void Engine::init_scene() {
Node* scene = nodes["scene"] = new Node(NULL);
// shaders //
// "simple_shader"
shaders["simple_shader"] = make_shader("shaders/p_v.glsl",
"shaders/unicolor_f.glsl");
// "light1"
{
Shader* shader = shaders["light1"] =
make_shader("shaders/pn_v.glsl", "shaders/light1_f.glsl");
// TODO put uniforms in "material"-class or something?
set_uniform(shader, "mycolor", glm::vec4(1.f));
set_uniform(shader, "ambient_intensity", glm::vec4(.1f,.1f,.1f,1.f));
set_uniform(shader, "diffuse_color", glm::vec4(.5f,.5f,.5f,1.f));
set_uniform(shader, "specular_color", glm::vec4(1.f,1.f,1.f,1.f));
set_uniform(shader, "atten_k", .04f);
set_uniform(shader, "gauss_k", .1f);
}
// objects //
// grid
{
Shader* shader = shaders["simple_shader"];
Node* node = nodes["grid"] = new Node(scene);
int no = 5;
glm::vec3 scale = glm::vec3(20.f);
VAO* vao = create_grid(no, scale);
std::vector<Uniform*> material;
glm::vec4 white = glm::vec4(1.f);
StoredUniform<glm::vec4>* mycolor =
new StoredUniform<glm::vec4>(shader, "mycolor", white);
material.push_back(mycolor);
renderables.push_back(
new BasicRenderObject(shader, node, vao, material));
// mem
vaos.push_back(vao);
uniforms.push_back(mycolor);
}
// redcube
{
Shader* shader = shaders["light1"];
Node* node = nodes["redcube"] = new Node(scene);
node->position = glm::vec3(.5f,.5f,-1.7f);
glm::vec3 scale = glm::vec3(.05f);
VAO* vao = create_cube_with_normals(scale);
std::vector<Uniform*> material;
glm::vec4 red = glm::vec4(1.f,0.f,.5f,1.f);
StoredUniform<glm::vec4>* mycolor =
new StoredUniform<glm::vec4>(shader, "mycolor", red);
material.push_back(mycolor);
renderables.push_back(
new LitRenderObject(shader, node, vao, material));
// physics
btCollisionShape* cube_shape = new btBoxShape(from_vec3(scale/2.f));
float mass = 0.f;
redcube_rb = create_rigid_body(mass, node, cube_shape);
physics->add_rigid_body(redcube_rb);
// mem
vaos.push_back(vao);
uniforms.push_back(mycolor);
collision_shapes.push_back(cube_shape);
}
make_litcube("cyancube",
glm::vec4(0.f, 1.f, 1.f, 1.f),
glm::vec3(0.05f));
nodes["cyancube"]->orientation =
glm::angleAxis(glm::radians(45.f),
glm::normalize(glm::vec3(-1.f, 1.f, 1.f)));
make_litcube("yellowcube",
glm::vec4(1.f, 1.f, 0.f, 1.f),
glm::vec3(0.05f));
nodes["yellowcube"]->orientation = nodes["cyancube"]->orientation;
make_litcube("bluecube",
glm::vec4(0.f, 0.f, 1.f, 1.f),
glm::vec3(1.f),
30.f,
glm::vec3(0.f, 1.5f, -5.f));
// lightcube
{
Shader* shader = shaders["simple_shader"];
Node* node = nodes["lightcube"] = new Node(scene);
node->position = glm::vec3(0.f, 1.f, 0.f);
glm::vec3 scale = glm::vec3(.3f,.3f,.3f);
VAO* vao = create_cube(scale);
std::vector<Uniform*> material;
glm::vec4 white = glm::vec4(1.f,1.f,1.f,1.f);
StoredUniform<glm::vec4>* mycolor =
new StoredUniform<glm::vec4>(shader, "mycolor", white);
material.push_back(mycolor);
renderables.push_back(
new BasicRenderObject(shader, node, vao, material));
// sync point light with position
PointLight light0(node, glm::vec4(.7f,.7f,.7f,1.f));
set_uniform(shaders["light1"], "light.position",
glm::vec3(light0.get_position()));
set_uniform(shaders["light1"], "light.intensity",
light0.get_intensity());
// mem
vaos.push_back(vao);
uniforms.push_back(mycolor);
}
// plane
{
Shader* shader = shaders["light1"];
Node* node = nodes["plane"] = new Node(scene);
node->position = glm::vec3(0.f, -.5f, 0.f);
glm::vec3 scale = glm::vec3(20.f, 1.f, 20.f);
VAO* vao = create_cube_with_normals(scale);
std::vector<Uniform*> material;
glm::vec4 goldish = glm::vec4(1.f,1.f,0.f,1.f);
StoredUniform<glm::vec4>* mycolor =
new StoredUniform<glm::vec4>(shader, "mycolor", goldish);
material.push_back(mycolor);
renderables.push_back(
new LitRenderObject(shader, node, vao, material));
// physics
btCollisionShape* shape = new btBoxShape(from_vec3(scale/2.f));
float mass = 0.f;
btRigidBody* rigid_body = create_rigid_body(mass, node, shape);
physics->add_rigid_body(rigid_body);
// mem
uniforms.push_back(mycolor);
vaos.push_back(vao);
collision_shapes.push_back(shape);
}
// bound
{
Shader* shader = shaders["light1"];
Node* node = nodes["bound"] = new Node(scene);
glm::vec3 scale = glm::vec3(20.f);
bool face_inward = true;
VAO* vao = create_cube_with_normals(scale, face_inward);
std::vector<Uniform*> material;
glm::vec4 greenblueish = glm::vec4(0.f,1.f,1.f,1.f);
StoredUniform<glm::vec4>* mycolor =
new StoredUniform<glm::vec4>(shader, "mycolor", greenblueish);
material.push_back(mycolor);
renderables.push_back(
new LitRenderObject(shader, node, vao, material));
// mem
vaos.push_back(vao);
uniforms.push_back(mycolor);
}
// roboarm
{
nodes["roboarm0"] = new Node(scene);
nodes["roboarm1"] = new Node(scene);
nodes["roboarm2"] = new Node(scene);
nodes["roboarm3"] = new Node(scene);
glm::vec3 scale = glm::vec3(0.1f, 0.4f, 0.1f);
nodes["roboarm0"]->position = glm::vec3(0.f, 1.f, -2.f);
//nodes["roboarm0"]->orientation =
// glm::angleAxis(glm::radians(180.f), glm::vec3(1.f, 0.f, 0.f));
nodes["roboarm1"]->position = nodes["roboarm0"]->position +
nodes["roboarm0"]->orientation * glm::vec3(0.f, scale.y, 0.f);
nodes["roboarm1"]->orientation = nodes["roboarm0"]->orientation;
nodes["roboarm2"]->position = nodes["roboarm1"]->position +
nodes["roboarm1"]->orientation * glm::vec3(0.f, scale.y, 0.f);
nodes["roboarm2"]->orientation = nodes["roboarm1"]->orientation;
nodes["roboarm3"]->position = nodes["roboarm2"]->position +
nodes["roboarm2"]->orientation * glm::vec3(0.f, scale.y, 0.f);
nodes["roboarm3"]->orientation = nodes["roboarm2"]->orientation;
// render
{
Shader* shader = shaders["light1"];
glm::vec4 black = glm::vec4(0.f,0.f,0.f,1.f);
StoredUniform<glm::vec4>* mycolor =
new StoredUniform<glm::vec4>(shader, "mycolor", black);
std::vector<Uniform*> material;
material.push_back(mycolor);
// TODO use rounder shapes...
VAO* vao = create_cube_with_normals(scale);
auto make_renderable =
[&shader, &material, &vao] (Node* node) {
return new LitRenderObject(shader, node, vao, material);
};
renderables.insert(renderables.end(),
{
make_renderable(nodes["roboarm0"]),
make_renderable(nodes["roboarm1"]),
make_renderable(nodes["roboarm2"]),
make_renderable(nodes["roboarm3"]),
}
);
// mem
uniforms.push_back(mycolor);
vaos.push_back(vao);
}
btCollisionShape *shape = new btBoxShape(from_vec3(scale/2.f));
float density = 1000.f,
volume = scale.x * scale.y * scale.z,
mass = density * volume;
// mem
collision_shapes.push_back(shape);
btRigidBody *rb0 = create_rigid_body(0.f, nodes["roboarm0"], shape),
*rb1 = create_rigid_body(mass, nodes["roboarm1"], shape),
*rb2 = create_rigid_body(mass, nodes["roboarm2"], shape),
*rb3 = create_rigid_body(mass, nodes["roboarm3"], shape);
rb1->setActivationState(DISABLE_DEACTIVATION);
rb2->setActivationState(DISABLE_DEACTIVATION);
rb3->setActivationState(DISABLE_DEACTIVATION);
physics->add_rigid_body(rb0);
physics->add_rigid_body(rb1);
physics->add_rigid_body(rb2);
physics->add_rigid_body(rb3);
btMatrix3x3 rot;
rot.setIdentity();
btTransform trans_up(rot, btVector3(0.f, scale.y/2, 0.f)),
trans_down(rot, btVector3(0.f, -scale.y/2, 0.f));
rc1 = new btHingeConstraint(*rb0, *rb1,
trans_up, trans_down);
rc2 = new btHingeConstraint(*rb1, *rb2,
trans_up, trans_down);
rc3 = new btHingeConstraint(*rb2, *rb3,
trans_up, trans_down);
float pi = glm::pi<float>();
rc1->setLimit(-pi/2, pi/2);
rc2->setLimit(-pi/2, pi/2);
rc3->setLimit(-pi/2, pi/2);
bool intercollision = false;
physics->add_constraint(rc1, intercollision);
physics->add_constraint(rc2, intercollision);
physics->add_constraint(rc3, intercollision);
roboarm0 = new KinematicChain(nullptr, rb0, nullptr);
roboarm1 = new KinematicChain(roboarm0, rb1, rc1);
roboarm2 = new KinematicChain(roboarm1, rb2, rc2);
roboarm3 = new KinematicChain(roboarm2, rb3, rc3);
}
}
static int wlan_trans_thread(void *data)
{
int i, vif_id, ret, done, retry, sem_count, send_pkt, index, wake_flag,
gpio_status;
rxfifo_t *rx_fifo;
txfifo_t *tx_fifo;
wlan_vif_t *vif;
sdio_chn_t *tx_chn;
sdio_chn_t *rx_chn;
unsigned short status;
wlan_thread_t *thread;
u32 rx_gpio;
thread = &(g_wlan.wlan_trans);
sdiodev_readchn_init(8, (void *)wlan_rx_chn_isr, 1);
sdiodev_readchn_init(9, (void *)wlan_rx_chn_isr, 1);
rx_chn = &(g_wlan.hw.sdio_rx_chn);
tx_chn = &(g_wlan.hw.sdio_tx_chn);
rx_fifo = &(g_wlan.rxfifo);
rx_gpio = g_wlan.hw.rx_gpio;
up(&(g_wlan.sync.sem));
printke("%s enter\n", __func__);
thread->null_run = 0;
thread->max_null_run = 100;
thread->idle_sleep = 400;
thread->prio = 90;
wake_flag = 0;
thread_sched_policy(thread);
trans_down();
do {
thread_sleep_policy(thread);
send_pkt = retry = done = 0;
sem_count = g_wlan.wlan_trans.sem.count;
/*
if (0 == wake_flag)
{
wake_lock(&g_wlan.hw.wlan_lock);
wake_flag = 1;
}
*/
RX:
gpio_status = gpio_get_value(rx_gpio);
if (!gpio_status) {
if (true == rx_chn->gpio_high) {
rx_chn->gpio_high = false;
rx_chn->timeout_flag = false;
}
goto TX;
} else {
if (false == rx_chn->gpio_high) {
rx_chn->gpio_high = true;
}
}
wlan_wakeup();
ret = set_marlin_wakeup(0, 1);
#if 0
if (0 != ret) {
printke("rx call set_marlin_wakeup error:%d\n", ret);
if (ret != -ETIMEDOUT)
msleep(200);
goto TX;
}
#endif
if (0 != ret) {
if( (ITM_NONE_MODE != g_wlan.netif[0].mode) || (ITM_NONE_MODE != g_wlan.netif[1].mode) )
{
if(-2 != ret)
{
printke("rx call set_marlin_wakeup return:%d:%d\n", ret);
msleep(200);
goto TX;
}
}
else
{
printke("rx retry open wlan\n", ret);
msleep(200);
goto TX;
}
}
ret = sdio_chn_status(rx_chn->bit_map, &status);
if (0 != ret) {
printke("rx call sdio_chn_status error:%d\n", ret);
goto RX_SLEEP;
}
index = check_valid_chn(1, status, rx_chn);
if (index < 0) {
RX_SLEEP:
if (false == rx_chn->timeout_flag) {
rx_chn->timeout_flag = true;
rx_chn->timeout =
jiffies +
msecs_to_jiffies(rx_chn->timeout_time);
} else {
if (time_after(jiffies, rx_chn->timeout)) {
printke
("[SDIO_RX_CHN][TIMEOUT][%lu] jiffies:%lu\n",
rx_chn->timeout_time, jiffies);
msleep(300);
rx_chn->timeout_flag = false;
}
}
goto TX;
}
if (true == rx_chn->timeout_flag) {
rx_chn->timeout_flag = false;
}
if (14 == index) {
mdbg_sdio_read();
goto TX;
}
if (11 == index) {
mdbg_at_cmd_read();
goto TX;
}
if (15 == index) {
mdbg_loopcheck_read();
goto TX;
}
ret = rx_fifo_in(index, rx_fifo, hw_rx);
if (OK != ret) {
if (HW_READ_ERROR == ret)
msleep(100);
retry++;
goto TX;
}
g_wlan.wlan_core.need_rx++;
core_up();
TX:
for (vif_id = NETIF_0_ID; vif_id < WLAN_MAX_ID; vif_id++) {
vif = &(g_wlan.netif[vif_id]);
tx_fifo = &(vif->txfifo);
ret = tx_fifo_used(tx_fifo);
if (0 == ret)
continue;
wlan_wakeup();
ret = set_marlin_wakeup(0, 1);
#if 0
if (0 != ret) {
printke("tx call set_marlin_wakeup error:%d\n",
ret);
if (ret != -ETIMEDOUT)
msleep(200);
retry++;
continue;
}
#endif
if (0 != ret) {
if( (ITM_NONE_MODE != g_wlan.netif[0].mode) || (ITM_NONE_MODE != g_wlan.netif[1].mode) )
{
// -2: means bt ack high
if(-2 != ret){
printke("tx call set_marlin_wakeup return:%d\n", ret);
msleep(200);
retry++;
continue;
}
}else{
printke("tx retry open wlan\n");
msleep(300);
retry++;
continue;
}
}
ret = sdio_chn_status(tx_chn->bit_map, &status);
if (ret) {
printke("tx call sdio_chn_status error:%d\n",
ret);
goto TX_SLEEP;
}
index = check_valid_chn(0, status, tx_chn);
if (index < 0) {
TX_SLEEP:
if (false == tx_chn->timeout_flag) {
tx_chn->timeout_flag = true;
tx_chn->timeout =
jiffies +
msecs_to_jiffies(tx_chn->
timeout_time);
} else {
if (time_after
(jiffies, tx_chn->timeout)) {
printke
("[SDIO_TX_CHN][TIMEOUT][%lu] jiffies:%lu\n",
tx_chn->timeout_time,
jiffies);
msleep(300);
tx_chn->timeout_flag = false;
}
}
retry++;
continue;
}
if (true == tx_chn->timeout_flag) {
tx_chn->timeout_flag = false;
}
ret =
tx_fifo_out(vif_id, index, tx_fifo, hw_tx,
&send_pkt);
if (OK != ret) {
if (HW_WRITE_ERROR == ret) {
msleep(100);
retry++;
}
continue;
}
done = done + send_pkt;
core_try_up();
}
if (g_wlan.sync.exit) {
/*
if(1 == wake_flag)
{
wake_unlock(&g_wlan.hw.wlan_lock);
wake_flag = 0;
}
*/
break;
}
gpio_status = gpio_get_value(rx_gpio);
if (gpio_status) {
if (g_wlan.wlan_trans.sem.count - done <= 1) {
done =
(g_wlan.wlan_trans.sem.count >
0) ? (g_wlan.wlan_trans.sem.count -
1) : (0);
}
} else {
if ((0 == done) && (0 == retry))
done = ((0 == sem_count) ? (1) : (sem_count));
}
if (done > 0)
thread->null_run = 0;
else
thread->null_run++;
wlan_sleep();
/*
if ((done >= g_wlan.wlan_trans.sem.count) && (wake_flag = 1) &&(!gpio_status) )
{
wake_unlock(&g_wlan.hw.wlan_lock);
wake_flag = 0;
}
*/
for (i = 0; i < done; i++) {
trans_down();
}
} while (!kthread_should_stop());
sdiodev_readchn_uninit(8);
sdiodev_readchn_uninit(9);
mdbg_sdio_read();
del_timer_sync(&(g_wlan.hw.wakeup_timer));
printke("%s exit\n", __func__);
up(&(g_wlan.sync.sem));
core_up();
return OK;
}
