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source: trunk/orbital/Lolnament.h @ 1512
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Last change on this file since 1512 was 1512, checked in by sam, 11 years ago
build: fix the PS3 port by using our trig.h everywhere instead of stdlib functions; also remove a lot of idiotic "using namespace std" from the codebase.
File size: 13.0 KB

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1	//
2	// Orbital
3	//
4	// Copyright: (c) 2012 Benjamin Huet <huet.benjamin@gmail.com>
5	// (c) 2012 Sam Hocevar <sam@hocevar.net>
6	//
7
8	#if !defined __LOLNAMENT_H__
9	#define __LOLNAMENT_H__
10
11	#define DEF_X 30
12	#define DEF_Y 1
13	#define DEF_Z 30
14	#define DEF_SIZE 10
15	#define DEF_INF_BLEND 50
16	#define DEF_INF_MAX 30
17
18	struct work_infos
19	{
20	work_infos()
21	{
22	m_pos = vec3(0,0,0);
23	m_rot = vec3(0,0,0);
24	m_scale = 0.0f;
25	m_scale_3d = vec3(0,0,0);
26	m_damp_up = 0.0f;
27	m_damp_down = 0.0f;
28	}
29	work_infos(vec3 offset_pos, vec3 offset_rot, float offset_scale, vec3 offset_scale_3d, float damp_up, float damp_down)
30	{
31	m_pos = offset_pos;
32	m_rot = offset_rot;
33	m_scale = offset_scale;
34	m_scale_3d = offset_scale_3d;
35	m_damp_up = damp_up;
36	m_damp_down = damp_down;
37	}
38
39	vec3 m_pos;
40	vec3 m_rot;
41	float m_scale;
42	vec3 m_scale_3d;
43	float m_damp_up;
44	float m_damp_down;
45	};
46
47	struct point_infos_Part
48	{
49	point_infos_Part(int useage_index, vec3 offset_pos, vec3 offset_rot, float offset_scale=.0f, vec3 offset_scale_3d=vec3(.0f), float damp_up=.0f, float damp_down=.0f)
50	{
51	m_useage = useage_index;
52	m_point_infos =work_infos(offset_pos, offset_rot, offset_scale, offset_scale_3d, damp_up, damp_down);
53	}
54
55	int m_useage;
56	work_infos m_point_infos;
57	};
58
59	#define BLD_SPHERE 0 //influence is calculated as a sphere interpolation
60	#define BLD_SQUARE 1 //influence is calculated as a max of each vec3() component
61
62	struct influencing_point_infos
63	{
64	influencing_point_infos(int useage, vec3 position, float blend)
65	{
66	m_useage = useage;
67	m_position = position;
68	m_blend = blend;
69	}
70
71	int m_useage;
72	vec3 m_position;
73	float m_blend;
74	};
75
76	struct transient_infos
77	{
78	transient_infos(int point_id, vec3 base_pos, vec3 base_rot=vec3(0.0f, 0.0f, 0.0f), float base_scale=1.0f, vec3 base_scale_3d=vec3(1.0f, 1.0f, 1.0f), int random_number=0)
79	: m_influence(0.0f),
80	m_influence_previous(0.0f)
81	{
82	m_point_id = point_id;
83
84	m_base_pos = base_pos;
85	m_base_rot = base_rot;
86	m_base_scale = base_scale;
87	m_base_scale_3d = base_scale_3d;
88
89	m_final_pos = base_pos;
90	m_final_rot = base_rot;
91	m_final_scale = base_scale;
92	m_final_scale_3d = base_scale_3d;
93
94	for (; random_number > 0; random_number--)
95	random_list << work_infos(vec3(RandF(), RandF(), RandF()), vec3(RandF(), RandF(), RandF()), RandF(), vec3(RandF(), RandF(), RandF()), RandF(), RandF());
96	};
97
98	int m_point_id;
99
100	vec3 m_base_pos;
101	vec3 m_base_rot;
102	float m_base_scale;
103	vec3 m_base_scale_3d;
104
105	float m_influence_previous;
106	float m_influence;
107
108	vec3 m_final_pos;
109	vec3 m_final_rot;
110	float m_final_scale;
111	vec3 m_final_scale_3d;
112
113	Array<work_infos> random_list;
114	};
115
116	#define INF_DEFAULT 0 //Basic Blend
117	#define INF_WAVE 1 //Blend with wave
118
119	#define OFF_DEF 0 //Reference offset
120	#define RND_MIN 1 //Minimum random offset
121	#define RND_MAX 2 //Maximum random offset
122	#define MAX_OFF 3 //Maximum offset slots
123
124	struct influence_infos
125	{
126	influence_infos(float step, const bool ignore_step_down=false, const bool ignore_step_up=false, const int method=INF_DEFAULT)
127	{
128	//Empty struct
129	memset(this, 0, sizeof(influence_infos));
130
131	m_step = clamp(step, 0.0f, 1.0f);
132	m_method = method;
133	m_ignore_step_up = ignore_step_up;
134	m_ignore_step_down = ignore_step_down;
135	};
136
137	inline influence_infos& operator<<(point_infos_Part const &added_part)
138	{
139	if (added_part.m_useage >= OFF_DEF && added_part.m_useage < MAX_OFF)
140	{
141	int i = added_part.m_useage;
142	m_offset_pos[i] = added_part.m_point_infos.m_pos;
143	m_offset_rot[i] = added_part.m_point_infos.m_rot;
144	m_offset_scale[i] = added_part.m_point_infos.m_scale;
145	m_offset_scale_3d[i] = added_part.m_point_infos.m_scale_3d;
146	m_damp_up[i] = added_part.m_point_infos.m_damp_up;
147	m_damp_down[i] = added_part.m_point_infos.m_damp_down;
148	}
149
150	return *this;
151	}
152
153	float m_step;
154	int m_method;
155	bool m_ignore_step_up;
156	bool m_ignore_step_down;
157
158	vec3 m_offset_pos[3];
159	vec3 m_offset_rot[3];
160	float m_offset_scale[3];
161	vec3 m_offset_scale_3d[3];
162	float m_damp_up[3];
163	float m_damp_down[3];
164	};
165
166	class Lolnament : public WorldEntity
167	{
168	public:
169	Lolnament()
170	: m_ready(false)
171	{
172	m_ref_mesh.Compile( "[sc#f80 afcb10 8 8 -1]"
173	"[sc#bbd afcb8 10 8 -1]"
174	"[sc#44d afcb8 8 10 -1]");
175
176	wave_angle = 0.0f;
177	debug_point_angle = 0.0f;
178
179	m_influence_list << (influence_infos(0.0f, false, false, INF_WAVE)
180	<< point_infos_Part(OFF_DEF, vec3(.0f), vec3(.0f), .0f, vec3(.0f), .0f, 1.2f));
181	//m_influence_list << (influence_infos(0.3f, true, false)
182	// << point_infos_Part(OFF_DEF, vec3(.0f, 40.0f, .0f), vec3(.0f, 90.0f, .0f)));
183	//m_influence_list << (influence_infos(0.7f, true, false)
184	// << point_infos_Part(OFF_DEF, vec3(.0f, 40.0f, .0f), vec3(.0f, 90.0f, .0f)));
185	m_influence_list << (influence_infos(1.0f)
186	<< point_infos_Part(OFF_DEF, vec3(.0f, 80.0f, .0f), vec3(.0f, .0f, 90.0f), .0f, vec3(2.0f, .0f, .0f), .0f, .2f)
187	/*
188	<< point_infos_Part(RND_MIN, vec3(-40.0f, .0f, -40.0f), vec3(.0f))
189	<< point_infos_Part(RND_MAX, vec3(40.0f, .0f, 40.0f), vec3(.0f))*/
190	);
191
192	vec3 default_offset = vec3((float)DEF_X, (float)DEF_Y, (float)DEF_Z) * (float)DEF_SIZE * 0.5f;
193	for (int z=0; z < DEF_Z; z++)
194	for (int y=0; y < DEF_Y; y++)
195	for (int x=0; x < DEF_X; x++)
196	m_point_list << transient_infos(m_point_list.Count(), vec3((float)x, (float)y, (float)z) * (float)DEF_SIZE - default_offset, vec3(0,0,0), 1.0f, vec3(1.0f), m_influence_list.Count());
197	}
198
199	~Lolnament()
200	{
201	}
202
203	char const *GetName() { return "<Lolnament>"; }
204
205	protected:
206	virtual void TickGame(float seconds)
207	{
208	WorldEntity::TickGame(seconds);
209
210	m_influence_point_list.Empty();
211
212	wave_angle += 3.0f * seconds;
213	debug_point_angle += 1.0f * seconds;
214
215	if (wave_angle > M_PI * 2.0f)
216	wave_angle -= M_PI * 2.0f;
217	if (debug_point_angle > M_PI * 2.0f)
218	debug_point_angle -= M_PI * 2.0f;
219
220	//m_influence_point_list << influencing_point_infos(BLD_SPHERE, vec3(cos(debug_point_angle) * DEF_X, 0, sin(debug_point_angle) * DEF_Z) * DEF_SIZE * 0.3f, 1.0f);
221	m_influence_point_list << influencing_point_infos(BLD_SQUARE, vec3(-cos(debug_point_angle) * DEF_X, 0, -sin(debug_point_angle) * DEF_Z) * DEF_SIZE * 0.3f, 1.0f);
222
223	ComputeInfluenceValues();
224
225	ComputePointFromInfluenceValues(seconds);
226	}
227
228	void ComputeInfluenceValues()
229	{
230	for (int i=0; i < m_point_list.Count(); i++)
231	{
232	m_point_list[i].m_influence_previous = m_point_list[i].m_influence;
233
234	float cur_blend = 0.0f;
235	for (int j=0; j < m_influence_point_list.Count(); j++)
236	{
237	float new_blend = 0.0f;
238	switch (m_influence_point_list[j].m_useage)
239	{
240	case BLD_SPHERE:
241	{
242	new_blend = 1.0f - min(1.0f, max(0.0f, length(m_point_list[i].m_base_pos - m_influence_point_list[j].m_position) - DEF_INF_MAX) / DEF_INF_BLEND);
243	break;
244	}
245	case BLD_SQUARE:
246	{
247	vec3 point_diff = m_point_list[i].m_base_pos - m_influence_point_list[j].m_position;
248	point_diff = vec3(std::abs(point_diff.x), std::abs(point_diff.y), std::abs(point_diff.z));
249
250	new_blend = min(1.0f - min(1.0f, max(0.0f, point_diff.z - DEF_INF_MAX) / DEF_INF_BLEND),
251	min(1.0f - min(1.0f, max(0.0f, point_diff.y - DEF_INF_MAX) / DEF_INF_BLEND),
252	1.0f - min(1.0f, max(0.0f, point_diff.x - DEF_INF_MAX) / DEF_INF_BLEND)));
253	break;
254	}
255	default:
256	{
257	break;
258	}
259	};
260
261	//cur_blend = max(cur_blend, 1.0f - min(1.0f, max(0.0f, length(m_point_list[i].m_base_pos - m_influence_point_list[j].m_position) - DEF_INF_MAX) / DEF_INF_BLEND));
262	cur_blend = max(cur_blend, new_blend);
263	}
264
265	m_point_list[i].m_influence = cur_blend;
266	}
267	}
268
269	void ComputePointFromInfluenceValues(float seconds)
270	{
271	for (int i=0; i < m_point_list.Count(); i++)
272	{
273	bool dir_influence_up = (m_point_list[i].m_influence - m_point_list[i].m_influence_previous > .0f)?(true):(false);
274
275	int info_a = 0;
276	int info_b = m_influence_list.Count();
277	float step_a = -1.0f;
278	float step_b = 2.0f;
279	for (int j=0; j < m_influence_list.Count(); j++)
280	{
281	influence_infos &tmp = m_influence_list[j];
282	if (m_influence_list[j].m_step <= m_point_list[i].m_influence &&
283	m_influence_list[j].m_step > step_a &&
284	((dir_influence_up && !m_influence_list[j].m_ignore_step_up) \|\|
285	(!dir_influence_up && !m_influence_list[j].m_ignore_step_down)))
286	{
287	info_a = j;
288	step_a = m_influence_list[j].m_step;
289	}
290	if (m_influence_list[j].m_step >= m_point_list[i].m_influence &&
291	m_influence_list[j].m_step < step_b &&
292	((dir_influence_up && !m_influence_list[j].m_ignore_step_up) \|\|
293	(!dir_influence_up && !m_influence_list[j].m_ignore_step_down)))
294	{
295	info_b = j;
296	step_b = m_influence_list[j].m_step;
297	}
298	}
299
300	work_infos work_a = work_infos();
301	work_infos work_b = work_infos();
302	get_modified_point(m_influence_list[info_a], info_a, m_point_list[i], work_a);
303	get_modified_point(m_influence_list[info_b], info_b, m_point_list[i], work_b);
304
305	float divider = step_b - step_a;
306	divider = (divider > .0f)?((m_point_list[i].m_influence - step_a) / divider):(1.0f);
307
308	float damp_used = ((dir_influence_up)?(work_b.m_damp_up):(work_a.m_damp_down));
309	damp_used = (seconds / (seconds + damp_used));
310
311	work_a.m_pos = work_a.m_pos + (work_b.m_pos - work_a.m_pos) * divider;
312	work_a.m_rot = work_a.m_rot + (work_b.m_rot - work_a.m_rot) * divider;
313	work_a.m_scale = work_a.m_scale + (work_b.m_scale - work_a.m_scale) * divider;
314	work_a.m_scale_3d = work_a.m_scale_3d + (work_b.m_scale_3d - work_a.m_scale_3d) * divider;
315
316	m_point_list[i].m_final_pos += (work_a.m_pos - m_point_list[i].m_final_pos) * damp_used;
317	m_point_list[i].m_final_rot += (work_a.m_rot - m_point_list[i].m_final_rot) * damp_used;
318	m_point_list[i].m_final_scale += (work_a.m_scale - m_point_list[i].m_final_scale) * damp_used;
319	m_point_list[i].m_final_scale_3d += (work_a.m_scale_3d - m_point_list[i].m_final_scale_3d) * damp_used;
320	}
321	}
322
323	void get_modified_point(const influence_infos &src_infos, const int random_idx, const transient_infos &src_transient, work_infos &dst_work)
324	{
325	//Base setup
326	dst_work.m_pos = src_transient.m_base_pos;
327	dst_work.m_rot = src_transient.m_base_rot;
328	dst_work.m_scale = src_transient.m_base_scale;
329	dst_work.m_scale_3d = src_transient.m_base_scale_3d;
330	dst_work.m_damp_down = src_infos.m_damp_down[OFF_DEF];
331	dst_work.m_damp_up = src_infos.m_damp_up[OFF_DEF];
332
333	//Added offset via given method
334	switch (src_infos.m_method)
335	{
336	case INF_WAVE:
337	{
338	float point_angle = wave_angle + (float)src_transient.m_point_id * 2.0f * (float)M_PI * 2.0f / ((float)DEF_X * 1.051f);
339	dst_work.m_pos += vec3(0.0f, (-1.0f + cos(point_angle)) * 20.0f, 0.0f);
340	//TODO : dst_work.m_rot += vec3(0,0,0);
341	}
342	case INF_DEFAULT:
343	{
344	dst_work.m_pos += src_infos.m_offset_pos[OFF_DEF];
345	dst_work.m_rot += src_infos.m_offset_rot[OFF_DEF];
346	dst_work.m_scale += src_infos.m_offset_scale[OFF_DEF];
347	dst_work.m_scale_3d += src_infos.m_offset_scale_3d[OFF_DEF];
348	if (src_transient.random_list.Count() && random_idx > 0 && random_idx < src_transient.random_list.Count())
349	{
350	dst_work.m_pos += src_infos.m_offset_pos[RND_MIN] + (src_infos.m_offset_pos[RND_MAX] - src_infos.m_offset_pos[RND_MIN]) * src_transient.random_list[random_idx].m_pos;
351	dst_work.m_rot += src_infos.m_offset_rot[RND_MIN] + (src_infos.m_offset_rot[RND_MAX] - src_infos.m_offset_rot[RND_MIN]) * src_transient.random_list[random_idx].m_rot;
352	dst_work.m_scale += src_infos.m_offset_scale[RND_MIN] + (src_infos.m_offset_scale[RND_MAX] - src_infos.m_offset_scale[RND_MIN]) * src_transient.random_list[random_idx].m_scale;
353	dst_work.m_scale_3d += src_infos.m_offset_scale_3d[RND_MIN] + (src_infos.m_offset_scale_3d[RND_MAX] - src_infos.m_offset_scale_3d[RND_MIN]) * src_transient.random_list[random_idx].m_scale_3d;
354	dst_work.m_damp_down += src_infos.m_damp_down[RND_MIN] + (src_infos.m_damp_down[RND_MAX] - src_infos.m_damp_down[RND_MIN]) * src_transient.random_list[random_idx].m_damp_down;
355	dst_work.m_damp_up += src_infos.m_damp_up[RND_MIN] + (src_infos.m_damp_up[RND_MAX] - src_infos.m_damp_up[RND_MIN]) * src_transient.random_list[random_idx].m_damp_up;
356	}
357	break;
358	}
359	}
360	}
361
362	virtual void TickDraw(float seconds)
363	{
364	WorldEntity::TickDraw(seconds);
365
366	if (!m_ready)
367	{
368	m_ref_mesh.MeshConvert();
369	m_ready = true;
370	}
371
372	m_rotation = quat::rotate(seconds 10.0f, vec3(0, 1, 0));
373	mat4 main_matrix = mat4::translate(m_position) * mat4(m_rotation);
374	for (int i=0; i < m_point_list.Count(); i++)
375	{
376	mat4 model = main_matrix *
377	mat4::translate(m_point_list[i].m_final_pos) *
378	mat4(quat::fromeuler_yxz(m_point_list[i].m_final_rot)) *
379	mat4::scale(m_point_list[i].m_final_scale_3d * m_point_list[i].m_final_scale);
380	m_ref_mesh.Render(model);
381	}
382	}
383
384	private:
385	//mesh used to render Lolnament
386	EasyMesh m_ref_mesh;
387	//List of Pos/Rot/Etc... currently applied to the Lolnament's meshes.
388	Array<transient_infos> m_point_list;
389	//List of influence steps
390	Array<influence_infos> m_influence_list;
391	//List of currently influencing points
392	Array<influencing_point_infos> m_influence_point_list;
393
394	float wave_angle;
395	float debug_point_angle;
396	bool m_ready;
397	};
398
399	#endif /* __LOLNAMENT_H__ */
400

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