//void Code47574()
void Render(sam_memory* sam)
{
unsigned char phase1 = 0; //mem43
unsigned char phase2;
unsigned char phase3;
unsigned char mem38;
unsigned char mem40;
unsigned char speedcounter; //mem45
unsigned char mem47;
unsigned char mem48;
unsigned char mem49;
unsigned char mem50;
unsigned char mem51;
unsigned char mem53;
unsigned char mem56;
unsigned char mem44 = 0;
int i;
if (sam->common.phoneme_output[0].index == PHONEME_END) return; //exit if no data
unsigned char A = 0;
unsigned char X = 0;
// CREATE FRAMES
//
// The length parameter in the list corresponds to the number of frames
// to expand the phoneme to. Each frame represents 10 milliseconds of time.
// So a phoneme with a length of 7 = 7 frames = 70 milliseconds duration.
//
// The parameters are copied from the phoneme to the frame verbatim.
do
{
// get the index
unsigned char Y = mem44;
// get the phoneme at the index
A = sam->common.phoneme_output[mem44].index;
mem56 = A;
// if terminal phoneme, exit the loop
if (A == PHONEME_END) break;
// period phoneme *.
if (A == 1)
{
// add rising inflection
A = 1;
mem48 = 1;
//goto pos48376;
AddInflection(sam, mem48, phase1, X);
}
/*
if (A == 2) goto pos48372;
*/
// question mark phoneme?
if (A == 2)
{
// create falling inflection
mem48 = 255;
AddInflection(sam, mem48, phase1, X);
}
// pos47615:
// get the stress amount (more stress = higher pitch)
phase1 = tab47492[sam->common.phoneme_output[Y].stress + 1];
// get number of frames to write
phase2 = sam->common.phoneme_output[Y].length;
unsigned char pitch = sam->common.phoneme_output[Y].pitch;
Y = mem56;
// copy from the source to the frames list
do
{
sam->render.freq_amp[X].freq1 = get_freq1(Y, sam->common.mouth); // F1 frequency
sam->render.freq_amp[X].freq2 = get_freq2(Y, sam->common.throat); // F2 frequency
sam->render.freq_amp[X].freq3 = freq3data[Y]; // F3 frequency
sam->render.freq_amp[X].amp1 = ampl1data[Y]; // F1 amplitude
sam->render.freq_amp[X].amp2 = ampl2data[Y]; // F2 amplitude
sam->render.freq_amp[X].amp3 = ampl3data[Y]; // F3 amplitude
sam->render.flags[X] = sampledConsonantFlags[Y]; // phoneme data for sampled consonants
sam->render.pitch[X] = pitch + phase1; // pitch
X++;
phase2--;
} while(phase2 != 0);
mem44++;
} while(mem44 != OUTPUT_PHONEMES);
// -------------------
//pos47694:
// CREATE TRANSITIONS
//
// Linear transitions are now created to smoothly connect the
// end of one sustained portion of a phoneme to the following
// phoneme.
//
// To do this, three tables are used:
//
// Table Purpose
// ========= ==================================================
// blendRank Determines which phoneme's blend values are used.
//
// blendOut The number of frames at the end of the phoneme that
// will be used to transition to the following phoneme.
//
// blendIn The number of frames of the following phoneme that
// will be used to transition into that phoneme.
//
// In creating a transition between two phonemes, the phoneme
// with the HIGHEST rank is used. Phonemes are ranked on how much
// their identity is based on their transitions. For example,
// vowels are and diphthongs are identified by their sustained portion,
// rather than the transitions, so they are given low values. In contrast,
// stop consonants (P, B, T, K) and glides (Y, L) are almost entirely
// defined by their transitions, and are given high rank values.
//
// Here are the rankings used by SAM:
//
// Rank Type Phonemes
// 2 All vowels IY, IH, etc.
// 5 Diphthong endings YX, WX, ER
// 8 Terminal liquid consonants LX, WX, YX, N, NX
// 9 Liquid consonants L, RX, W
// 10 Glide R, OH
// 11 Glide WH
// 18 Voiceless fricatives S, SH, F, TH
// 20 Voiced fricatives Z, ZH, V, DH
// 23 Plosives, stop consonants P, T, K, KX, DX, CH
// 26 Stop consonants J, GX, B, D, G
// 27-29 Stop consonants (internal) **
// 30 Unvoiced consonants /H, /X and Q*
// 160 Nasal M
//
// To determine how many frames to use, the two phonemes are
// compared using the blendRank[] table. The phoneme with the
// higher rank is selected. In case of a tie, a blend of each is used:
//
// if blendRank[phoneme1] == blendRank[phomneme2]
// // use lengths from each phoneme
// outBlendFrames = outBlend[phoneme1]
// inBlendFrames = outBlend[phoneme2]
// else if blendRank[phoneme1] > blendRank[phoneme2]
// // use lengths from first phoneme
// outBlendFrames = outBlendLength[phoneme1]
// inBlendFrames = inBlendLength[phoneme1]
// else
// // use lengths from the second phoneme
// // note that in and out are SWAPPED!
// outBlendFrames = inBlendLength[phoneme2]
// inBlendFrames = outBlendLength[phoneme2]
//
// Blend lengths can't be less than zero.
//
// Transitions are assumed to be symetrical, so if the transition
// values for the second phoneme are used, the inBlendLength and
// outBlendLength values are SWAPPED.
//
// For most of the parameters, SAM interpolates over the range of the last
// outBlendFrames-1 and the first inBlendFrames.
//
// The exception to this is the Pitch[] parameter, which is interpolates the
// pitch from the CENTER of the current phoneme to the CENTER of the next
// phoneme.
//
// Here are two examples. First, For example, consider the word "SUN" (S AH N)
//
// Phoneme Duration BlendWeight OutBlendFrames InBlendFrames
// S 2 18 1 3
// AH 8 2 4 4
// N 7 8 1 2
//
// The formant transitions for the output frames are calculated as follows:
//
// flags ampl1 freq1 ampl2 freq2 ampl3 freq3 pitch
// ------------------------------------------------
// S
// 241 0 6 0 73 0 99 61 Use S (weight 18) for transition instead of AH (weight 2)
// 241 0 6 0 73 0 99 61 <-- (OutBlendFrames-1) = (1-1) = 0 frames
// AH
// 0 2 10 2 66 0 96 59 * <-- InBlendFrames = 3 frames
// 0 4 14 3 59 0 93 57 *
// 0 8 18 5 52 0 90 55 *
// 0 15 22 9 44 1 87 53
// 0 15 22 9 44 1 87 53
// 0 15 22 9 44 1 87 53 Use N (weight 8) for transition instead of AH (weight 2).
// 0 15 22 9 44 1 87 53 Since N is second phoneme, reverse the IN and OUT values.
// 0 11 17 8 47 1 98 56 * <-- (InBlendFrames-1) = (2-1) = 1 frames
// N
// 0 8 12 6 50 1 109 58 * <-- OutBlendFrames = 1
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
//
// Now, consider the reverse "NUS" (N AH S):
//
// flags ampl1 freq1 ampl2 freq2 ampl3 freq3 pitch
// ------------------------------------------------
// N
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61
// 0 5 6 5 54 0 121 61 Use N (weight 8) for transition instead of AH (weight 2)
// 0 5 6 5 54 0 121 61 <-- (OutBlendFrames-1) = (1-1) = 0 frames
// AH
// 0 8 11 6 51 0 110 59 * <-- InBlendFrames = 2
// 0 11 16 8 48 0 99 56 *
// 0 15 22 9 44 1 87 53 Use S (weight 18) for transition instead of AH (weight 2)
// 0 15 22 9 44 1 87 53 Since S is second phoneme, reverse the IN and OUT values.
// 0 9 18 5 51 1 90 55 * <-- (InBlendFrames-1) = (3-1) = 2
// 0 4 14 3 58 1 93 57 *
// S
// 241 2 10 2 65 1 96 59 * <-- OutBlendFrames = 1
// 241 0 6 0 73 0 99 61
A = 0;
mem44 = 0;
mem49 = 0; // mem49 starts at as 0
X = 0;
while(1) //while No. 1
{
// get the current and following phoneme
unsigned char Y = sam->common.phoneme_output[X].index;
A = sam->common.phoneme_output[X+1].index;
X++;
// exit loop at end token
if (A == PHONEME_END) break;//goto pos47970;
// get the ranking of each phoneme
X = A;
mem56 = blendRank[A];
A = blendRank[Y];
// compare the rank - lower rank value is stronger
if (A == mem56)
{
// same rank, so use out blend lengths from each phoneme
phase1 = outBlendLength[Y];
phase2 = outBlendLength[X];
} else
if (A < mem56)
{
// first phoneme is stronger, so us it's blend lengths
phase1 = inBlendLength[X];
phase2 = outBlendLength[X];
} else
{
// second phoneme is stronger, so use it's blend lengths
// note the out/in are swapped
phase1 = outBlendLength[Y];
phase2 = inBlendLength[Y];
}
Y = mem44;
A = mem49 + sam->common.phoneme_output[mem44].length; // A is mem49 + length
mem49 = A; // mem49 now holds length + position
A = A + phase2; //Maybe Problem because of carry flag
//47776: ADC 42
speedcounter = A;
mem47 = 168;
phase3 = mem49 - phase1; // what is mem49
A = phase1 + phase2; // total transition?
mem38 = A;
X = A;
X -= 2;
if ((X & 128) == 0)
do //while No. 2
{
//pos47810:
// mem47 is used to index the tables:
// 168 pitches[]
// 169 frequency1
// 170 frequency2
// 171 frequency3
// 172 amplitude1
// 173 amplitude2
// 174 amplitude3
mem40 = mem38;
if (mem47 == 168) // pitch
{
// unlike the other values, the pitches[] interpolates from
// the middle of the current phoneme to the middle of the
// next phoneme
unsigned char mem36, mem37;
// half the width of the current phoneme
mem36 = sam->common.phoneme_output[mem44].length >> 1;
// half the width of the next phoneme
mem37 = sam->common.phoneme_output[mem44+1].length >> 1;
// sum the values
mem40 = mem36 + mem37; // length of both halves
mem37 += mem49; // center of next phoneme
mem36 = mem49 - mem36; // center index of current phoneme
A = Read(sam, mem47, mem37); // value at center of next phoneme - end interpolation value
//A = mem[address];
Y = mem36; // start index of interpolation
mem53 = A - Read(sam, mem47, mem36); // value to center of current phoneme
} else
{
// value to interpolate to
A = Read(sam, mem47, speedcounter);
// position to start interpolation from
Y = phase3;
// value to interpolate from
mem53 = A - Read(sam, mem47, phase3);
}
// calculate change per frame
mem50 = (((signed char)(mem53) < 0) ? 128 : 0);
mem51 = abs((signed char)mem53) % mem40;
mem53 = (unsigned char)((signed char)(mem53) / mem40);
// interpolation range
X = mem40; // number of frames to interpolate over
Y = phase3; // starting frame
// linearly interpolate values
mem56 = 0;
//47907: CLC
//pos47908:
while(1) //while No. 3
{
A = Read(sam, mem47, Y) + mem53; //carry alway cleared
mem48 = A;
Y++;
X--;
if(X == 0) break;
mem56 += mem51;
if (mem56 >= mem40) //???
{
mem56 -= mem40; //carry? is set
//if ((mem56 & 128)==0)
if ((mem50 & 128)==0)
{
//47935: BIT 50
//47937: BMI 47943
if(mem48 != 0) mem48++;
} else mem48--;
}
//pos47945:
Write(sam, mem47, Y, mem48);
} //while No. 3
//pos47952:
mem47++;
//if (mem47 != 175) goto pos47810;
} while (mem47 != 175); //while No. 2
//pos47963:
mem44++;
X = mem44;
} //while No. 1
//void Code47574()
void Render()
{
unsigned char phase1 = 0; //mem43
unsigned char phase2;
unsigned char phase3;
unsigned char mem66;
unsigned char mem38;
unsigned char mem40;
unsigned char speedcounter; //mem45
unsigned char mem48;
int i;
int carry;
if (phonemeIndexOutput[0] == 255) return; //exit if no data
A = 0;
X = 0;
mem44 = 0;
// CREATE FRAMES
//
// The length parameter in the list corresponds to the number of frames
// to expand the phoneme to. Each frame represents 10 milliseconds of time.
// So a phoneme with a length of 7 = 7 frames = 70 milliseconds duration.
//
// The parameters are copied from the phoneme to the frame verbatim.
// pos47587:
do
{
// get the index
Y = mem44;
// get the phoneme at the index
A = phonemeIndexOutput[mem44];
mem56 = A;
// if terminal phoneme, exit the loop
if (A == 255) break;
// period phoneme *.
if (A == 1)
{
// add rising inflection
A = 1;
mem48 = 1;
//goto pos48376;
AddInflection(mem48, phase1);
}
/*
if (A == 2) goto pos48372;
*/
// question mark phoneme?
if (A == 2)
{
// create falling inflection
mem48 = 255;
AddInflection(mem48, phase1);
}
// pos47615:
// get the stress amount (more stress = higher pitch)
phase1 = tab47492[stressOutput[Y] + 1];
// get number of frames to write
phase2 = phonemeLengthOutput[Y];
Y = mem56;
// copy from the source to the frames list
do
{
frequency1[X] = freq1data[Y]; // F1 frequency
frequency2[X] = freq2data[Y]; // F2 frequency
frequency3[X] = freq3data[Y]; // F3 frequency
amplitude1[X] = ampl1data[Y]; // F1 amplitude
amplitude2[X] = ampl2data[Y]; // F2 amplitude
amplitude3[X] = ampl3data[Y]; // F3 amplitude
sampledConsonantFlag[X] = sampledConsonantFlags[Y]; // phoneme data for sampled consonants
pitches[X] = pitch + phase1; // pitch
X++;
phase2--;
} while(phase2 != 0);
mem44++;
} while(mem44 != 0);
// -------------------
//pos47694:
// CREATE TRANSITIONS
//
// Linear transitions are now created to smoothly connect each
// phoeneme. This transition is spread between the ending frames
// of the old phoneme (outBlendLength), and the beginning frames
// of the new phoneme (inBlendLength).
//
// To determine how many frames to use, the two phonemes are
// compared using the blendRank[] table. The phoneme with the
// smaller score is used. In case of a tie, a blend of each is used:
//
// if blendRank[phoneme1] == blendRank[phomneme2]
// // use lengths from each phoneme
// outBlendFrames = outBlend[phoneme1]
// inBlendFrames = outBlend[phoneme2]
// else if blendRank[phoneme1] < blendRank[phoneme2]
// // use lengths from first phoneme
// outBlendFrames = outBlendLength[phoneme1]
// inBlendFrames = inBlendLength[phoneme1]
// else
// // use lengths from the second phoneme
// // note that in and out are swapped around!
// outBlendFrames = inBlendLength[phoneme2]
// inBlendFrames = outBlendLength[phoneme2]
//
// Blend lengths can't be less than zero.
//
// For most of the parameters, SAM interpolates over the range of the last
// outBlendFrames-1 and the first inBlendFrames.
//
// The exception to this is the Pitch[] parameter, which is interpolates the
// pitch from the center of the current phoneme to the center of the next
// phoneme.
A = 0;
mem44 = 0;
mem49 = 0; // mem49 starts at as 0
X = 0;
while(1) //while No. 1
{
// get the current and following phoneme
Y = phonemeIndexOutput[X];
A = phonemeIndexOutput[X+1];
X++;
// exit loop at end token
if (A == 255) break;//goto pos47970;
// get the ranking of each phoneme
X = A;
mem56 = blendRank[A];
A = blendRank[Y];
// compare the rank - lower rank value is stronger
if (A == mem56)
{
// same rank, so use out blend lengths from each phoneme
phase1 = outBlendLength[Y];
phase2 = outBlendLength[X];
} else
if (A < mem56)
{
// first phoneme is stronger, so us it's blend lengths
phase1 = inBlendLength[X];
phase2 = outBlendLength[X];
} else
{
// second phoneme is stronger, so use it's blend lengths
// note the out/in are swapped
phase1 = outBlendLength[Y];
phase2 = inBlendLength[Y];
}
Y = mem44;
A = mem49 + phonemeLengthOutput[mem44]; // A is mem49 + length
mem49 = A; // mem49 now holds length + position
A = A + phase2; //Maybe Problem because of carry flag
//47776: ADC 42
speedcounter = A;
mem47 = 168;
phase3 = mem49 - phase1; // what is mem49
A = phase1 + phase2; // total transition?
mem38 = A;
X = A;
X -= 2;
if ((X & 128) == 0)
do //while No. 2
{
//pos47810:
// mem47 is used to index the tables:
// 168 pitches[]
// 169 frequency1
// 170 frequency2
// 171 frequency3
// 172 amplitude1
// 173 amplitude2
// 174 amplitude3
mem40 = mem38;
if (mem47 == 168) // pitch
{
// unlike the other values, the pitches[] interpolates from
// the middle of the current phoneme to the middle of the
// next phoneme
unsigned char mem36, mem37;
// half the width of the current phoneme
mem36 = phonemeLengthOutput[mem44] >> 1;
// half the width of the next phoneme
mem37 = phonemeLengthOutput[mem44+1] >> 1;
// sum the values
mem40 = mem36 + mem37; // length of both halves
mem37 += mem49; // center of next phoneme
mem36 = mem49 - mem36; // center index of current phoneme
A = Read(mem47, mem37); // value at center of next phoneme - end interpolation value
//A = mem[address];
Y = mem36; // start index of interpolation
mem53 = A - Read(mem47, mem36); // value to center of current phoneme
} else
{
// value to interpolate to
A = Read(mem47, speedcounter);
// position to start interpolation from
Y = phase3;
// value to interpolate from
mem53 = A - Read(mem47, phase3);
}
//Code47503(mem40);
// ML : Code47503 is division with remainder, and mem50 gets the sign
// calculate change per frame
mem50 = (((char)(mem53) < 0) ? 128 : 0);
mem51 = abs((char)mem53) % mem40;
mem53 = (unsigned char)((char)(mem53) / mem40);
// interpolation range
X = mem40; // number of frames to interpolate over
Y = phase3; // starting frame
// linearly interpolate values
mem56 = 0;
//47907: CLC
//pos47908:
while(1) //while No. 3
{
A = Read(mem47, Y) + mem53; //carry alway cleared
mem48 = A;
Y++;
X--;
if(X == 0) break;
mem56 += mem51;
if (mem56 >= mem40) //???
{
mem56 -= mem40; //carry? is set
//if ((mem56 & 128)==0)
if ((mem50 & 128)==0)
{
//47935: BIT 50
//47937: BMI 47943
if(mem48 != 0) mem48++;
} else mem48--;
}
//pos47945:
Write(mem47, Y, mem48);
} //while No. 3
//pos47952:
mem47++;
//if (mem47 != 175) goto pos47810;
} while (mem47 != 175); //while No. 2
//pos47963:
mem44++;
X = mem44;
} //while No. 1