static void handle_events() { int screen_domain = screen_get_domain(); int navigator_domain = navigator_get_domain(); int sensor_domain = sensor_get_domain(); int rc; //Request and process available BPS events for(;;) { bps_event_t *event = NULL; rc = bps_get_event(&event, 0); assert(rc == BPS_SUCCESS); if (event) { int domain = bps_event_get_domain(event); if (domain == screen_domain) { handleScreenEvent(event); } else if (domain == navigator_domain) { handleNavigatorEvent(event); } else if (domain == sensor_domain) { handleSensorEvent(event); } } else { //No more events in the queue break; } } }
static void handleEvents() { int domain; // Get the first event in the queue. bps_event_t *event = NULL; if (BPS_SUCCESS != bps_get_event(&event, 0)) { fprintf(stderr, "bps_get_event() failed\n"); return; } // Handle all events in the queue. // If we don't do this in a loop, we'll only handle one event per frame. // If many events are triggered quickly, e.g. by spinning the analog sticks, // the queue will grow and the user will see the analog sticks lag. while (event) { if (event) { domain = bps_event_get_domain(event); if (domain == navigator_get_domain()) { handleNavigatorEvent(event); } else if (domain == screen_get_domain()) { handleScreenEvent(event); } } if (BPS_SUCCESS != bps_get_event(&event, 0)) { fprintf(stderr, "bps_get_event() failed\n"); return; } } }
void handleEvent() { //Request and process BPS next available event int rc, domain; for (;;) { bps_event_t *event = NULL; rc = bps_get_event(&event, 0); assert(rc == BPS_SUCCESS); if (event) { int domain = bps_event_get_domain(event); if (domain == screen_get_domain()) { handleScreenEvent(event); } else if(domain == navigator_get_domain()) { handleNavigatorEvent(event); } else if (domain == dialog_get_domain()) { handle_dialog_response(event); } } else { break; } } }
static void handle_events() { //Request and process available BPS events for(;;) { bps_event_t *event = NULL; if (BPS_SUCCESS != bps_get_event(&event, 0)) { fprintf(stderr, "bps_get_event failed\n"); break; } if (event) { int domain = bps_event_get_domain(event); if (domain == screen_get_domain()) { handleScreenEvent(event); } else if (domain == navigator_get_domain()) { handleNavigatorEvent(event); } } else { break; } } }
int main(int argc, char *argv[]) { int rc; int exit_application = 0; static screen_context_t screen_cxt; //Create a screen context that will be used to create an EGL surface to to receive libscreen events screen_create_context(&screen_cxt, 0); //Initialize BPS library bps_initialize(); //Use utility code to initialize EGL in landscape orientation if (EXIT_SUCCESS != bbutil_init_egl(screen_cxt, GL_ES_1, LANDSCAPE)) { fprintf(stderr, "bbutil_init_egl failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Initialize application logic if (EXIT_SUCCESS != initialize()) { fprintf(stderr, "initialize failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Signal BPS library that navigator and screen events will be requested if (BPS_SUCCESS != screen_request_events(screen_cxt)) { fprintf(stderr, "screen_request_events failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } if (BPS_SUCCESS != navigator_request_events(0)) { fprintf(stderr, "navigator_request_events failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Signal BPS library that navigator orientation is not to be locked if (BPS_SUCCESS != navigator_rotation_lock(false)) { fprintf(stderr, "navigator_rotation_lock failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } while (!exit_application) { //Request and process BPS next available event bps_event_t *event = NULL; rc = bps_get_event(&event, 0); assert(rc == BPS_SUCCESS); if (event) { int domain = bps_event_get_domain(event); if (domain == screen_get_domain()) { handleScreenEvent(event); } else if ((domain == navigator_get_domain()) && (NAVIGATOR_EXIT == bps_event_get_code(event))) { exit_application = 1; } } render(); } //Stop requesting events from libscreen screen_stop_events(screen_cxt); //Shut down BPS library for this process bps_shutdown(); //Use utility code to terminate EGL setup bbutil_terminate(); //Destroy libscreen context screen_destroy_context(screen_cxt); return 0; }
int main(int argc, char *argv[]) { int exit_application = 0; int rc; //Create a screen context that will be used to create an EGL surface to to receive libscreen events screen_create_context(&screen_cxt, 0); initGestures(); //Initialize BPS library bps_initialize(); //Use utility code to initialize EGL for 2D rendering with GL ES 1.1 if (EXIT_SUCCESS != bbutil_init_egl(screen_cxt, GL_ES_1, AUTO)) { fprintf(stderr, "bbutil_init_egl failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Initialize application logic if (EXIT_SUCCESS != initialize()) { fprintf(stderr, "initialize failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Signal BPS library that navigator and screen events will be requested if (BPS_SUCCESS != screen_request_events(screen_cxt)) { fprintf(stderr, "screen_request_events failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } if (BPS_SUCCESS != navigator_request_events(0)) { fprintf(stderr, "navigator_request_events failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Signal BPS library that navigator orientation is not to be locked if (BPS_SUCCESS != navigator_rotation_lock(false)) { fprintf(stderr, "navigator_rotation_lock failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } // set up our box2D tests fprintf(stderr, "Box2D Version %d.%d.%d\n", b2_version.major, b2_version.minor, b2_version.revision); testCount = 0; while (g_testEntries[testCount].createFcn != NULL) { ++testCount; } testIndex = b2Clamp(testIndex, 0, testCount-1); testSelection = testIndex; entry = g_testEntries + testIndex; test = entry->createFcn(); test->m_debugDraw.SetFont(font); test->m_debugDraw.SetScreenSize(width, height); struct timespec time_struct; clock_gettime(CLOCK_REALTIME, &time_struct); long update_time = time2millis(&time_struct); long current_time, last_time; #ifdef FPS int frames = 0; last_time = update_time; #endif for (;;) { //Request and process BPS next available event bps_event_t *event = NULL; rc = bps_get_event(&event, 1); assert(rc == BPS_SUCCESS); if (event) { int domain = bps_event_get_domain(event); if (domain == screen_get_domain()) { handleScreenEvent(event); } else if ((domain == navigator_get_domain()) && (NAVIGATOR_EXIT == bps_event_get_code(event))) { exit_application = 1; } } clock_gettime(CLOCK_REALTIME, &time_struct); current_time = time2millis(&time_struct); if ((current_time - update_time) > framePeriod) { update_time = current_time; render(); #ifdef FPS frames++; #endif } else { sleep(0); } #ifdef FPS if (current_time - last_time > 1000) { fprintf(stderr, "fps: %d\n", frames); frames = 0; last_time = current_time; } #endif if (exit_application) break; } // clean up gestures gesturesCleanup(); //Stop requesting events from libscreen screen_stop_events(screen_cxt); //Shut down BPS library for this process bps_shutdown(); //Destroy the font bbutil_destroy_font(font); //Use utility code to terminate EGL setup bbutil_terminate(); //Destroy libscreen context screen_destroy_context(screen_cxt); return 0; }
int main(int argc, char *argv[]) { int exit_application = 0; screen_context_t screen_cxt; //Create a screen context that will be used to create an EGL surface to to receive libscreen events screen_create_context(&screen_cxt,0); //Use utility code to initialize EGL for 2D rendering with GL ES 1.1 if (EXIT_SUCCESS != bbutil_init(screen_cxt, GL_ES_1)) { bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Initialize app data initialize(); //Initialize BPS library bps_initialize(); //Signal BPS library that navigator, screen, and keyboard events will be requested screen_request_events(screen_cxt); navigator_request_events(0); virtualkeyboard_request_events(0); virtualkeyboard_show(); for (;;) { //Request and process BPS next available event bps_event_t *event = NULL; if (bps_get_event(&event, 0) != BPS_SUCCESS) return EXIT_FAILURE; if (event) { int domain = bps_event_get_domain(event); if (domain == screen_get_domain()) { handleScreenEvent(event); } else if ((domain == navigator_get_domain()) && (NAVIGATOR_EXIT == bps_event_get_code(event))) { exit_application = 1; } } if (exit_application) { break; } render(); } //Stop requesting events from libscreen screen_stop_events(screen_cxt); //Shut down BPS library for this process bps_shutdown(); //Use utility code to terminate EGL setup bbutil_terminate(); //Destroy libscreen context screen_destroy_context(screen_cxt); return 0; }
int main(int argc, char *argv[]) { int rc; int exit_application = 0; //Create a screen context that will be used to create an EGL surface to to receive libscreen events screen_create_context(&screen_cxt, 0); //Initialize BPS library bps_initialize(); //Use utility code to initialize EGL for rendering with GL ES 2.0 if (EXIT_SUCCESS != bbutil_init_egl(screen_cxt)) { fprintf(stderr, "bbutil_init_egl failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); return 0; } //Initialize application logic osg::setNotifyLevel(osg::DEBUG_INFO); // node: interesting geometry CTMcontext cContext; CTMuint vertCount,triCount; CTMuint const * indices; CTMfloat const * vertices; CTMfloat const * normals; cContext = ctmNewContext(CTM_IMPORT); ctmLoad(cContext,"app/native/models/cow.ctm"); if(ctmGetError(cContext) == CTM_NONE) { // access the mesh data vertCount = ctmGetInteger(cContext, CTM_VERTEX_COUNT); vertices = ctmGetFloatArray(cContext, CTM_VERTICES); triCount = ctmGetInteger(cContext, CTM_TRIANGLE_COUNT); indices = ctmGetIntegerArray(cContext, CTM_INDICES); std::cout << "# Mesh has " << vertCount << " vertices\n"; std::cout << "# Mesh has " << triCount << " triangles\n"; } else { std::cout << "Error Reading CTM File!" << std::endl; return -1; } // build up openscenegraph geometry osg::ref_ptr<osg::Vec3Array> listVxArray = new osg::Vec3Array(vertCount); unsigned int vxIdx=0; for(int i=0; i < listVxArray->size(); i++) { osg::Vec3 vertex; vertex.x() = vertices[vxIdx]; vxIdx++; vertex.y() = vertices[vxIdx]; vxIdx++; vertex.z() = vertices[vxIdx]; vxIdx++; listVxArray->at(i) = vertex; } osg::ref_ptr<osg::DrawElementsUInt> listIdxs = new osg::DrawElementsUInt(GL_TRIANGLES,triCount*3); for(int i=0; i < listIdxs->size(); i++) { listIdxs->at(i) = indices[i]; } osg::ref_ptr<osg::Geometry> geomMesh = new osg::Geometry; geomMesh->setVertexArray(listVxArray.get()); geomMesh->addPrimitiveSet(listIdxs.get()); osgUtil::SmoothingVisitor::smooth(*geomMesh); osg::ref_ptr<osg::Geode> geodeMesh = new osg::Geode; geodeMesh->addDrawable(geomMesh.get()); osg::ref_ptr<osg::Group> groupRoot = new osg::Group; groupRoot->addChild(geodeMesh.get()); // free ctm memory ctmFreeContext(cContext); // shader osg::StateSet *ss = geodeMesh->getOrCreateStateSet(); osg::ref_ptr<osg::Program> program = new osg::Program; program->setName( "simpleshader" ); program->addShader( new osg::Shader( osg::Shader::VERTEX, gVertexShader ) ); program->addShader( new osg::Shader( osg::Shader::FRAGMENT, gFragmentShader ) ); ss->setAttributeAndModes(program, osg::StateAttribute::ON); // ss->setMode(GL_DEPTH_TEST,osg::StateAttribute::ON); // ss->setAttributeAndModes(new osg::CullFace(osg::CullFace::FRONT), osg::StateAttribute::OFF); // ss->setAttributeAndModes(new osg::CullFace(osg::CullFace::BACK), osg::StateAttribute::ON); // rotate that cube osg::ref_ptr<osg::MatrixTransform> nodeSpin = new osg::MatrixTransform; nodeSpin->addChild(geodeMesh.get()); nodeSpin->addUpdateCallback(new osg::AnimationPathCallback(osg::Vec3(0,0,0), osg::Y_AXIS, osg::inDegrees(45.0f))); // node: root osg::ref_ptr<osg::Group> nodeRoot = new osg::Group; nodeRoot->addChild(nodeSpin.get()); // center point osg::BoundingBox modelBounds = geodeMesh->getBoundingBox(); // viewer osgViewer::Viewer myViewer; myViewer.setSceneData(nodeRoot.get()); myViewer.getCamera()->setViewMatrixAsLookAt(osg::Vec3((modelBounds.xMax()-modelBounds.xMin())*2, (modelBounds.yMax()-modelBounds.yMin())*2, (modelBounds.zMax()-modelBounds.zMin())*2), modelBounds.center(), osg::Vec3(0,1,0)); // graphics window embedded osg::ref_ptr<osgViewer::GraphicsWindowEmbedded> myWindow = new osgViewer::GraphicsWindowEmbedded(0,0,1024,600); myWindow->getState()->setUseModelViewAndProjectionUniforms(true); myWindow->getState()->setUseVertexAttributeAliasing(true); // setup viewer myViewer.getCamera()->setViewport(new osg::Viewport(0,0,1024,600)); myViewer.getCamera()->setGraphicsContext(myWindow.get()); myViewer.setThreadingModel(osgViewer::Viewer::SingleThreaded); //Signal BPS library that navigator and screen events will be requested if (BPS_SUCCESS != screen_request_events(screen_cxt)) { fprintf(stderr, "screen_request_events failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); bps_shutdown(); return 0; } if (BPS_SUCCESS != navigator_request_events(0)) { fprintf(stderr, "navigator_request_events failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); bps_shutdown(); return 0; } //Signal BPS library that navigator orientation is not to be locked if (BPS_SUCCESS != navigator_rotation_lock(false)) { fprintf(stderr, "navigator_rotation_lock failed\n"); bbutil_terminate(); screen_destroy_context(screen_cxt); bps_shutdown(); return 0; } while (!exit_application) { //Request and process all available BPS events bps_event_t *event = NULL; for(;;) { rc = bps_get_event(&event, 0); assert(rc == BPS_SUCCESS); if (event) { int domain = bps_event_get_domain(event); if (domain == screen_get_domain()) { handleScreenEvent(event); } else if ((domain == navigator_get_domain()) && (NAVIGATOR_EXIT == bps_event_get_code(event))) { exit_application = 1; } } else { break; } } myViewer.frame(); bbutil_swap(); } //Stop requesting events from libscreen screen_stop_events(screen_cxt); //Shut down BPS library for this process bps_shutdown(); //Use utility code to terminate EGL setup bbutil_terminate(); //Destroy libscreen context screen_destroy_context(screen_cxt); return 0; }