// Return an angle between kMinProjectileAngularVelocity and
// kMaxProjectileAngularVelocity, in degrees. Returned angle has equal
// probibility of being positive and negative.
mathfu::vec3 PlayerComponent::RandomProjectileAngularVelocity() const {
const mathfu::vec3 random(mathfu::Random<float>(), mathfu::Random<float>(),
mathfu::Random<float>());
auto angle = mathfu::Lerp(
LoadVec3(config_->projectile_min_angular_velocity()),
LoadVec3(config_->projectile_max_angular_velocity()), random);
const mathfu::vec3 sign(RandomSign(), RandomSign(), RandomSign());
return angle * sign;
}
bool Hi::Load(File* f)
{
if (!f->GetInteger(&m_score))
{
return false;
}
if (!f->GetInteger(&m_level))
{
return false;
}
if (!f->GetInteger(&m_depth))
{
return false;
}
if (!f->GetDataLine(&m_nick))
{
return false;
}
m_nick = DecodeStr(m_nick);
if (!LoadVec3(f, &m_pos))
{
return false;
}
return true;
}
void WorldRenderer::CreateShadowMap(const corgi::CameraInterface& camera,
fplbase::Renderer& renderer, World* world) {
float shadow_map_resolution = static_cast<float>(
world->config->rendering_config()->shadow_map_resolution());
float shadow_map_zoom = world->config->rendering_config()->shadow_map_zoom();
float shadow_map_offset =
world->config->rendering_config()->shadow_map_offset();
vec3 light_position =
LoadVec3(world->config->rendering_config()->light_position());
SetLightPosition(light_position);
light_camera_.set_viewport_angle(kShadowMapViewportAngle / shadow_map_zoom);
light_camera_.set_viewport_resolution(
vec2(shadow_map_resolution, shadow_map_resolution));
vec3 light_camera_focus =
camera.position() + camera.facing() * shadow_map_offset;
light_camera_focus.z() = 0;
vec3 light_facing = light_camera_focus - light_camera_.position();
light_camera_.set_facing(light_facing.Normalized());
// Shadow map needs to be cleared to near-white, since that's
// the maximum (furthest) depth.
shadow_map_.SetAsRenderTarget();
renderer.ClearFrameBuffer(kShadowMapClearColor);
renderer.SetCulling(fplbase::Renderer::kCullBack);
depth_shader_->Set(renderer);
// Generate the shadow map:
// TODO - modify this so that shadowcast is its own render pass
for (int pass = 0; pass < corgi::RenderPass_Count; pass++) {
world->render_mesh_component.RenderPass(pass, light_camera_,
renderer, depth_shader_);
}
}
bool Block::Load(File* f)
{
if (!GameObject::Load(f))
{
return false;
}
// Load position
if (!LoadVec3(f, &m_pos))
{
f->ReportError("Expected block position");
return false;
}
// m_pos = m_pos * m_mat;
if (!LoadMeshResource(f))
{
f->ReportError("Failed to load block mesh");
return false;
}
if (!LoadShadow(f))
{
return false;
}
return true;
}
bool Treasure::Load(File* f)
{
static int id = TREASURE_START_ID;
SetId(id++);
Vec3f pos;
if (!LoadVec3(f, &pos))
{
f->ReportError("Expected position");
return false;
}
SetPos(pos);
std::string tex;
if (!f->GetDataLine(&tex))
{
f->ReportError("Expected texture filename");
return false;
}
Vec2i cells;
if (!LoadVec2(f, &cells))
{
f->ReportError("Expected num cells Vec2");
return false;
}
if (!f->GetInteger(&m_points))
{
f->ReportError("Expected num points");
return false;
}
// Only if player has not collected treasure in the current room
// before!
Player* p = GetLocalPlayer();
// Create scene node if no local player yet OR player exists and there is no treasure key for this room
if (!p || !(p->Exists(MakeTreasureKey())))
{
// Size depends on points value
float size = XSIZE * (float)m_points / 500.0f;
SpriteNode* sn = new SpriteNode(tex, cells.x, cells.y, size * 0.5f, size * 0.5f);
SetSceneNode(sn);
sn->GetSprite()->SetCellRange(0, cells.x * cells.y);
sn->GetSprite()->SetCell(0);
m_glow = new SpriteNode("flare.png", 1, 1, size, size);
sn->AddChild(m_glow.GetPtr());
File f;
if (!f.OpenRead("fighteffect.txt"))
{
f.ReportError("Failed to load effect");
Assert(0);
}
m_sparkle = new AttackEffect;
if (!m_sparkle->Load(&f))
{
f.ReportError("Failed to load effect");
Assert(0);
}
sn->AddChild(m_sparkle.GetPtr());
}
return true;
}
void SimpleMovementComponent::AddFromRawData(corgi::EntityRef& entity,
const void* raw_data) {
auto simple_movement_def = static_cast<const SimpleMovementDef*>(raw_data);
SimpleMovementData* simple_movement_data = AddEntity(entity);
simple_movement_data->velocity = LoadVec3(simple_movement_def->velocity());
}
bool Baddie::Load(File* f)
{
static int id = BADDDIE_START_ID;
SetId(id++);
Vec3f pos;
if (!LoadVec3(f, &pos))
{
f->ReportError("Expected position");
return false;
}
SetPos(pos);
std::string tex;
if (!f->GetDataLine(&tex))
{
f->ReportError("Expected texture filename");
return false;
}
Vec2i cells;
if (!LoadVec2(f, &cells))
{
f->ReportError("Expected num cells Vec2");
return false;
}
if (!LoadVec2(f, &m_size))
{
f->ReportError("Expected size Vec2");
return false;
}
BaddieNode* bn = new BaddieNode(this, tex, cells.x, cells.y, m_size.x * 0.5f, m_size.y * 0.5f);
// By default we just cycle through all cells
bn->GetSprite()->SetCellRange(0, cells.x * cells.y);
SetSceneNode(bn);
if (!f->GetInteger(&m_damage))
{
f->ReportError("Expected damage");
return false;
}
if (!f->GetInteger(&m_maxHealth))
{
f->ReportError("Expected max health");
return false;
}
if (m_maxHealth == -1)
{
m_maxHealth = 1;
m_isDestructible = false;
}
m_health = m_maxHealth;
if (!f->GetInteger(&m_points))
{
f->ReportError("Expected num points");
return false;
}
if (!f->GetDataLine(&m_attackString))
{
f->ReportError("Expected baddie attack string");
return false;
}
std::string bb;
if (!f->GetDataLine(&bb))
{
f->ReportError("Expected baddie behaviour type");
return false;
}
m_bb = TheBBFactory::Instance()->Create(bb);
if (m_bb)
{
m_bb->SetBaddie(this);
if (!m_bb->Load(f))
{
f->ReportError("Failed to load baddie behaviour");
return false;
}
}
/*
if (!m_shadow->Load(f))
{
return false;
}
*/
// Particle effect when attacked, etc.
File fight;
if (!fight.OpenRead("fighteffect.txt"))
{
fight.ReportError("Failed to load effect");
return false;
}
m_effect = new AttackEffect;
if (!m_effect->Load(&fight))
{
fight.ReportError("Failed to load effect");
return false;
}
m_effect->SetVisible(true);
m_sceneNode->AddChild(m_effect.GetPtr());
return true;
}
