diff options
| -rw-r--r-- | modexpng_fpga_model.py | 372 |
1 files changed, 295 insertions, 77 deletions
diff --git a/modexpng_fpga_model.py b/modexpng_fpga_model.py index 4ef6576..f57c7b9 100644 --- a/modexpng_fpga_model.py +++ b/modexpng_fpga_model.py @@ -160,7 +160,18 @@ class ModExpNG_Operand(): ret += word << shift shift += _WORD_WIDTH return ret - + + def _get_half(self, part): + num_words = len(self.words) + num_words_half = num_words // 2 + if not part: return ModExpNG_Operand(None, num_words_half, self.words[:num_words_half]) + else: return ModExpNG_Operand(None, num_words_half, self.words[num_words_half:]) + + def lower_half(self): + return self._get_half(False) + + def upper_half(self): + return self._get_half(True) # # Test Vector @@ -209,6 +220,8 @@ class ModExpNG_WideBankEnum(Enum): D = auto() E = auto() N = auto() + L = auto() + H = auto() class ModExpNG_NarrowBankEnum(Enum): A = auto() @@ -222,12 +235,14 @@ class ModExpNG_NarrowBankEnum(Enum): class ModExpNG_WideBank(): def __init__(self): - self.a = None - self.b = None - self.c = None - self.d = None - self.e = None - self.n = None + self.a = None + self.b = None + self.c = None + self.d = None + self.e = None + self.n = None + self.l = None + self.h = None def _get_value(self, sel): if sel == ModExpNG_WideBankEnum.A: return self.a @@ -236,6 +251,8 @@ class ModExpNG_WideBank(): elif sel == ModExpNG_WideBankEnum.D: return self.d elif sel == ModExpNG_WideBankEnum.E: return self.e elif sel == ModExpNG_WideBankEnum.N: return self.n + elif sel == ModExpNG_WideBankEnum.L: return self.l + elif sel == ModExpNG_WideBankEnum.H: return self.h else: raise Exception("ModExpNG_WideBank._get_value(): Invalid selector!") def _set_value(self, sel, value): @@ -245,6 +262,8 @@ class ModExpNG_WideBank(): elif sel == ModExpNG_WideBankEnum.D: self.d = value elif sel == ModExpNG_WideBankEnum.E: self.e = value elif sel == ModExpNG_WideBankEnum.N: self.n = value + elif sel == ModExpNG_WideBankEnum.L: self.l = value + elif sel == ModExpNG_WideBankEnum.H: self.h = value else: raise Exception("ModExpNG_WideBank._set_value(): Invalid selector!") class ModExpNG_NarrowBank(): @@ -283,11 +302,17 @@ class ModExpNG_BanksPair(): self.wide = ModExpNG_WideBank() self.narrow = ModExpNG_NarrowBank(i) - def _get_value_wide(self, sel): + def _get_wide(self, sel): return self.wide._get_value(sel) - def _get_value_narrow(self, sel): + def _get_narrow(self, sel): return self.narrow._get_value(sel) + + def _set_wide(self, sel, value): + self.wide._set_value(sel, value) + + def _set_narrow(self, sel, value): + self.narrow._set_value(sel, value) class ModExpNG_BanksLadder(): @@ -301,12 +326,12 @@ class ModExpNG_BanksLadder(): self.ladder_x.narrow._set_value(ModExpNG_NarrowBankEnum.N_COEFF, n_coeff) self.ladder_y.narrow._set_value(ModExpNG_NarrowBankEnum.N_COEFF, n_coeff) - def set_operand(self, sel_wide, sel_narrow, x, y): + def set_operands_crt_xy(self, sel_wide, sel_narrow, x, y): if sel_wide is not None: self.ladder_x.wide._set_value(sel_wide, x) - self.ladder_y.wide._set_value(sel_wide, y) + self.ladder_y.wide._set_value(sel_wide, x) if sel_narrow is not None: - self.ladder_x.narrow._set_value(sel_narrow, x) + self.ladder_x.narrow._set_value(sel_narrow, y) self.ladder_y.narrow._set_value(sel_narrow, y) class ModExpNG_BanksCRT(): @@ -814,9 +839,20 @@ class ModExpNG_Worker(): # length-1, length-2, length-3, ..., 1, 0 (left-to-right) for bit in range(_WORD_WIDTH * num_words - 1, -1, -1): + bit_value = (e.number() & (1 << bit)) >> bit + + if bit > 500: + print("%s: bit=#%d (%d)" % (dump_mode, bit, bit_value)) + print("") + print("%s_T1_BEFORE: %s" % (dump_mode, hex(t1.number()))) + print("%s_T2_BEFORE: %s" % (dump_mode, hex(t2.number()))) + print("") + else: + return None + + debug_dump = bit == dump_index - bit_value = (e.number() & (1 << bit)) >> bit if debug_dump: print("\rladder_mode = %d" % bit_value) @@ -855,7 +891,7 @@ class ModExpNG_Worker(): t1.format_verilog_concat("%s_X" % dump_mode) t2.format_verilog_concat("%s_Y" % dump_mode) - if (bit % 8) == 0: + if (bit % 16) == 0: pct = float((_WORD_WIDTH * num_words - bit) / (_WORD_WIDTH * num_words)) * 100.0 print("\rpct: %5.1f%%" % pct, end='') @@ -913,7 +949,7 @@ class ModExpNG_Worker(): if dump: print("multiply_square(%s_%s)" % (dump_mode, dump_phase)) if reduce_only: - ab = a + ab = b else: ab_parts = self.multiplier.multiply_square(a, b, ab_num_words, dump) ab_words = self.recombinator.recombine_square(ab_parts, ab_num_words, dump) @@ -1000,12 +1036,13 @@ class ModExpNG_Worker(): return ModExpNG_Operand(None, ab_num_words, R) - def reduce(self, a, num_words): - carry = 0 + def reduce(self, a, num_words, carry_in=0): + carry = carry_in for x in range(num_words): a.words[x] += carry carry = (a.words[x] >> _WORD_WIDTH) & 3 a.words[x] &= self.lowlevel._word_mask + return carry class ModExpNG_CoreOutputEnum(Enum): XM = auto() @@ -1038,7 +1075,7 @@ class ModExpNG_Core(): self.bnk = ModExpNG_BanksCRT(i) self.out = ModExpNG_CoreOutput() - def multiply(self, sel_wide_in, sel_narrow_in, sel_wide_out, sel_narrow_out, num_words, mode=(True, True)): + def modular_multiply(self, sel_wide_in, sel_narrow_in, sel_wide_out, sel_narrow_out, num_words, mode=(True, True)): xn = self.bnk.crt_x.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) yn = self.bnk.crt_y.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) @@ -1082,16 +1119,82 @@ class ModExpNG_Core(): self.bnk.crt_y.ladder_x.narrow._set_value(sel_narrow_out, yxp) self.bnk.crt_y.ladder_y.narrow._set_value(sel_narrow_out, yyp) - def simply_reduce(self, sel_narrow, num_words): + def modular_subtract(self, sel_narrow_in, sel_narrow_out, sel_wide_out, num_words): + + xa = self.bnk.crt_x.ladder_x.narrow._get_value(sel_narrow_in) + xb = self.bnk.crt_x.ladder_y.narrow._get_value(sel_narrow_in) + xn = self.bnk.crt_x.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) + + ya = self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow_in) + yb = self.bnk.crt_y.ladder_y.narrow._get_value(sel_narrow_in) + yn = self.bnk.crt_y.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) + + xd = self.wrk.subtract(xa, xb, xn, num_words) + yd = self.wrk.subtract(ya, yb, yn, num_words) + + self.bnk.crt_x.ladder_x.narrow._set_value(sel_narrow_out, xd) + self.bnk.crt_y.ladder_x.narrow._set_value(sel_narrow_out, yd) + + self.bnk.crt_x.ladder_x.wide._set_value(sel_wide_out, xd) + self.bnk.crt_y.ladder_x.wide._set_value(sel_wide_out, yd) + + def reduce_narrow(self, sel_narrow, num_words): self.wrk.reduce(self.bnk.crt_x.ladder_x.narrow._get_value(sel_narrow), num_words) self.wrk.reduce(self.bnk.crt_x.ladder_y.narrow._get_value(sel_narrow), num_words) self.wrk.reduce(self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow), num_words) self.wrk.reduce(self.bnk.crt_y.ladder_y.narrow._get_value(sel_narrow), num_words) + + def merge_lha(self, sel_narrow, num_words): + xx_lsb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.L) + xy_lsb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.L) + yx_lsb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.L) + yy_lsb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.L) + + xx_msb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.H) + xy_msb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.H) + yx_msb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.H) + yy_msb = self.bnk.crt_x.ladder_x._get_wide(ModExpNG_WideBankEnum.H) + + xx = xx_lsb.words + xx_msb.words + xy = xy_lsb.words + xy_msb.words + yx = yx_lsb.words + yx_msb.words + yy = yy_lsb.words + yy_msb.words + + self.bnk.crt_x.ladder_x._set_narrow(sel_narrow, ModExpNG_Operand(None, 2*num_words, xx)) + self.bnk.crt_x.ladder_y._set_narrow(sel_narrow, ModExpNG_Operand(None, 2*num_words, xy)) + self.bnk.crt_y.ladder_x._set_narrow(sel_narrow, ModExpNG_Operand(None, 2*num_words, yx)) + self.bnk.crt_y.ladder_y._set_narrow(sel_narrow, ModExpNG_Operand(None, 2*num_words, yy)) + + def modular_reduce(self, sel_narrow_in, sel_wide_out, sel_narrow_out, num_words): + + xn = self.bnk.crt_x.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) + yn = self.bnk.crt_y.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) + + xn_coeff = self.bnk.crt_x.ladder_x.narrow._get_value(ModExpNG_NarrowBankEnum.N_COEFF) + yn_coeff = self.bnk.crt_y.ladder_x.narrow._get_value(ModExpNG_NarrowBankEnum.N_COEFF) + + xb = self.bnk.crt_x.ladder_x.narrow._get_value(sel_narrow_in) + yb = self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow_in) + xp = self.wrk.multiply(None, xb, xn, xn_coeff, num_words, reduce_only=True) + yp = self.wrk.multiply(None, yb, yn, yn_coeff, num_words, reduce_only=True) + + if sel_wide_out is not None: + self.bnk.crt_x.ladder_x.wide._set_value(sel_wide_out, xp) + self.bnk.crt_x.ladder_y.wide._set_value(sel_wide_out, xp) + self.bnk.crt_y.ladder_x.wide._set_value(sel_wide_out, yp) + self.bnk.crt_y.ladder_y.wide._set_value(sel_wide_out, yp) + + if sel_narrow_out is not None: + self.bnk.crt_x.ladder_x.narrow._set_value(sel_narrow_out, xp) + self.bnk.crt_x.ladder_y.narrow._set_value(sel_narrow_out, xp) + self.bnk.crt_y.ladder_x.narrow._set_value(sel_narrow_out, yp) + self.bnk.crt_y.ladder_y.narrow._set_value(sel_narrow_out, yp) + def set_output(self, sel_output, banks_ladder, sel_narrow): self.out._set_value(sel_output, banks_ladder.ladder_x.narrow._get_value(sel_narrow)) - def mirror_yx(self, sel_wide, sel_narrow): + def move_crt_y2x(self, sel_wide, sel_narrow): if sel_wide is not None: self.bnk.crt_x.ladder_x.wide._set_value(sel_wide, self.bnk.crt_y.ladder_x.wide._get_value(sel_wide)) @@ -1100,6 +1203,90 @@ class ModExpNG_Core(): if sel_narrow is not None: self.bnk.crt_x.ladder_x.narrow._set_value(sel_narrow, self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow)) self.bnk.crt_x.ladder_y.narrow._set_value(sel_narrow, self.bnk.crt_y.ladder_y.narrow._get_value(sel_narrow)) + + def move_ladders_x2y(self, sel_wide_in, sel_narrow_in, sel_wide_out, sel_narrow_out): + + if sel_wide_out is not None: + self.bnk.crt_x.ladder_y.wide._set_value(sel_wide_out, self.bnk.crt_x.ladder_x.wide._get_value(sel_wide_in)) + self.bnk.crt_y.ladder_y.wide._set_value(sel_wide_out, self.bnk.crt_y.ladder_x.wide._get_value(sel_wide_in)) + + if sel_narrow_out is not None: + self.bnk.crt_x.ladder_y.narrow._set_value(sel_narrow_out, self.bnk.crt_x.ladder_x.narrow._get_value(sel_narrow_in)) + self.bnk.crt_y.ladder_y.narrow._set_value(sel_narrow_out, self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow_in)) + + def flip_ladder_y2x(self, sel_wide_in, sel_narrow_in, sel_wide_out, sel_narrow_out): + + if sel_wide_out is not None: + self.bnk.crt_x.ladder_y.wide._set_value(sel_wide_out, self.bnk.crt_y.ladder_x.wide._get_value(sel_wide_in)) + + if sel_narrow_out is not None: + self.bnk.crt_x.ladder_y.narrow._set_value(sel_narrow_out, self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow_in)) + + def just_multiply(self, sel_wide_in, sel_narrow_in, num_words): + + xn = self.bnk.crt_x.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) + yn = self.bnk.crt_y.ladder_x.wide._get_value(ModExpNG_WideBankEnum.N) + + xn_coeff = self.bnk.crt_x.ladder_x.narrow._get_value(ModExpNG_NarrowBankEnum.N_COEFF) + yn_coeff = self.bnk.crt_y.ladder_x.narrow._get_value(ModExpNG_NarrowBankEnum.N_COEFF) + + xxa = self.bnk.crt_x.ladder_x.wide._get_value(sel_wide_in) + xya = self.bnk.crt_x.ladder_y.wide._get_value(sel_wide_in) + + yxa = self.bnk.crt_y.ladder_x.wide._get_value(sel_wide_in) + yya = self.bnk.crt_y.ladder_y.wide._get_value(sel_wide_in) + + xb = self.bnk.crt_x.ladder_x.narrow._get_value(sel_narrow_in) + yb = self.bnk.crt_y.ladder_x.narrow._get_value(sel_narrow_in) + + xxp = self.wrk.multiply(xxa, xb, None, None, num_words, multiply_only=True) + xyp = self.wrk.multiply(xya, xb, None, None, num_words, multiply_only=True) + + yxp = self.wrk.multiply(yxa, yb, None, None, num_words, multiply_only=True) + yyp = self.wrk.multiply(yya, yb, None, None, num_words, multiply_only=True) + + xxp_lsb = xxp.lower_half() + xxp_msb = xxp.upper_half() + + xyp_lsb = xyp.lower_half() + xyp_msb = xyp.upper_half() + + yxp_lsb = yxp.lower_half() + yxp_msb = yxp.upper_half() + + yyp_lsb = yyp.lower_half() + yyp_msb = yyp.upper_half() + + self.bnk.crt_x.ladder_x.wide._set_value(ModExpNG_WideBankEnum.L, xxp_lsb) + self.bnk.crt_x.ladder_y.wide._set_value(ModExpNG_WideBankEnum.L, xyp_lsb) + self.bnk.crt_y.ladder_x.wide._set_value(ModExpNG_WideBankEnum.L, yxp_lsb) + self.bnk.crt_y.ladder_y.wide._set_value(ModExpNG_WideBankEnum.L, yyp_lsb) + + self.bnk.crt_x.ladder_x.wide._set_value(ModExpNG_WideBankEnum.H, xxp_msb) + self.bnk.crt_x.ladder_y.wide._set_value(ModExpNG_WideBankEnum.H, xyp_msb) + self.bnk.crt_y.ladder_x.wide._set_value(ModExpNG_WideBankEnum.H, yxp_msb) + self.bnk.crt_y.ladder_y.wide._set_value(ModExpNG_WideBankEnum.H, yyp_msb) + + def just_add(self, sel_narrow_a_in, sel_narrow_b_in, sel_narrow_out, num_words): + xxa = self.bnk.crt_x.ladder_x._get_narrow(sel_narrow_a_in) + xya = self.bnk.crt_x.ladder_y._get_narrow(sel_narrow_a_in) + yxa = self.bnk.crt_y.ladder_x._get_narrow(sel_narrow_a_in) + yya = self.bnk.crt_y.ladder_y._get_narrow(sel_narrow_a_in) + + xxb = self.bnk.crt_x.ladder_x._get_narrow(sel_narrow_b_in) + xyb = self.bnk.crt_x.ladder_y._get_narrow(sel_narrow_b_in) + yxb = self.bnk.crt_y.ladder_x._get_narrow(sel_narrow_b_in) + yyb = self.bnk.crt_y.ladder_y._get_narrow(sel_narrow_b_in) + + xxc = self.wrk.add(xxa, xxb, num_words) + xyc = self.wrk.add(xya, xyb, num_words) + yxc = self.wrk.add(yxa, yxb, num_words) + yyc = self.wrk.add(yya, yyb, num_words) + + self.bnk.crt_x.ladder_x._set_narrow(sel_narrow_out, xxc) + self.bnk.crt_x.ladder_y._set_narrow(sel_narrow_out, xyc) + self.bnk.crt_y.ladder_x._set_narrow(sel_narrow_out, yxc) + self.bnk.crt_y.ladder_y._set_narrow(sel_narrow_out, yyc) if __name__ == "__main__": @@ -1149,78 +1336,109 @@ if __name__ == "__main__": core.bnk.crt_x.set_modulus(vector.n, vector.n_coeff) core.bnk.crt_y.set_modulus(vector.n, vector.n_coeff) - core.bnk.crt_x.set_operand(W.A, N.A, vector.x, vector.n_factor) - core.bnk.crt_y.set_operand(W.A, N.A, vector.y, vector.n_factor) - - core.bnk.crt_x.set_operand(W.E, N.E, vector.m, vector.m) - core.bnk.crt_y.set_operand(W.E, N.E, vector.m, vector.m) - - # | W | N - # --+-----+----------- - # A | - # B | ? | ? - # C | ? | ? - # D | ? | ? - # E | M | M - - # | A | B | C | D | E | - # +----------------+-------+---------+-------+---+ - # (YF, XF) =(Y,X)*N_FACTOR | X,Y ; N_FACTOR | ? | ? | ? | M | - core.multiply(W.A, N.A, W.B, N.B, n_num_words) # (YF, XF) =(Y,X)*N_FACTOR | X,Y ; N_FACTOR | XF,YF | ? | ? | M | - core.multiply(W.B, N.B, W.C, N.C, n_num_words, mode=(False, False)) # (YMF,XMF)=(YF*YF,XF*XF) | X,Y ; N_FACTOR | XF,YF | YMF,XMF | ? | M | - core.multiply(W.C, N.I, W.D, N.D, n_num_words) # (YM, XM) =(YMF,XMF)*1 | X,Y ; N_FACTOR | XF,YF | YMF,XMF | XM,YM | M | - core.simply_reduce(N.D, n_num_words) # | | | | | | - core.set_output(O.XM, core.bnk.crt_x, N.D) # | | | | | | - core.set_output(O.YM, core.bnk.crt_y, N.D) # | | | | | | - core.multiply(W.E, N.B, W.C, N.C, n_num_words, mode=(False, False)) # (MB, _) =(M*YF,M*XF) | X,Y ; N_FACTOR | XF,YF | MB,_ | XM,YM | M | - core.mirror_yx(W.C, N.C) # | X,Y ; N_FACTOR | XF,YF | MB,MB | XM,YM | M | - core.simply_reduce(N.C, n_num_words) # | | | | | | - - - XF = core.bnk.crt_x.ladder_x.wide._get_value(W.B) - YF = core.bnk.crt_y.ladder_x.wide._get_value(W.B) - - MB = core.bnk.crt_y.ladder_x.narrow._get_value(N.C) - - PMBZ = core.wrk.multiply(MB, None, vector.p, vector.p_coeff, pq_num_words, reduce_only=True) # mod_reduce (mod p) - QMBZ = core.wrk.multiply(MB, None, vector.q, vector.q_coeff, pq_num_words, reduce_only=True) # mod_reduce (mod q) - - mp_blind = core.wrk.multiply(PMBZ, vector.p_factor, vector.p, vector.p_coeff, pq_num_words) # mod_multiply - mq_blind = core.wrk.multiply(QMBZ, vector.q_factor, vector.q, vector.q_coeff, pq_num_words) # mod_multiply + core.bnk.crt_x.set_operands_crt_xy(W.A, N.A, vector.x, vector.n_factor) + core.bnk.crt_y.set_operands_crt_xy(W.A, N.A, vector.y, vector.n_factor) + + core.bnk.crt_x.set_operands_crt_xy(W.E, N.E, vector.m, vector.m) + core.bnk.crt_y.set_operands_crt_xy(W.E, N.E, vector.m, vector.m) + # | A | B | C | D | E | + # +-----------------+-------+------------------+---------+---+ + # | [XY] ; N_FACTOR | ? | ? | ? | M | + core.modular_multiply(W.A, N.A, W.B, N.B, n_num_words) # [XY]F =[XY]*N_FACTOR | [XY] ; N_FACTOR | [XY]F | ? | ? | M | + core.modular_multiply(W.B, N.B, W.C, N.C, n_num_words, mode=(False, False)) # [XY]MF =[XY]F*[XY]F | [XY] ; N_FACTOR | [XY]F | [XY]YM | ? | M | + core.modular_multiply(W.C, N.I, W.D, N.D, n_num_words) # [XY]M =[XY]MF*1 | [XY] ; N_FACTOR | [XY]F | [XY]YM | [XY]M | M | + core.reduce_narrow(N.D, n_num_words) # | | | | | | + core.set_output(O.XM, core.bnk.crt_x, N.D) # | | | | | | + core.set_output(O.YM, core.bnk.crt_y, N.D) # | | | | | | + core.modular_multiply(W.E, N.B, W.C, N.C, n_num_words) # [XY]MB =M*[XY]F | [XY] ; N_FACTOR | [XY]F | [XY]MB | [XY]M | M | + core.move_crt_y2x(W.C, N.C) # | [XY] ; N_FACTOR | [XY]F | YMB | [XY]M | M | + core.bnk.crt_x.set_modulus(vector.p, vector.p_coeff) # | | | | | | + core.bnk.crt_y.set_modulus(vector.q, vector.q_coeff) # | | | | | | + core.bnk.crt_x.set_operands_crt_xy(W.A, N.A, vector.p_factor, vector.p_factor) # | [PQ]_FACTOR | [XY]F | YMB | [XY]M | M | + core.bnk.crt_y.set_operands_crt_xy(W.A, N.A, vector.q_factor, vector.q_factor) # | [PQ]_FACTOR | [XY]F | YMB | [XY]M | M | + core.reduce_narrow(N.C, n_num_words) # | | | | | | + core.modular_reduce(N.C, W.D, N.D, pq_num_words) # | [PQ]_FACTOR | [XY]F | YMB | [PQ]MBZ | M | + core.modular_multiply(W.D, N.A, W.C, N.C, pq_num_words) # [PQ]MB =[PQ]MBZ*[PQ]_FACTOR | [PQ]_FACTOR | [XY]F | [PQ]MB | [PQ]MBZ | M | + core.modular_multiply(W.C, N.A, W.D, N.D, pq_num_words) # [PQ]MBF=[PQ]MB*[PQ]_FACTOR | [PQ]_FACTOR | [XY]F | [PQ]MB | [PQ]MBF | M | + core.modular_multiply(W.A, N.I, W.C, N.C, pq_num_words) # [PQ]MBF=[PQ]MB*[PQ]_FACTOR | [PQ]_FACTOR | [XY]F | [PQ]IF | [PQ]MBF | M | + core.move_ladders_x2y(W.D, N.D, W.C, N.C) # | [PQ]_FACTOR | [XY]F | [PQ]IF / [PQ]MBF | [PQ]MBF | M | + + #PIF = core.bnk.crt_x.ladder_x.narrow._get_value(N.C)# + #QIF = core.bnk.crt_y.ladder_x.narrow._get_value(N.C)# + - mp_blind_factor = core.wrk.multiply(mp_blind, vector.p_factor, vector.p, vector.p_coeff, pq_num_words) # mod_multiply - mq_blind_factor = core.wrk.multiply(mq_blind, vector.q_factor, vector.q, vector.q_coeff, pq_num_words) # mod_multiply - ip_factor = core.wrk.multiply(i, vector.p_factor, vector.p, vector.p_coeff, pq_num_words) # mod_multiply - iq_factor = core.wrk.multiply(i, vector.q_factor, vector.q, vector.q_coeff, pq_num_words) # mod_multiply +######################## + for bit in range(_WORD_WIDTH * pq_num_words - 1, -1, -1): + + bit_value_p = (vector.dp.number() & (1 << bit)) >> bit + bit_value_q = (vector.dq.number() & (1 << bit)) >> bit - sp_blind_factor = core.wrk.exponentiate(ip_factor, mp_blind_factor, vector.dp, vector.p, vector.p_factor, vector.p_coeff, pq_num_words, dump_index=99, dump_mode="P") # mod_multiply - sq_blind_factor = core.wrk.exponentiate(iq_factor, mq_blind_factor, vector.dq, vector.q, vector.q_factor, vector.q_coeff, pq_num_words, dump_index=99, dump_mode="Q") # mod_multiply + bit_value_p = bit_value_p > 0 + bit_value_q = bit_value_q > 0 + + # mode = ... (shorted the next line for better readability) + + core.modular_multiply(W.C, N.C, W.C, N.C, pq_num_words, mode=(bit_value_p, bit_value_q)) # <LADDER> | [PQ]_FACTOR | [XY]F | [PQ]SBF | [PQ]MBF | M | + + if (bit % 4) == 0: + pct = float((_WORD_WIDTH * pq_num_words - bit) / (_WORD_WIDTH * pq_num_words)) * 100.0 + print("\rdone: %5.1f%%" % pct, end='') + + print("") - SPB = core.wrk.multiply(i, sp_blind_factor, vector.p, vector.p_coeff, pq_num_words) # mod_multiply - SQB = core.wrk.multiply(i, sq_blind_factor, vector.q, vector.q_coeff, pq_num_words) # mod_multiply + core.modular_multiply(W.C, N.I, W.D, N.D, pq_num_words) # [PQ]SB=[PQ]SBF*1 | [PQ]_FACTOR | [XY]F | [PQ]SBF | [PQ]SB | M | - core.wrk.reduce(SPB, len(SPB.words)) # just_reduce - core.wrk.reduce(SQB, len(SQB.words)) # just_reduce +############################ + + core.reduce_narrow(N.D, pq_num_words) + + #SQB = core.bnk.crt_y.ladder_x.narrow._get_value(N.D) + + core.flip_ladder_y2x(W.D, N.D, W.D, N.D) + core.modular_subtract(N.D, N.C, W.C, pq_num_words) # | [PQ]_FACTOR | [XY]F | RSB | [PQ]SB | M | + core.bnk.crt_x.set_operands_crt_xy(W.E, N.E, vector.qinv, vector.qinv) # | [PQ]_FACTOR | [XY]F | RSB | [PQ]SB | QINV | + core.bnk.crt_y.set_operands_crt_xy(W.E, N.E, vector.qinv, vector.qinv) # | [PQ]_FACTOR | [XY]F | RSB | [PQ]SB | QINV | - sr_blind = core.wrk.subtract(SPB, SQB, vector.p, pq_num_words) # mod_subtract + core.modular_multiply(W.C, N.E, W.C, N.C, pq_num_words) # | [PQ]_FACTOR | [XY]F | RSBIZ | [PQ]SB | QINV | + core.modular_multiply(W.C, N.A, W.C, N.C, pq_num_words) # | [PQ]_FACTOR | [XY]F | RSBI | [PQ]SB | QINV | + + core.bnk.crt_x.set_operands_crt_xy(W.E, N.E, vector.q, vector.q) # | [PQ]_FACTOR | [XY]F | RSBI | [PQ]SB | Q | + core.bnk.crt_y.set_operands_crt_xy(W.E, N.E, vector.q, vector.q) # | [PQ]_FACTOR | [XY]F | RSBI | [PQ]SB | Q | + + core.just_multiply(W.E, N.C, pq_num_words) # | [PQ]_FACTOR | [XY]F | RSBI | [PQ]SB | Q | - sr_qinv_blind_inverse_factor = core.wrk.multiply(sr_blind, vector.qinv, vector.p, vector.p_coeff, pq_num_words) # mod_multiply - sr_qinv_blind = core.wrk.multiply(sr_qinv_blind_inverse_factor, vector.p_factor, vector.p, vector.p_coeff, pq_num_words) # mod_multiply + core.merge_lha(N.A, pq_num_words) - q_sr_qinv_blind = core.wrk.multiply(vector.q, sr_qinv_blind, None, None, pq_num_words, multiply_only=True) # just_multiply + core.reduce_narrow(N.A, n_num_words) - core.wrk.reduce(q_sr_qinv_blind, n_num_words) # just_reduce + core.move_crt_y2x(W.D, N.D) - SB = core.wrk.add(SQB, q_sr_qinv_blind, pq_num_words) # just_add + #RQSBI = core.bnk.crt_x.ladder_x.narrow._get_value(N.A) + + core.just_add(N.D, N.A, N.C, pq_num_words) # + SB = core.bnk.crt_x.ladder_x._get_narrow(N.C) + #print(hex(SB.number())) - S = core.wrk.multiply(SB, XF, vector.n, vector.n_coeff, n_num_words) # mod_multiply + #SB = core.wrk.add(SQB, RQSBI, pq_num_words) # just_add + #print(hex(SB.number())) + + + # check why multiplication is not commutative!? + + + XF = core.bnk.crt_x.ladder_x.wide._get_value(W.B) - core.wrk.reduce(S, len(S.words)) # just_reduce + core.bnk.crt_x.set_modulus(vector.n, vector.n_coeff) + core.bnk.crt_y.set_modulus(vector.n, vector.n_coeff) - # check + core.modular_multiply(W.B, N.C, W.A, N.A, n_num_words, mode=(False, False)) + core.reduce_narrow(N.A, n_num_words) + core.set_output(O.S, core.bnk.crt_x, N.A) + + S = core.out.get_value(O.S) XM = core.out.get_value(O.XM) YM = core.out.get_value(O.YM) |