int main(){
int pass;
int score = 0;
int delayDiff = 5000; //5s
setup();
while(1){
sendPattern(delayDiff);
pass = readPattern();
if(pass == 1){
makeSound(95); //passTune
delayDiff -= 500; //Increase difficulty -0.5s
score += 10;
makePattern(); //new pattern
}
else{
makeSound(10); //failTune();
print(1,score);
PWME = 0x00; //kill sound
break;
}
}
}
QMimeMagicRule::QMimeMagicRule(const QString &typeStr,
const QByteArray &theValue,
const QString &offsets,
const QByteArray &theMask,
QString *errorString) :
d(new QMimeMagicRulePrivate)
{
d->value = theValue;
d->mask = theMask;
d->matchFunction = 0;
d->type = QMimeMagicRule::type(typeStr.toLatin1());
if (d->type == Invalid) {
*errorString = QStringLiteral("Type %s is not supported").arg(typeStr);
}
// Parse for offset as "1" or "1:10"
const int colonIndex = offsets.indexOf(QLatin1Char(':'));
const QString startPosStr = colonIndex == -1 ? offsets : offsets.mid(0, colonIndex);
const QString endPosStr = colonIndex == -1 ? offsets : offsets.mid(colonIndex + 1);
if (!QMimeTypeParserBase::parseNumber(startPosStr, &d->startPos, errorString) ||
!QMimeTypeParserBase::parseNumber(endPosStr, &d->endPos, errorString)) {
d->type = Invalid;
return;
}
if (d->value.isEmpty()) {
d->type = Invalid;
if (errorString)
*errorString = QLatin1String("Invalid empty magic rule value");
return;
}
if (d->type >= Host16 && d->type <= Byte) {
bool ok;
d->number = d->value.toUInt(&ok, 0); // autodetect
if (!ok) {
d->type = Invalid;
if (errorString)
*errorString = QString::fromLatin1("Invalid magic rule value \"%1\"").arg(
QString::fromLatin1(d->value));
return;
}
d->numberMask = !d->mask.isEmpty() ? d->mask.toUInt(&ok, 0) : 0; // autodetect
}
switch (d->type) {
case String:
d->pattern = makePattern(d->value);
d->pattern.squeeze();
if (!d->mask.isEmpty()) {
if (d->mask.size() < 4 || !d->mask.startsWith("0x")) {
d->type = Invalid;
if (errorString)
*errorString = QString::fromLatin1("Invalid magic rule mask \"%1\"").arg(
QString::fromLatin1(d->mask));
return;
}
const QByteArray &tempMask = QByteArray::fromHex(QByteArray::fromRawData(
d->mask.constData() + 2, d->mask.size() - 2));
if (tempMask.size() != d->pattern.size()) {
d->type = Invalid;
if (errorString)
*errorString = QString::fromLatin1("Invalid magic rule mask size \"%1\"").arg(
QString::fromLatin1(d->mask));
return;
}
d->mask = tempMask;
} else {
d->mask.fill(char(-1), d->pattern.size());
}
d->mask.squeeze();
d->matchFunction = matchString;
break;
case Byte:
if (d->number <= quint8(-1)) {
if (d->numberMask == 0)
d->numberMask = quint8(-1);
d->matchFunction = matchNumber<quint8>;
}
break;
case Big16:
case Host16:
case Little16:
if (d->number <= quint16(-1)) {
d->number = d->type == Little16 ? qFromLittleEndian<quint16>(d->number) : qFromBigEndian<quint16>(d->number);
if (d->numberMask == 0)
d->numberMask = quint16(-1);
d->matchFunction = matchNumber<quint16>;
}
break;
case Big32:
case Host32:
case Little32:
if (d->number <= quint32(-1)) {
d->number = d->type == Little32 ? qFromLittleEndian<quint32>(d->number) : qFromBigEndian<quint32>(d->number);
if (d->numberMask == 0)
d->numberMask = quint32(-1);
d->matchFunction = matchNumber<quint32>;
}
break;
default:
break;
}
}
void makeLine(int count){
int i;
for (i=0; i<count;i++)
makePattern();
backward(count*5);
}
QMimeMagicRule::QMimeMagicRule(QMimeMagicRule::Type theType,
const QByteArray &theValue,
int theStartPos,
int theEndPos,
const QByteArray &theMask) :
d(new QMimeMagicRulePrivate)
{
Q_ASSERT(!theValue.isEmpty());
d->type = theType;
d->value = theValue;
d->startPos = theStartPos;
d->endPos = theEndPos;
d->mask = theMask;
d->matchFunction = 0;
if (d->type >= Host16 && d->type <= Byte) {
bool ok;
d->number = d->value.toUInt(&ok, 0); // autodetect
Q_ASSERT(ok);
d->numberMask = !d->mask.isEmpty() ? d->mask.toUInt(&ok, 0) : 0; // autodetect
}
switch (d->type) {
case String:
d->pattern = makePattern(d->value);
d->pattern.squeeze();
if (!d->mask.isEmpty()) {
Q_ASSERT(d->mask.size() >= 4 && d->mask.startsWith("0x"));
d->mask = QByteArray::fromHex(QByteArray::fromRawData(d->mask.constData() + 2, d->mask.size() - 2));
Q_ASSERT(d->mask.size() == d->pattern.size());
} else {
d->mask.fill(char(-1), d->pattern.size());
}
d->mask.squeeze();
d->matchFunction = matchString;
break;
case Byte:
if (d->number <= quint8(-1)) {
if (d->numberMask == 0)
d->numberMask = quint8(-1);
d->matchFunction = matchNumber<quint8>;
}
break;
case Big16:
case Host16:
case Little16:
if (d->number <= quint16(-1)) {
d->number = d->type == Little16 ? qFromLittleEndian<quint16>(d->number) : qFromBigEndian<quint16>(d->number);
if (d->numberMask == 0)
d->numberMask = quint16(-1);
d->matchFunction = matchNumber<quint16>;
}
break;
case Big32:
case Host32:
case Little32:
if (d->number <= quint32(-1)) {
d->number = d->type == Little32 ? qFromLittleEndian<quint32>(d->number) : qFromBigEndian<quint32>(d->number);
if (d->numberMask == 0)
d->numberMask = quint32(-1);
d->matchFunction = matchNumber<quint32>;
}
break;
default:
break;
}
}
void
createPam5Patterns(void)
{
struct compiledPatternTraversal *t[15];
struct compiledPatternAtom *a[15];
if (VanDerWaalsCutoffRadius < 0.0) {
// this indicates that the model has no pam5 atoms
return;
}
stack_match_initialized = 0;
a[0] = makePatternAtom(0, "P5G");
a[1] = makePatternAtom(1, "P5S");
a[2] = makePatternAtom(2, "P5S");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[0], a[2], '1');
makePattern("PAM5-basepair", pam5_basepair_match, 3, 2, t);
a[0] = makePatternAtom(0, "P5G");
a[1] = makePatternAtom(1, "P5G");
a[2] = makePatternAtom(2, "P5S");
a[3] = makePatternAtom(3, "P5S");
a[4] = makePatternAtom(4, "P5S");
a[5] = makePatternAtom(5, "P5S");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[0], a[2], '1');
t[2] = makeTraversal(a[0], a[3], '1');
t[3] = makeTraversal(a[1], a[4], '1');
t[4] = makeTraversal(a[1], a[5], '1');
makePattern("PAM5-stack", pam5_stack_match, 6, 5, t);
a[0] = makePatternAtom(0, "P5P");
a[1] = makePatternAtom(1, "P5S");
t[0] = makeTraversal(a[0], a[1], '1');
makePattern("PAM5-phosphate-sugar", pam5_phosphate_sugar_match, 2, 1, t);
a[0] = makePatternAtom(0, "P5P");
a[1] = makePatternAtom(1, "P5S");
a[2] = makePatternAtom(2, "P5P");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[1], a[2], '1');
makePattern("PAM5-phosphate-phosphate", pam5_phosphate_phosphate_match, 3, 2, t);
a[0] = makePatternAtom(0, "P5G");
a[1] = makePatternAtom(1, "P5S");
a[2] = makePatternAtom(2, "P5P");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[1], a[2], '1');
makePattern("PAM5-groove-phosphate", pam5_groove_phosphate_match, 3, 2, t);
a[0] = makePatternAtom(0, "P5G");
a[1] = makePatternAtom(1, "P5S");
a[2] = makePatternAtom(2, "P5P");
a[3] = makePatternAtom(3, "P5S");
a[4] = makePatternAtom(4, "P5G");
a[5] = makePatternAtom(5, "P5P");
a[6] = makePatternAtom(6, "P5S");
a[7] = makePatternAtom(7, "P5P");
a[8] = makePatternAtom(8, "P5P");
a[9] = makePatternAtom(9, "P5S");
a[10] = makePatternAtom(10, "P5P");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[1], a[2], '1');
t[2] = makeTraversal(a[2], a[3], '1');
t[3] = makeTraversal(a[3], a[4], '1');
t[4] = makeTraversal(a[4], a[0], '0');
t[5] = makeTraversal(a[1], a[5], '1');
t[6] = makeTraversal(a[5], a[6], '1');
t[7] = makeTraversal(a[6], a[7], '1');
t[8] = makeTraversal(a[3], a[8], '1');
t[9] = makeTraversal(a[8], a[9], '1');
t[10] = makeTraversal(a[9], a[10], '1');
makePattern("PAM5-crossover", pam5_crossover_match, 11, 11, t);
a[0] = makePatternAtom(0, "P5G");
a[1] = makePatternAtom(1, "P5G");
a[2] = makePatternAtom(2, "P5S");
a[3] = makePatternAtom(3, "P5P");
a[4] = makePatternAtom(4, "P5S");
a[5] = makePatternAtom(5, "P5G");
a[6] = makePatternAtom(6, "P5G");
a[7] = makePatternAtom(7, "P5S");
a[8] = makePatternAtom(8, "P5P");
a[9] = makePatternAtom(9, "P5S");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[1], a[2], '1');
t[2] = makeTraversal(a[2], a[3], '1');
t[3] = makeTraversal(a[3], a[4], '1');
t[4] = makeTraversal(a[4], a[5], '1');
t[5] = makeTraversal(a[5], a[6], '1');
t[6] = makeTraversal(a[6], a[7], '1');
t[7] = makeTraversal(a[7], a[8], '1');
t[8] = makeTraversal(a[8], a[9], '1');
t[9] = makeTraversal(a[9], a[0], '1');
makePattern("PAM5-full-crossover", pam5_full_crossover_match, 10, 10, t);
a[0] = makePatternAtom(0, "Ah5");
a[1] = makePatternAtom(1, "P5G");
a[2] = makePatternAtom(2, "P5S");
a[3] = makePatternAtom(3, "P5S");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[1], a[2], '1');
t[2] = makeTraversal(a[1], a[3], '1');
makePattern("PAM5-basepair-handle", pam5_basepair_handle_match, 4, 3, t);
a[0] = makePatternAtom(0, "PAM3");
t[0] = makeTraversal(a[0], a[0], '?'); // how to match a bare atom
makePattern("PAM3-any", pam3_any_match, 1, 1, t);
a[0] = makePatternAtom(0, "Ax3");
a[1] = makePatternAtom(1, "Ss3");
a[2] = makePatternAtom(2, "Ss3");
a[3] = makePatternAtom(3, "Ax3");
a[4] = makePatternAtom(4, "Ss3");
a[5] = makePatternAtom(5, "Ss3");
a[6] = makePatternAtom(6, "Ss3");
a[7] = makePatternAtom(7, "Ss3");
t[0] = makeTraversal(a[0], a[1], '1');
t[1] = makeTraversal(a[1], a[2], '1');
t[2] = makeTraversal(a[2], a[3], '1');
t[3] = makeTraversal(a[3], a[0], '0');
t[4] = makeTraversal(a[1], a[4], '1');
t[5] = makeTraversal(a[4], a[5], '1');
t[6] = makeTraversal(a[2], a[6], '1');
t[7] = makeTraversal(a[6], a[7], '1');
makePattern("PAM3-crossover", pam3_crossover_match, 8, 8, t);
}
InterestFilter::InterestFilter(const char* prefixUri, const char* regexFilter)
: prefix_(prefixUri), regexFilter_(regexFilter),
regexFilterPattern_(makePattern(regexFilter))
{
}
InterestFilter::InterestFilter(const string& prefixUri, const string& regexFilter)
: prefix_(prefixUri), regexFilter_(regexFilter),
regexFilterPattern_(makePattern(regexFilter))
{
}
InterestFilter::InterestFilter(const Name& prefix, const char* regexFilter)
: prefix_(prefix), regexFilter_(regexFilter),
regexFilterPattern_(makePattern(regexFilter))
{
}