf)+:g_2share_chi.WSheetHalf] : g_2share_chi.out_prd[keccak_2share.rot_int(2, 5)])
             --------1--------
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       231
 EXPRESSION (dom_in_rand_ext_i ? rand_i[(3 * g_2share_chi.WSheetHalf)+:g_2share_chi.WSheetHalf] : g_2share_chi.out_prd[keccak_2share.rot_int(3, 5)])
             --------1--------
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       231
 EXPRESSION (dom_in_rand_ext_i ? rand_i[(4 * g_2share_chi.WSheetHalf)+:g_2share_chi.WSheetHalf] : g_2share_chi.out_prd[keccak_2share.rot_int(4, 5)])
             --------1--------
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][0][0][(W - 1):(W / 2)], iota_data[0][0][0][((W / 2) - 1):0]}) : ({iota_data[0][0][0][(W - 1):(W / 2)], state_in[0][0][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][0][1][(W - 1):(W / 2)], iota_data[0][0][1][((W / 2) - 1):0]}) : ({iota_data[0][0][1][(W - 1):(W / 2)], state_in[0][0][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][0][2][(W - 1):(W / 2)], iota_data[0][0][2][((W / 2) - 1):0]}) : ({iota_data[0][0][2][(W - 1):(W / 2)], state_in[0][0][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][0][3][(W - 1):(W / 2)], iota_data[0][0][3][((W / 2) - 1):0]}) : ({iota_data[0][0][3][(W - 1):(W / 2)], state_in[0][0][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][0][4][(W - 1):(W / 2)], iota_data[0][0][4][((W / 2) - 1):0]}) : ({iota_data[0][0][4][(W - 1):(W / 2)], state_in[0][0][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][1][0][(W - 1):(W / 2)], iota_data[0][1][0][((W / 2) - 1):0]}) : ({iota_data[0][1][0][(W - 1):(W / 2)], state_in[0][1][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][1][1][(W - 1):(W / 2)], iota_data[0][1][1][((W / 2) - 1):0]}) : ({iota_data[0][1][1][(W - 1):(W / 2)], state_in[0][1][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][1][2][(W - 1):(W / 2)], iota_data[0][1][2][((W / 2) - 1):0]}) : ({iota_data[0][1][2][(W - 1):(W / 2)], state_in[0][1][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][1][3][(W - 1):(W / 2)], iota_data[0][1][3][((W / 2) - 1):0]}) : ({iota_data[0][1][3][(W - 1):(W / 2)], state_in[0][1][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][1][4][(W - 1):(W / 2)], iota_data[0][1][4][((W / 2) - 1):0]}) : ({iota_data[0][1][4][(W - 1):(W / 2)], state_in[0][1][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][2][0][(W - 1):(W / 2)], iota_data[0][2][0][((W / 2) - 1):0]}) : ({iota_data[0][2][0][(W - 1):(W / 2)], state_in[0][2][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][2][1][(W - 1):(W / 2)], iota_data[0][2][1][((W / 2) - 1):0]}) : ({iota_data[0][2][1][(W - 1):(W / 2)], state_in[0][2][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][2][2][(W - 1):(W / 2)], iota_data[0][2][2][((W / 2) - 1):0]}) : ({iota_data[0][2][2][(W - 1):(W / 2)], state_in[0][2][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][2][3][(W - 1):(W / 2)], iota_data[0][2][3][((W / 2) - 1):0]}) : ({iota_data[0][2][3][(W - 1):(W / 2)], state_in[0][2][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][2][4][(W - 1):(W / 2)], iota_data[0][2][4][((W / 2) - 1):0]}) : ({iota_data[0][2][4][(W - 1):(W / 2)], state_in[0][2][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][3][0][(W - 1):(W / 2)], iota_data[0][3][0][((W / 2) - 1):0]}) : ({iota_data[0][3][0][(W - 1):(W / 2)], state_in[0][3][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][3][1][(W - 1):(W / 2)], iota_data[0][3][1][((W / 2) - 1):0]}) : ({iota_data[0][3][1][(W - 1):(W / 2)], state_in[0][3][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][3][2][(W - 1):(W / 2)], iota_data[0][3][2][((W / 2) - 1):0]}) : ({iota_data[0][3][2][(W - 1):(W / 2)], state_in[0][3][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][3][3][(W - 1):(W / 2)], iota_data[0][3][3][((W / 2) - 1):0]}) : ({iota_data[0][3][3][(W - 1):(W / 2)], state_in[0][3][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][3][4][(W - 1):(W / 2)], iota_data[0][3][4][((W / 2) - 1):0]}) : ({iota_data[0][3][4][(W - 1):(W / 2)], state_in[0][3][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][4][0][(W - 1):(W / 2)], iota_data[0][4][0][((W / 2) - 1):0]}) : ({iota_data[0][4][0][(W - 1):(W / 2)], state_in[0][4][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][4][1][(W - 1):(W / 2)], iota_data[0][4][1][((W / 2) - 1):0]}) : ({iota_data[0][4][1][(W - 1):(W / 2)], state_in[0][4][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][4][2][(W - 1):(W / 2)], iota_data[0][4][2][((W / 2) - 1):0]}) : ({iota_data[0][4][2][(W - 1):(W / 2)], state_in[0][4][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][4][3][(W - 1):(W / 2)], iota_data[0][4][3][((W / 2) - 1):0]}) : ({iota_data[0][4][3][(W - 1):(W / 2)], state_in[0][4][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       286
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[0][4][4][(W - 1):(W / 2)], iota_data[0][4][4][((W / 2) - 1):0]}) : ({iota_data[0][4][4][(W - 1):(W / 2)], state_in[0][4][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][0][0][(W - 1):(W / 2)], iota_data[1][0][0][((W / 2) - 1):0]}) : ({iota_data[1][0][0][(W - 1):(W / 2)], state_in[1][0][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][0][1][(W - 1):(W / 2)], iota_data[1][0][1][((W / 2) - 1):0]}) : ({iota_data[1][0][1][(W - 1):(W / 2)], state_in[1][0][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][0][2][(W - 1):(W / 2)], iota_data[1][0][2][((W / 2) - 1):0]}) : ({iota_data[1][0][2][(W - 1):(W / 2)], state_in[1][0][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][0][3][(W - 1):(W / 2)], iota_data[1][0][3][((W / 2) - 1):0]}) : ({iota_data[1][0][3][(W - 1):(W / 2)], state_in[1][0][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][0][4][(W - 1):(W / 2)], iota_data[1][0][4][((W / 2) - 1):0]}) : ({iota_data[1][0][4][(W - 1):(W / 2)], state_in[1][0][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][1][0][(W - 1):(W / 2)], iota_data[1][1][0][((W / 2) - 1):0]}) : ({iota_data[1][1][0][(W - 1):(W / 2)], state_in[1][1][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][1][1][(W - 1):(W / 2)], iota_data[1][1][1][((W / 2) - 1):0]}) : ({iota_data[1][1][1][(W - 1):(W / 2)], state_in[1][1][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][1][2][(W - 1):(W / 2)], iota_data[1][1][2][((W / 2) - 1):0]}) : ({iota_data[1][1][2][(W - 1):(W / 2)], state_in[1][1][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][1][3][(W - 1):(W / 2)], iota_data[1][1][3][((W / 2) - 1):0]}) : ({iota_data[1][1][3][(W - 1):(W / 2)], state_in[1][1][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][1][4][(W - 1):(W / 2)], iota_data[1][1][4][((W / 2) - 1):0]}) : ({iota_data[1][1][4][(W - 1):(W / 2)], state_in[1][1][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][2][0][(W - 1):(W / 2)], iota_data[1][2][0][((W / 2) - 1):0]}) : ({iota_data[1][2][0][(W - 1):(W / 2)], state_in[1][2][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][2][1][(W - 1):(W / 2)], iota_data[1][2][1][((W / 2) - 1):0]}) : ({iota_data[1][2][1][(W - 1):(W / 2)], state_in[1][2][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][2][2][(W - 1):(W / 2)], iota_data[1][2][2][((W / 2) - 1):0]}) : ({iota_data[1][2][2][(W - 1):(W / 2)], state_in[1][2][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][2][3][(W - 1):(W / 2)], iota_data[1][2][3][((W / 2) - 1):0]}) : ({iota_data[1][2][3][(W - 1):(W / 2)], state_in[1][2][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][2][4][(W - 1):(W / 2)], iota_data[1][2][4][((W / 2) - 1):0]}) : ({iota_data[1][2][4][(W - 1):(W / 2)], state_in[1][2][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][3][0][(W - 1):(W / 2)], iota_data[1][3][0][((W / 2) - 1):0]}) : ({iota_data[1][3][0][(W - 1):(W / 2)], state_in[1][3][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][3][1][(W - 1):(W / 2)], iota_data[1][3][1][((W / 2) - 1):0]}) : ({iota_data[1][3][1][(W - 1):(W / 2)], state_in[1][3][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][3][2][(W - 1):(W / 2)], iota_data[1][3][2][((W / 2) - 1):0]}) : ({iota_data[1][3][2][(W - 1):(W / 2)], state_in[1][3][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][3][3][(W - 1):(W / 2)], iota_data[1][3][3][((W / 2) - 1):0]}) : ({iota_data[1][3][3][(W - 1):(W / 2)], state_in[1][3][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][3][4][(W - 1):(W / 2)], iota_data[1][3][4][((W / 2) - 1):0]}) : ({iota_data[1][3][4][(W - 1):(W / 2)], state_in[1][3][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][4][0][(W - 1):(W / 2)], iota_data[1][4][0][((W / 2) - 1):0]}) : ({iota_data[1][4][0][(W - 1):(W / 2)], state_in[1][4][0][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][4][1][(W - 1):(W / 2)], iota_data[1][4][1][((W / 2) - 1):0]}) : ({iota_data[1][4][1][(W - 1):(W / 2)], state_in[1][4][1][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][4][2][(W - 1):(W / 2)], iota_data[1][4][2][((W / 2) - 1):0]}) : ({iota_data[1][4][2][(W - 1):(W / 2)], state_in[1][4][2][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][4][3][(W - 1):(W / 2)], iota_data[1][4][3][((W / 2) - 1):0]}) : ({iota_data[1][4][3][(W - 1):(W / 2)], state_in[1][4][3][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       289
 EXPRESSION 
 Number  Term
      1  dom_out_low_i ? ({state_in[1][4][4][(W - 1):(W / 2)], iota_data[1][4][4][((W / 2) - 1):0]}) : ({iota_data[1][4][4][(W - 1):(W / 2)], state_in[1][4][4][((W / 2) - 1):0]}))
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       389
 EXPRESSION (in == 0)
            ----1----
-1-StatusTests
0CoveredT1,T2,T3
1CoveredT1,T2,T3

 LINE       415
 EXPRESSION ((z == 0) ? ((W - 1)) : ((z - 1)))
             ----1---
-1-StatusTests
0CoveredT1,T2,T3
1Not Covered

 LINE       415
 SUB-EXPRESSION (z == 0)
                ----1---
-1-StatusTests
0CoveredT1,T2,T3
1Not Covered

 LINE       416
 EXPRESSION (c[ThetaIndexX1[x]][z] ^ c[ThetaIndexX2[x]][index_z])
             ----------1----------   -------------2-------------
-1--2-StatusTests
00CoveredT1,T2,T3
01CoveredT1,T2,T3
10CoveredT1,T2,T3
11CoveredT1,T2,T3

Branch Coverage for Module : keccak_2share
Line No.TotalCoveredPercent
Branches 157 155 98.73
TERNARY 221 2 2 100.00
TERNARY 222 2 2 100.00
TERNARY 223 2 2 100.00
TERNARY 224 2 2 100.00
TERNARY 231 2 2 100.00
TERNARY 221 2 2 100.00
TERNARY 222 2 2 100.00
TERNARY 223 2 2 100.00
TERNARY 224 2 2 100.00
TERNARY 231 2 2 100.00
TERNARY 221 2 2 100.00
TERNARY 222 2 2 100.00
TERNARY 223 2 2 100.00
TERNARY 224 2 2 100.00
TERNARY 231 2 2 100.00
TERNARY 221 2 2 100.00
TERNARY 222 2 2 100.00
TERNARY 223 2 2 100.00
TERNARY 224 2 2 100.00
TERNARY 231 2 2 100.00
TERNARY 221 2 2 100.00
TERNARY 222 2 2 100.00
TERNARY 223 2 2 100.00
TERNARY 224 2 2 100.00
TERNARY 231 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
TERNARY 286 2 2 100.00
TERNARY 289 2 2 100.00
CASE 107 3 2 66.67
IF 389 2 2 100.00
TERNARY 415 2 1 50.00


221 assign a0 = dom_in_low_i ? a0_l : a0_h; -1- ==> ==>

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


222 assign a1 = dom_in_low_i ? a1_l : a1_h; -1- ==> ==>

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


223 assign b0 = dom_in_low_i ? b0_l : b0_h; -1- ==> ==>

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


224 assign b1 = dom_in_low_i ? b1_l : b1_h; -1- ==> ==>

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


231 assign in_prd[x] = dom_in_rand_ext_i ? rand_i[x * WSheetHalf +: WSheetHalf] : -1- ==> ==>

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


221 assign a0 = dom_in_low_i ? a0_l : a0_h; -1- ==> ==>

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


222 assign a1 = dom_in_low_i ? a1_l : a1_h; -1- ==> ==>

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


223 assign b0 = dom_in_low_i ? b0_l : b0_h; -1- ==> ==>

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


224 assign b1 = dom_in_low_i ? b1_l : b1_h; -1- ==> ==>

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


231 assign in_prd[x] = dom_in_rand_ext_i ? rand_i[x * WSheetHalf +: WSheetHalf] : -1- ==> ==>

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


221 assign a0 = dom_in_low_i ? a0_l : a0_h; -1- ==> ==>

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


222 assign a1 = dom_in_low_i ? a1_l : a1_h; -1- ==> ==>

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


223 assign b0 = dom_in_low_i ? b0_l : b0_h; -1- ==> ==>

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


224 assign b1 = dom_in_low_i ? b1_l : b1_h; -1- ==> ==>

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


231 assign in_prd[x] = dom_in_rand_ext_i ? rand_i[x * WSheetHalf +: WSheetHalf] : -1- ==> ==>

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


221 assign a0 = dom_in_low_i ? a0_l : a0_h; -1- ==> ==>

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


222 assign a1 = dom_in_low_i ? a1_l : a1_h; -1- ==> ==>

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


223 assign b0 = dom_in_low_i ? b0_l : b0_h; -1- ==> ==>

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


224 assign b1 = dom_in_low_i ? b1_l : b1_h; -1- ==> ==>

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


231 assign in_prd[x] = dom_in_rand_ext_i ? rand_i[x * WSheetHalf +: WSheetHalf] : -1- ==> ==>

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


221 assign a0 = dom_in_low_i ? a0_l : a0_h; -1- ==> ==>

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


222 assign a1 = dom_in_low_i ? a1_l : a1_h; -1- ==> ==>

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


223 assign b0 = dom_in_low_i ? b0_l : b0_h; -1- ==> ==>

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


224 assign b1 = dom_in_low_i ? b1_l : b1_h; -1- ==> ==>

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


231 assign in_prd[x] = dom_in_rand_ext_i ? rand_i[x * WSheetHalf +: WSheetHalf] : -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


286 assign phase2_out[0][x][y] = dom_out_low_i ? -1- ==> ==>

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


289 assign phase2_out[1][x][y] = dom_out_low_i ? -1- ==> ==>

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


107 unique case (phase_sel_i) -1- 108 MuBi4False: state_out = phase1_out; ==> 109 MuBi4True: state_out = phase2_out; ==> 110 default: state_out = phase1_out; ==>

Branches:
-1-StatusTests
MuBi4False Covered T1,T2,T3
MuBi4True Covered T1,T2,T3
default Not Covered


389 if (in == 0) begin -1- 390 out = num - 1; ==> 391 end else begin 392 out = in - 1; ==>

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


415 index_z = (z == 0) ? W-1 : z-1; // (z+1)%W -1- ==> ==>

Branches:
-1-StatusTests
1 Not Covered
0 Covered T1,T2,T3


Assert Coverage for Module : keccak_2share
TotalAttemptedPercentSucceeded/MatchedPercent
Assertions 5 5 100.00 5 100.00
Cover properties 0 0 0
Cover sequences 0 0 0
Total 5 5 100.00 5 100.00




Assertion Details

NameAttemptsReal SuccessesFailuresIncomplete
ValidL_A 672 672 0 0
ValidRound_A 672 672 0 0
ValidW_A 672 672 0 0
ValidWidth_A 672 672 0 0
gen_selperiod_chk.SelStayTwoCycleIfTrue_A 578552030 20639604 0 0


ValidL_A
NameAttemptsReal SuccessesFailuresIncomplete
Total 672 672 0 0
T1 1 1 0 0
T2 1 1 0 0
T3 1 1 0 0
T4 1 1 0 0
T8 1 1 0 0
T9 1 1 0 0
T18 1 1 0 0
T38 1 1 0 0
T39 1 1 0 0
T40 1 1 0 0

ValidRound_A
NameAttemptsReal SuccessesFailuresIncomplete
Total 672 672 0 0
T1 1 1 0 0
T2 1 1 0 0
T3 1 1 0 0
T4 1 1 0 0
T8 1 1 0 0
T9 1 1 0 0
T18 1 1 0 0
T38 1 1 0 0
T39 1 1 0 0
T40 1 1 0 0

ValidW_A
NameAttemptsReal SuccessesFailuresIncomplete
Total 672 672 0 0
T1 1 1 0 0
T2 1 1 0 0
T3 1 1 0 0
T4 1 1 0 0
T8 1 1 0 0
T9 1 1 0 0
T18 1 1 0 0
T38 1 1 0 0
T39 1 1 0 0
T40 1 1 0 0

ValidWidth_A
NameAttemptsReal SuccessesFailuresIncomplete
Total 672 672 0 0
T1 1 1 0 0
T2 1 1 0 0
T3 1 1 0 0
T4 1 1 0 0
T8 1 1 0 0
T9 1 1 0 0
T18 1 1 0 0
T38 1 1 0 0
T39 1 1 0 0
T40 1 1 0 0

gen_selperiod_chk.SelStayTwoCycleIfTrue_A
NameAttemptsReal SuccessesFailuresIncomplete
Total 578552030 20639604 0 0
T1 2466 240 0 0
T2 6031 240 0 0
T3 17726 216 0 0
T4 160720 4896 0 0
T8 39865 1224 0 0
T9 6168 30 0 0
T18 15599 840 0 0
T38 81290 1776 0 0
T39 1993 0 0 0
T40 1068 0 0 0
T41 0 7416 0 0
T57 0 5640 0 0

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