void Questioner::countdownOver()
{
//LOG("Questioner cube is %d\n",(int) myCube );
myGameDrawer->drawQuestionerBackground(myCube);
currQuestion = Question(myGameDrawer, myCube, yCurrQuestion);
prevQuestion = Question(myCube);
}
void unitTest() {
TreeType tree = InitTree();
printf("After initlizing tree:\n");
PrintTree(tree);
PositionType question = 0;
PositionType answer = 5;
printf("IsLeaf test 1: %s\n", IsLeaf(tree, question) ? "error" : "pass");
printf("IsLeaf test 2: %s\n", IsLeaf(tree, answer) ? "pass" : "error");
printf("Top test: %s\n", Top(tree) == 0 ? "pass" : "error");
printf("Question test 1: %s\n", strcmp(Question(tree, question), "Is it furry?") == 0 ? "pass" : "error");
printf("Question test 2: %s\n", strcmp(Question(tree, answer), "Is it a lizard?") == 0 ? "pass" : "error");
printf("%s\n", Question(tree, answer));
ReplaceNode(tree, 7, "a kitten", "Is it an adult?");
PrintTree(tree);
}
void addDetailedVerbQuestions(Quiz &quiz, const SweDictionary &sweDict, const quint16 &count)
{
QString questionText;
QList<Verb> &verbs = sweDict.getRandomVerbs(count);
for (int i = 0; i < verbs.size(); i++) {
questionText.append("What are the forms of \"");
questionText.append(verbs.at(i).getEnglishTranslation());
questionText.append("\" in swedish?");
QList<QString> answer;
answer.append(verbs.at(i).getImperativForm());
answer.append(verbs.at(i).getInfinitivForm());
answer.append(verbs.at(i).getPresensForm());
answer.append(verbs.at(i).getPreteritumForm());
answer.append(verbs.at(i).getSupinumForm());
const Question &q = Question(questionText, answer, Question::VERB);
quiz.addQuestion(q);
questionText.clear();
}
delete &verbs;
}
/*
* Play the "animal" game, in which the program attempts to guess an animal
* that the user is thinking of by asking yes or no questions. Eventually,
* the program either will guess the user's animal or run out of questions
* to ask. In the latter case, the program will ask the user to provide a
* yes-or-no question that would distinguish between the user's animal and
* the program's best guess.
* The data structure of questions and guesses is essentially a binary tree,
* with each internal node having a "yes" branch and a "no" branch. Leaves
* of the tree represent animals to be guessed by the program. If the program
* fails to guess the user's animal, it replaces one of the leaves of the tree
* by a node containing the new question, whose children are the program's
* best guess and the animal provided by the user.
* The structure of the program is simple. It initializes the question/guess
* data structure, then plays games as long as the user is interested. In each
* game, the program starts at the top of the tree (the root) and progresses
* toward the bottom (the leaves) depending on the user's responses. Once it
* reaches a leaf, it either has won or lost, and handles the situation as
* described above.
*/
int main () {
TreeType tree;
PositionType pos;
char *newQuestion, *newAnswer;
tree = InitTree ();
// unitTest();
printf("%s", "Think of an animal. I will try to guess what it is.\n"
"Please answer my questions with yes or no.\n");
while (TRUE) {
pos = Top (tree);
while (!IsLeaf (tree, pos)) {
pos = Answer (Question (tree, pos))?
YesNode (tree, pos): NoNode (tree, pos);
}
if (Answer (Guess (tree, pos))) {
printf ("I got it right!\n");
} else {
GetNewInfo (tree, pos, &newAnswer, &newQuestion);
ReplaceNode (tree, pos, newAnswer, newQuestion);
}
if (!Answer ("Want to play again? ")) {
exit (0);
}
}
return 0;
}
void addDetailedNounQuestions(Quiz &quiz, const SweDictionary &sweDict, const quint16 &count)
{
QString questionText;
QList<Noun> &nouns = sweDict.getRandomNouns(count);
for (int i = 0; i < nouns.size(); i++) {
questionText.append("What are the forms of \"");
questionText.append(nouns.at(i).getEnglishTranslation());
questionText.append("\" in swedish?");
//const QString &singForm = nouns.at(i).getBestSingForm();
QList<QString> answer;
answer.append(nouns.at(i).getEnEtt());
answer.append(nouns.at(i).getBestSingForm());
answer.append(nouns.at(i).getObestSingForm());
answer.append(nouns.at(i).getBestPlurForm());
answer.append(nouns.at(i).getObestPlurForm());
const Question &q = Question(questionText, answer, Question::NOUN);
quiz.addQuestion(q);
questionText.clear();
}
delete &nouns;
}
/*
* Play the "animal" game, in which the program attempts to guess an animal
* that the user is thinking of by asking yes or no questions. Eventually,
* the program either will guess the user's animal or run out of questions
* to ask. In the latter case, the program will ask the user to provide a
* yes-or-no question that would distinguish between the user's animal and
* the program's best guess.
* The data structure of questions and guesses is essentially a binary tree,
* with each internal node having a "yes" branch and a "no" branch. Leaves
* of the tree represent animals to be guessed by the program. If the program
* fails to guess the user's animal, it replaces one of the leaves of the tree
* by a node containing the new question, whose children are the program's
* best guess and the animal provided by the user.
* The structure of the program is simple. It initializes the question/guess
* data structure, then plays games as long as the user is interested. In each
* game, the program starts at the top of the tree (the root) and progresses
* toward the bottom (the leaves) depending on the user's responses. Once it
* reaches a leaf, it either has won or lost, and handles the situation as
* described above.
*/
int main (int argc, char *argv[])
{
char *treefile = NULL;
TreeType tree;
PositionType pos;
char *newQuestion, *newAnswer;
if (argc > 1) {
treefile = argv[1];
}
tree = InitTree (treefile);
printf("%s", "Think of an animal. I will try to guess what it is.\n"
"Please answer my questions with yes or no.\n");
while (TRUE) {
pos = Top (tree);
while (!IsLeaf (tree, pos)) {
pos = Answer(Question(tree,pos))?
YesNode(tree,pos): NoNode(tree,pos);
}
if (Answer (Guess (tree, pos))) {
printf ("I got it right!\n");
} else {
GetNewInfo (tree, pos, &newAnswer, &newQuestion);
ReplaceNode (tree, pos, newAnswer, newQuestion);
}
if (!Answer ("Want to play again? ")) {
WriteTree(tree, treefile);
exit (0);
}
}
}
void Game::receiveQuestionFromDB(QList<QStringList> questionLists)
{
QList<Question> questionObjects = QList<Question>();
int random = 349;
for(QStringList & questionList : questionLists)
{
Question q = Question(opposingCandidate, questionList, random);
questionObjects.append(q);
random += 13;
}
emit returnQuestions(questionObjects);
}
BOOL SystemHandler::killTrace()
{
OMsgs msg;
OString Title(30);
OString Question(100);
msg.loadString(APP_TITLE, 30, Title.text);
msg.loadString(SURE_TO_EXIT, 100, Question.text);
if (WinMessageBox(HWND_DESKTOP, HWND_DESKTOP, Question.text, Title.text,
GTPM_ICO, MB_YESNO | MB_ICONQUESTION | MB_DEFBUTTON1)==MBID_YES)
WinPostMsg(NULLHANDLE, WM_QUIT, (MPARAM)0, (MPARAM)100);
return(TRUE); // continue by default
}
//add commando met een positie
int QuestionList::add(Question::QuestionType type, std::string& question_string,
std::string *answers, int amount_of_answers, int position) {
//pointer bij houden naaar het oudestuk geheugen
Question* old_questions(questions_);
//hulp variabelen
int index(0);
bool skipped(false);
//nieuw stuk geheugen alloceren
questions_ = new Question[amount_of_questions_ + 1];
//over de vragen lopen
while (index < (amount_of_questions_ + 1)) {
//vraag moet ingevoegd worden
if (index == (position - 1)) {
Question q = Question(index + 1, type, question_string,
answers, amount_of_answers);
questions_[index] = q;
//ervoor zorgen dat de destructor de antwoorden niet dealloceert
q.copied = true;
//we hebben een index geskipped in de oude array
skipped = true;
} else {
if (skipped) {
questions_[index] = old_questions[index - 1]; //index loopt gewoon door dus moet je 1 achteruit in de oude kijken
questions_[index].increase_id(); //vragen moeten nu een nummer hoger hebben
old_questions[index - 1].copied = true;
} else {
questions_[index] = old_questions[index];
//we moet de antwoorden niet verwijderen want dat zou een probleem zijn
old_questions[index].copied = true;
}
}
index++;
}
amount_of_questions_++;
dirty = true;
//oude vragen dealloceren
delete[] old_questions;
//positie terug geven voor het antwoord op het commando
return position;
}
void PredicateDialog::onDeletePredicate()
{
Glib::RefPtr < Gtk::TreeView::Selection > ref = mTreePredicateList->
get_selection();
if (ref) {
Gtk::TreeModel::iterator iter = ref->get_selected();
if (iter) {
if (Question(_("Are you sure you want to delete this predicate?"))) {
mPredicateNameEntry->set_text("");
mTextViewFunction->get_buffer()->set_text("");
mHeaderPred->set_text("");
Gtk::TreeModel::Row row = *iter;
std::string name(row.get_value(m_viewscolumnrecord.name));
m_model->erase(iter);
Gtk::TreeModel::Children children = m_model->children();
m_iter = children.begin();
// Delete the element in the vector
for (std::vector < std::string > ::iterator it =
mPredicateName.begin();
it != mPredicateName.end(); ) {
if ( *it == name ) {
it = mPredicateName.erase(it);
}
else {
++it;
}
}
if (mPredicateFunction.find(name) != mPredicateFunction.end()) {
mPredicateFunction.erase(name);
}
setSensitivePredicate(false);
}
}
}
}
void addSimpleAdjectiveQuestions(Quiz &quiz, const SweDictionary &sweDict, const quint16 &count)
{
QString questionText;
QList<Adjective> &adjectives = sweDict.getRandomAdjectives(count);
for (int i = 0; i < adjectives.size(); i++) {
questionText.append("What is ");
questionText.append(adjectives.at(i).getEnglishTranslation());
questionText.append(" in swedish?");
const QString &posForm = adjectives.at(i).getPositivForm();
QList<QString> answer;
answer.append(posForm);
const Question &q = Question(questionText, answer, Question::ADJECTIVE);
quiz.addQuestion(q);
questionText.clear();
}
delete &adjectives;
}
void addSimpleVerbQuestions(Quiz &quiz, const SweDictionary &sweDict, const quint16 &count)
{
QString questionText;
QList<Verb> &verbs = sweDict.getRandomVerbs(count);
for (int i = 0; i < verbs.size(); i++) {
questionText.append("What is ");
questionText.append(verbs.at(i).getEnglishTranslation());
questionText.append(" in swedish?");
const QString &infForm = verbs.at(i).getInfinitivForm();
QList<QString> answer;
answer.append(infForm);
const Question &q = Question(questionText, answer, Question::VERB);
quiz.addQuestion(q);
questionText.clear();
}
delete &verbs;
}
int main(void)
{
char answer='y';
srand((int)time(NULL));
Start();
while(answer=='y')
{
BettingPrint();
Choice();
Progress();
if(YourMoney()==0)
break;
else
answer=Question();
}
system("PAUSE");
return 0;
}
void addDetailedAdjectiveQuestions(Quiz &quiz, const SweDictionary &sweDict, const quint16 &count)
{
QString questionText;
QList<Adjective> &adjectives = sweDict.getRandomAdjectives(count);
for (int i = 0; i < adjectives.size(); i++) {
questionText.append("What are the forms of \"");
questionText.append(adjectives.at(i).getEnglishTranslation());
questionText.append("\" in swedish?");
QList<QString> answer;
answer.append(adjectives.at(i).getPositivForm());
answer.append(adjectives.at(i).getKomparativForm());
answer.append(adjectives.at(i).getSuperlativForm());
const Question &q = Question(questionText, answer, Question::ADJECTIVE);
quiz.addQuestion(q);
questionText.clear();
}
delete &adjectives;
}
MessageWindow::Response MessageWindow::Question(Window *window, const String& text, Buttons buttons)
{
return Question(window, text, "", buttons);
}
MessageWindow::Response MessageWindow::Question(const String& text, const String& caption, Buttons buttons)
{
return Question(nullptr, text, caption, buttons);
}
void Questioner::repaintNewCube(unsigned int cube)
{
//LOG("repainting New Questioner Cube\n");
myCube = cube;
myGameDrawer->drawQuestionerBackground(myCube);
currPan = vec(0,0);
targetPan = vec(0,0);
yCurrQuestion = FIRST_QUESTION_HEIGHT;
int *questionHolder;
if(panning)
{
panning = 0;
if( currPan == targetPan)
{
if(currQuestion.equals(prevQuestion))
{
currQuestion = newQuestion;
//print both curr and prev
questionHolder = currQuestion.retrieveQuestion();
currQuestion = Question(myGameDrawer, myCube, 4, questionHolder,0);
questionHolder = prevQuestion.retrieveQuestion();
prevQuestion = Question(myGameDrawer, myCube, 8, questionHolder,1);
}
else
{
currQuestion = newQuestion;
//print just curr
questionHolder = currQuestion.retrieveQuestion();
currQuestion = Question(myGameDrawer, myCube, 4, questionHolder,0);
}
}
else
{
prevQuestion = currQuestion;
currQuestion = newQuestion;
//print both curr and prev
questionHolder = currQuestion.retrieveQuestion();
currQuestion = Question(myGameDrawer, myCube, 4, questionHolder,0);
questionHolder = prevQuestion.retrieveQuestion();
prevQuestion = Question(myGameDrawer, myCube, 8, questionHolder,1);
}
}
else
{
//print curr and prev
if(totalAsked)
{
questionHolder = currQuestion.retrieveQuestion();
currQuestion = Question(myGameDrawer, myCube, 4, questionHolder,0);
questionHolder = prevQuestion.retrieveQuestion();
prevQuestion = Question(myGameDrawer, myCube, 8, questionHolder,1);
}
else
{
questionHolder = currQuestion.retrieveQuestion();
currQuestion = Question(myGameDrawer, myCube, 4, questionHolder,0);
}
}
}
Test::Test() {
// qDebug() << "Test construction";
points = 0;
for (int i=0; i < 20; i ++) q[i] = Question();
//qDebug() << "end Test construction";
}
void Questioner::runGame(TimeDelta myDelta)
{
if(panning)
{
timePanning += myDelta.milliseconds();
if(timePanning > TIME_TO_CORRECT && !corrQuestAns)
{
corrQuestAns = 1;
currQuestion.updateToCorrect();
}
currPan = doPanning(targetPan,timePanning);
if(currPan == targetPan)
{
prevQuestion.clean();
prevQuestion = currQuestion;
currQuestion = newQuestion;
panning = 0;
}
}
else if(currQuestion.answered())
{
yCurrQuestion = yCurrQuestion - 6;
if(yCurrQuestion < 0)
{
yCurrQuestion += 18;
}
newQuestion = Question(myGameDrawer, myCube, yCurrQuestion);
targetPan = currPan - vec(0,48);
if(currPan.y < 0)
{
targetPan.y = targetPan.y += 144;
currPan.y = currPan.y += 144;
}
timePanning = 0;
panning = 1;
corrQuestAns = 0;
int correct = currQuestion.wasRight();
if(!correct)
{
if(longestStreak < currStreak)
{
longestStreak = currStreak;
}
currStreak = 0;
}
else
{
currStreak += correct;
//LOG("currStreak = %d questioner with cubeID = %d\n",currStreak, (int)myCube);
totalCorrect += correct;
if(!(currStreak % 5))
{
extraTime = 1;
}
}
totalAsked++;
}
//LOG("Questioner about to return runGame()\n");
}
/// <summary>
/// Handle new body data
/// <param name="nTime">timestamp of frame</param>
/// <param name="nBodyCount">body data count</param>
/// <param name="ppBodies">body data in frame</param>
/// </summary>
void CColorBasics::ProcessBody(INT64 nTime, int nBodyCount, IBody** ppBodies)
{
if (m_hWnd)
{
HRESULT hr = S_OK;
D2D1_POINT_2F start;
start.x = 1500.0;
start.y = 800.0;
D2D1_POINT_2F quit;
quit.x = 300.0;
quit.y = 800.0;
//int width = 0;
//int height = 0;
if (SUCCEEDED(hr) && m_pCoordinateMapper)
{
// 先に実行しているProcessColor()にて行っているのでコメント
//hr = m_pDrawColor->BeginDraw();
DetectionResult nEngaged[6] = { DetectionResult_Unknown };
PointF lean;
//RECT rct;
//GetClientRect(GetDlgItem(m_hWnd, IDC_VIDEOVIEW), &rct);
//width = rct.right;
//height = rct.bottom;
UINT64 nTrackBody = 10;
for (int i = 0; i < nBodyCount; ++i)
{
IBody* pBody = ppBodies[i];
if (pBody)
{
// 手旗二人での対戦モードを想定してインデックスを取得する。
// 本来はゲーム前に対戦の二人ｗフィックスしておくべきだろうが。
//
// トラッキングされているボディかはちゃんと確かめること。
BOOLEAN bTracked = false;
hr = pBody->get_IsTracked(&bTracked);
// Engaged()は使えるみたい。これは、視野に入ってきた人を認識するものだろう。
hr = pBody->get_Engaged(&nEngaged[i]);
pBody->get_Lean(&lean);
// 以下はまだ使えないようだ
//hr = pBody->GetAppearanceDetectionResults((UINT)i, &nEngaged[i]);
if (SUCCEEDED(hr) && bTracked)
{
// トラッキングが無効な場合のインデックスは０が返るので使い方に注意！！
UINT64 nBodyIndex = 0;
hr = pBody->get_TrackingId(&nBodyIndex);
Joint joints[JointType_Count];
D2D1_POINT_2F jointPoints[JointType_Count];
HandState leftHandState = HandState_Unknown;
HandState rightHandState = HandState_Unknown;
pBody->get_HandLeftState(&leftHandState);
pBody->get_HandRightState(&rightHandState);
hr = pBody->GetJoints(_countof(joints), joints);
if (SUCCEEDED(hr))
{
// スクリーン座標に変換
for (int j = 0; j < _countof(joints); ++j)
{
jointPoints[j] = BodyToScreen(joints[j].Position);
}
// ここに頭部に丸を描いて、ボディ番号を表示
m_pDrawColor->DrawHead(jointPoints[JointType_Head], i, nEngaged[i], lean);
// 手先がある領域にきたら実行
// ボタンのような
// 現状、複数人が認識されても実行するので、本来は最初に認識された一人のみにする必要がある。
float xy[2] = { 0.0 };
if (!m_bSemaphore)
{
if (m_pSemaphore[0])
{
delete m_pSemaphore[0];
m_pSemaphore[0] = NULL;
}
if (m_pSemaphore[1])
{
delete m_pSemaphore[1];
m_pSemaphore[1] = NULL;
}
m_nButton = 1;
xy[0] = jointPoints[JointType_HandTipRight].x - start.x;
xy[1] = jointPoints[JointType_HandTipRight].y - start.y;
if (sqrt( xy[0]*xy[0] + xy[1]*xy[1] ) < 100.0 )
{
if (nTrackBody == 10 || nTrackBody == nBodyIndex)
{
m_nButton = 0;
nTrackBody = nBodyIndex;
}
}
}
else
{
// 手旗スタート
// 手旗判定
if (m_pSemaphore[0] == NULL)
{
m_pSemaphore[0] = new Semaphore( &nBodyIndex );
}
else
{
if (m_pSemaphore[1] == NULL && !m_pSemaphore[0]->ItsMe(&nBodyIndex))
{
m_pSemaphore[1] = new Semaphore(&nBodyIndex);
}
}
// カウント
// 基本ポーズでのデータ取得
// 手旗本番処理
// 手旗の判定に画像と同等のフレームは必要はないのでは。
// タイマーでBodyフレームを取得し、それで手旗判定を行う。
if (m_pSemaphore[0])
{
m_pSemaphore[0]->SetSignalType(&nBodyIndex, jointPoints, m_pDrawColor);
}
if (m_pSemaphore[1])
{
m_pSemaphore[1]->SetSignalType(&nBodyIndex, jointPoints, m_pDrawColor);
}
//m_pSemaphore[0]->Practice(nTime, jointPoints, m_pDrawColor);
// quitボタン処理
m_nButton = 2;
// 基本ポーズ用の表示
xy[0] = jointPoints[JointType_HandTipLeft].x - quit.x;
xy[1] = jointPoints[JointType_HandTipLeft].y - quit.y;
if (sqrt( xy[0]*xy[0] + xy[1]*xy[1] ) < 100.0 )
{
if (nTrackBody == 10 || nTrackBody == nBodyIndex)
{
m_nButton = 0;
nTrackBody = nBodyIndex;
}
}
}
m_pDrawColor->DrawBody(joints, jointPoints);
//m_pDrawColor->DrawHand(leftHandState, jointPoints[JointType_HandLeft]);
//m_pDrawColor->DrawHand(rightHandState, jointPoints[JointType_HandRight]);
Detect(pBody);
//break;
}
}
}
}
if (!m_bSemaphore)
{
// このボタン処理でウィンドウにメッセージを送っている
m_pDrawColor->DrawButton(start, m_nButton);
}
else
{
m_pDrawColor->DrawButton(quit, m_nButton);
}
// 二人対戦モードのお題表示
if (Question(nTime))
{
m_pDrawColor->DrawButton(quit, 0);
}
m_pDrawColor->EndDraw();
}
}
}