rpgpt/main.c

#define CURRENT_VERSION 11 // wehenver you change Entity increment this boz
// you will die someday

#define SOKOL_IMPL

#if defined(WIN32) || defined(_WIN32)
#define DESKTOP
#define WINDOWS
#define SOKOL_D3D11
#endif

#if defined(__EMSCRIPTEN__)
#define WEB
#define SOKOL_GLES2
#endif

#ifdef WINDOWS
#include <Windows.h>
#include <processthreadsapi.h>
#include <dbghelp.h>
#endif



#include "buff.h"
#include "sokol_app.h"
#include "sokol_gfx.h"
#include "sokol_time.h"
#include "sokol_audio.h"
#include "sokol_log.h"
#include "sokol_glue.h"
#define STB_IMAGE_IMPLEMENTATION
#include "stb_image.h"
#define STB_TRUETYPE_IMPLEMENTATION
#include "stb_truetype.h"
#define STB_DS_IMPLEMENTATION
#include "stb_ds.h"
#include "HandmadeMath.h"
#define DR_WAV_IMPLEMENTATION
#include "dr_wav.h"

#pragma warning(disable : 4996) // fopen is safe. I don't care about fopen_s

#include <math.h>

#ifdef DEVTOOLS
#ifdef DESKTOP
#define PROFILING
#define PROFILING_IMPL
#endif
#endif
#include "profiling.h"

#define ENTITIES_ITER(ents) for (Entity *it = ents; it < ents + ARRLEN(ents); it++) if (it->exists)

double clamp(double d, double min, double max)
{
	const double t = d < min ? min : d;
	return t > max ? max : t;
}
float clampf(float d, float min, float max)
{
	const float t = d < min ? min : d;
	return t > max ? max : t;
}

float clamp01(float f)
{
	return clampf(f, 0.0f, 1.0f);
}

#ifdef min
#undef min
#endif

int min(int a, int b)
{
	if (a < b) return a;
	else return b;
}

// so can be grep'd and removed
#define dbgprint(...) { printf("Debug | %s:%d | ", __FILE__, __LINE__); printf(__VA_ARGS__); }
Vec2 RotateV2(Vec2 v, float theta)
{
	return V2(
			v.X * cosf(theta) - v.Y * sinf(theta),
			v.X * sinf(theta) + v.Y * cosf(theta)
			);
}

Vec2 ReflectV2(Vec2 v, Vec2 normal)
{
	assert(fabsf(LenV2(normal) - 1.0f) < 0.01f); // must be normalized
	Vec2 to_return = SubV2(v, MulV2F(normal, 2.0f * DotV2(v, normal)));

	assert(!isnan(to_return.x));
	assert(!isnan(to_return.y));
	return to_return;
}

typedef struct AABB
{
	Vec2 upper_left;
	Vec2 lower_right;
} AABB;

typedef struct Quad
{
	union
	{
		struct
		{
			Vec2 ul; // upper left
			Vec2 ur; // upper right
			Vec2 lr; // lower right
			Vec2 ll; // lower left
		};
		Vec2 points[4];
	};
} Quad;

typedef struct TileInstance
{
	uint16_t kind;
} TileInstance;

typedef struct AnimatedTile
{
	uint16_t id_from;
	bool exists;
	int num_frames;
	uint16_t frames[32];
} AnimatedTile;

typedef struct TileSet
{
	sg_image *img;
	uint16_t first_gid;
	AnimatedTile animated[128];
} TileSet;

#ifdef DEVTOOLS
#define SERVER_URL "http://localhost:8090"
#else
#define SERVER_URL "https://rpgpt.duckdns.org"
#endif

#include "makeprompt.h"

typedef struct Overlap
{
	bool is_tile; // in which case e will be null, naturally
	TileInstance t;
	Entity *e;
} Overlap;

typedef BUFF(Overlap, 16) Overlapping;


#define LEVEL_TILES 150
#define LAYERS 3
#define TILE_SIZE 32 // in pixels
#define MAX_ENTITIES 128
#define PLAYER_SPEED 3.5f // in meters per second
#define PLAYER_ROLL_SPEED 7.0f
typedef struct Level
{
	TileInstance tiles[LAYERS][LEVEL_TILES][LEVEL_TILES];
	Entity initial_entities[MAX_ENTITIES]; // shouldn't be directly modified, only used to initialize gs.entities on loading of level
} Level;

typedef struct TileCoord
{
	int x; // column
	int y; // row
} TileCoord;

// no alignment etc because lazy
typedef struct Arena
{
	char *data;
	size_t data_size;
	size_t cur;
} Arena;

Entity *player = 0; // up here, used in text backend callback

typedef struct AudioSample
{
	float *pcm_data; // allocated by loader, must be freed
	uint64_t pcm_data_length;
} AudioSample;

typedef struct AudioPlayer
{
	AudioSample *sample; // if not 0, exists
	double volume; // ZII, 1.0 + this again
	double pitch; // zero initialized, the pitch used to play is 1.0 + this
	double cursor_time; // in seconds, current audio sample is cursor_time * sample_rate
} AudioPlayer;

AudioPlayer playing_audio[128] = { 0 };

#define SAMPLE_RATE 44100

AudioSample load_wav_audio(const char *path)
{
	unsigned int channels;
	unsigned int sampleRate;
	AudioSample to_return = { 0 };
	to_return.pcm_data = drwav_open_file_and_read_pcm_frames_f32(path, &channels, &sampleRate, &to_return.pcm_data_length, 0);
	assert(channels == 1);
	assert(sampleRate == SAMPLE_RATE);
	return to_return;
}

uint64_t cursor_pcm(AudioPlayer *p)
{
	return (uint64_t)(p->cursor_time * SAMPLE_RATE);
}
float float_rand(float min, float max)
{
	float scale = rand() / (float) RAND_MAX; /* [0, 1.0] */
	return min + scale * (max - min); /* [min, max] */
}
void play_audio(AudioSample *sample, float volume)
{
	AudioPlayer *to_use = 0;
	for (int i = 0; i < ARRLEN(playing_audio); i++)
	{
		if (playing_audio[i].sample == 0)
		{
			to_use = &playing_audio[i];
			break;
		}
	}
	assert(to_use);
	*to_use = (AudioPlayer) { 0 };
	to_use->sample = sample;
	to_use->volume = volume;
	to_use->pitch = float_rand(0.9f, 1.1f);
}
// keydown needs to be referenced when begin text input,
// on web it disables event handling so the button up event isn't received
bool keydown[SAPP_KEYCODE_MENU] = { 0 };

bool choosing_item_grid = false;

// set to true when should receive text input from the web input box
// or desktop text input
bool receiving_text_input = false;

// called from the web to see if should do the text input modal
bool is_receiving_text_input()
{
	return receiving_text_input;
}

#ifdef DESKTOP
Sentence text_input_buffer = { 0 };
#else
#ifdef WEB
	EMSCRIPTEN_KEEPALIVE
void stop_controlling_input()
{
	_sapp_emsc_unregister_eventhandlers(); // stop getting input, hand it off to text input
}

	EMSCRIPTEN_KEEPALIVE
void start_controlling_input()
{
	memset(keydown, 0, ARRLEN(keydown));
	_sapp_emsc_register_eventhandlers();
}
#else
#error "No platform defined for text input!
#endif // web

#endif // desktop

void begin_text_input()
{
	receiving_text_input = true;
#ifdef DESKTOP
	BUFF_CLEAR(&text_input_buffer);
#endif
}


Vec2 FloorV2(Vec2 v)
{
	return V2(floorf(v.x), floorf(v.y));
}

Arena make_arena(size_t max_size)
{
	return (Arena)
	{
		.data = calloc(max_size, 1),
			.data_size = max_size,
			.cur = 0,
	};
}
void reset(Arena *a)
{
	memset(a->data, 0, a->data_size);
	a->cur = 0;
}
char *get(Arena *a, size_t of_size)
{
	assert(a->data != NULL);
	char *to_return = a->data + a->cur;
	a->cur += of_size;
	assert(a->cur < a->data_size);
	return to_return;
}

Arena scratch = { 0 };

char *tprint(const char *format, ...)
{
	va_list argptr;
	va_start(argptr, format);

	int size = vsnprintf(NULL, 0, format, argptr) + 1; // for null terminator

	char *to_return = get(&scratch, size);

	vsnprintf(to_return, size, format, argptr);

	va_end(argptr);

	return to_return;
}

bool V2ApproxEq(Vec2 a, Vec2 b)
{
	return LenV2(SubV2(a, b)) <= 0.01f;
}

AABB entity_sword_aabb(Entity *e, float width, float height)
{
	if (e->facing_left)
	{
		return (AABB) {
			.upper_left = AddV2(e->pos, V2(-width, height)),
				.lower_right = AddV2(e->pos, V2(0.0, -height)),
		};
	}
	else
	{
		return (AABB) {
			.upper_left = AddV2(e->pos, V2(0.0, height)),
				.lower_right = AddV2(e->pos, V2(width, -height)),
		};
	}
}

float max_coord(Vec2 v)
{
	return v.x > v.y ? v.x : v.y;
}

// aabb advice by iRadEntertainment
Vec2 entity_aabb_size(Entity *e)
{
	if (e->is_character)
	{
		return V2(TILE_SIZE*0.9f, TILE_SIZE*0.5f);
	}
	else if (e->is_npc)
	{
		if (npc_is_knight_sprite(e))
		{
			return V2(TILE_SIZE*0.5f, TILE_SIZE*0.5f);
		}
		else if (e->npc_kind == NPC_GodRock)
		{
			return V2(TILE_SIZE*0.5f, TILE_SIZE*0.5f);
		}
		else if (e->npc_kind == NPC_OldMan)
		{
			return V2(TILE_SIZE*0.5f, TILE_SIZE*0.5f);
		}
		else if (e->npc_kind == NPC_Death)
		{
			return V2(TILE_SIZE*1.10f, TILE_SIZE*1.10f);
		}
		else if (npc_is_skeleton(e))
		{
			return V2(TILE_SIZE*1.0f, TILE_SIZE*1.0f);
		}
		else if (e->npc_kind == NPC_TheGuard)
		{
			return V2(TILE_SIZE*0.5f, TILE_SIZE*0.5f);
		}
		else
		{
			assert(false);
			return (Vec2) { 0 };
		}
	}
	else if (e->is_bullet)
	{
		return V2(TILE_SIZE*0.25f, TILE_SIZE*0.25f);
	}
	else if (e->is_prop)
	{
		return V2(TILE_SIZE*0.5f, TILE_SIZE*0.5f);
	}
	else if (e->is_item)
	{
		return V2(TILE_SIZE*0.5f, TILE_SIZE*0.5f);
	}
	else
	{
		assert(false);
		return (Vec2) { 0 };
	}
}

bool is_tile_solid(TileInstance t)
{
	uint16_t tile_id = t.kind;
	uint16_t collideable[] = {
		57 , 58 , 59 ,
		121, 122, 123,
		185, 186, 187,
		249, 250, 251,
		313, 314, 315,
		377, 378, 379,
	};
	for (int i = 0; i < ARRLEN(collideable); i++)
	{
		if (tile_id == collideable[i] + 1) return true;
	}
	return false;
	//return tile_id == 53 || tile_id == 0 || tile_id == 367 || tile_id == 317 || tile_id == 313 || tile_id == 366 || tile_id == 368;
}

bool is_overlap_collision(Overlap o)
{
	if (o.is_tile)
	{
		return is_tile_solid(o.t);
	}
	else
	{
		assert(o.e);
		return !o.e->is_item;
	}
}


// tilecoord is integer tile position, not like tile coord
Vec2 tilecoord_to_world(TileCoord t)
{
	return V2((float)t.x * (float)TILE_SIZE * 1.0f, -(float)t.y * (float)TILE_SIZE * 1.0f);
}

// points from tiled editor have their own strange and alien coordinate system (local to the tilemap Y+ down)
Vec2 tilepoint_to_world(Vec2 tilepoint)
{
	Vec2 tilecoord = MulV2F(tilepoint, 1.0 / TILE_SIZE);
	return tilecoord_to_world((TileCoord) { (int)tilecoord.X, (int)tilecoord.Y });
}

TileCoord world_to_tilecoord(Vec2 w)
{
	// world = V2(tilecoord.x * tile_size, -tilecoord.y * tile_size)
	// world.x = tilecoord.x * tile_size
	// world.x / tile_size = tilecoord.x
	// world.y = -tilecoord.y * tile_size
	// - world.y / tile_size = tilecoord.y
	return (TileCoord) { (int)floorf(w.X / TILE_SIZE), (int)floorf(-w.Y / TILE_SIZE) };
}


AABB tile_aabb(TileCoord t)
{
	return (AABB)
	{
		.upper_left = tilecoord_to_world(t),
			.lower_right = AddV2(tilecoord_to_world(t), V2(TILE_SIZE, -TILE_SIZE)),
	};
}

Vec2 rotate_counter_clockwise(Vec2 v)
{
	return V2(-v.Y, v.X);
}

Vec2 rotate_clockwise(Vec2 v)
{
	return V2(v.y, -v.x);
}


Vec2 aabb_center(AABB aabb)
{
	return MulV2F(AddV2(aabb.upper_left, aabb.lower_right), 0.5f);
}

AABB centered_aabb(Vec2 at, Vec2 size)
{
	return (AABB) {
		.upper_left = AddV2(at, V2(-size.X / 2.0f, size.Y / 2.0f)),
			.lower_right = AddV2(at, V2(size.X / 2.0f, -size.Y / 2.0f)),
	};
}


AABB entity_aabb_at(Entity *e, Vec2 at)
{
	return centered_aabb(at, entity_aabb_size(e));
}

AABB entity_aabb(Entity *e)
{
	Vec2 at = e->pos;
	/* following doesn't work because in move_and_slide I'm not using this function
		 if(e->is_character) // aabb near feet
		 {
		 at = AddV2(at, V2(0.0f, -50.0f));
		 }
		 */
	return entity_aabb_at(e, at);
}

TileInstance get_tile_layer(Level *l, int layer, TileCoord t)
{
	bool out_of_bounds = false;
	out_of_bounds |= t.x < 0;
	out_of_bounds |= t.x >= LEVEL_TILES;
	out_of_bounds |= t.y < 0;
	out_of_bounds |= t.y >= LEVEL_TILES;
	//assert(!out_of_bounds);
	if (out_of_bounds) return (TileInstance) { 0 };
	return l->tiles[layer][t.y][t.x];
}

TileInstance get_tile(Level *l, TileCoord t)
{
	return get_tile_layer(l, 0, t);
}

sg_image load_image(const char *path)
{
	sg_image to_return = { 0 };

	int png_width, png_height, num_channels;
	const int desired_channels = 4;
	stbi_uc* pixels = stbi_load(
			path,
			&png_width, &png_height,
			&num_channels, 0);
	assert(pixels);
	Log("Pah %s | Loading image with dimensions %d %d\n", path, png_width, png_height);
	to_return = sg_make_image(&(sg_image_desc)
			{
			.width = png_width,
			.height = png_height,
			.pixel_format = SG_PIXELFORMAT_RGBA8,
			.min_filter = SG_FILTER_NEAREST,
			.num_mipmaps = 0,
			.wrap_u = SG_WRAP_CLAMP_TO_EDGE,
			.wrap_v = SG_WRAP_CLAMP_TO_EDGE,
			.mag_filter = SG_FILTER_NEAREST,
			.data.subimage[0][0] =
			{
			.ptr = pixels,
			.size = (size_t)(png_width * png_height * 4),
			}
			});
	stbi_image_free(pixels);
	return to_return;
}

#include "assets.gen.c"
#include "quad-sapp.glsl.h"

AABB level_aabb = { .upper_left = { 0.0f, 0.0f }, .lower_right = { TILE_SIZE * LEVEL_TILES, -(TILE_SIZE * LEVEL_TILES) } };
typedef struct GameState {
	int version; // this field must be first to detect versions of old saves. Must bee consistent
	
	bool won;
	Entity entities[MAX_ENTITIES];
} GameState;
GameState gs = { 0 };

PathCache cached_paths[32] = { 0 };

bool is_path_cache_old(double elapsed_time, PathCache *cache)
{
	double time_delta = elapsed_time - cache->elapsed_time;
	if (time_delta < 0.0)
	{
		// path was cached in the future... likely from old save or something. Always invalidate
		return true;
	}
	else
	{
		return time_delta >= TIME_BETWEEN_PATH_GENS;
	}
}

PathCacheHandle cache_path(double elapsed_time, AStarPath *path)
{
	ARR_ITER_I(PathCache, cached_paths, i)
	{
		if (!it->exists || is_path_cache_old(elapsed_time, it))
		{
			int gen = it->generation;
			*it = (PathCache) { 0 };
			it->generation = gen + 1;

			it->path = *path;
			it->elapsed_time = elapsed_time;
			it->exists = true;
			return (PathCacheHandle) { .generation = it->generation, .index = i };
		}
	}
	return (PathCacheHandle) { 0 };
}

// passes in the time to return 0 and invalidate if too old
PathCache *get_path_cache(double elapsed_time, PathCacheHandle handle)
{
	if (handle.generation == 0)
	{
		return 0;
	}
	else
	{
		assert(handle.index >= 0);
		assert(handle.index < ARRLEN(cached_paths));
		PathCache *to_return = &cached_paths[handle.index];
		if (to_return->exists && to_return->generation == handle.generation)
		{
			if (is_path_cache_old(elapsed_time, to_return))
			{
				to_return->exists = false;
				return 0;
			}
			else
			{
				return to_return;
			}
		}
		else
		{
			return 0;
		}
	}
}



double unprocessed_gameplay_time = 0.0;
#define MINIMUM_TIMESTEP (1.0 / 60.0)

EntityRef frome(Entity *e)
{
	EntityRef to_return = {
		.index = (int)(e - gs.entities),
		.generation = e->generation,
	};
	assert(to_return.index >= 0);
	assert(to_return.index < ARRLEN(gs.entities));
	return to_return;
}

Entity *gete(EntityRef ref)
{
	if (ref.generation == 0) return 0;
	Entity *to_return = &gs.entities[ref.index];
	if (!to_return->exists || to_return->generation != ref.generation)
	{
		return 0;
	}
	else
	{
		return to_return;
	}
}

bool eq(EntityRef ref1, EntityRef ref2)
{
	return ref1.index == ref2.index && ref1.generation == ref2.generation;
}

Entity *new_entity()
{
	for (int i = 0; i < ARRLEN(gs.entities); i++)
	{
		if (!gs.entities[i].exists)
		{
			Entity *to_return = &gs.entities[i];
			int gen = to_return->generation;
			*to_return = (Entity) { 0 };
			to_return->exists = true;
			to_return->generation = gen + 1;
			return to_return;
		}
	}
	assert(false);
	return NULL;
}

void update_player_from_entities()
{
	player = 0;
	ENTITIES_ITER(gs.entities)
	{
		if (it->is_character)
		{
			assert(player == 0);
			player = it;
		}
	}
	assert(player != 0);
}

void reset_level()
{
	// load level
	gs.won = false;
	Level *to_load = &level_level0;
	{
		assert(ARRLEN(to_load->initial_entities) == ARRLEN(gs.entities));
		memcpy(gs.entities, to_load->initial_entities, sizeof(Entity) * MAX_ENTITIES);
		gs.version = CURRENT_VERSION;
		ENTITIES_ITER(gs.entities)
		{
			if (it->generation == 0) it->generation = 1; // zero value generation means doesn't exist
		}
	}
	update_player_from_entities();

#ifdef DEVTOOLS
	if(false)
	{
		BUFF_APPEND(&player->held_items, ITEM_WhiteSquare);
		for (int i = 0; i < 20; i++)
			BUFF_APPEND(&player->held_items, ITEM_Boots);
	}

	ENTITIES_ITER(gs.entities)
	{
		if (it->npc_kind == NPC_TheBlacksmith)
		{
			//RANGE_ITER(0, 20)
				//BUFF_APPEND(&it->remembered_perceptions, ((Perception) { .type = PlayerDialog, .player_dialog = SENTENCE_CONST("Testing dialog") }));

			//BUFF_APPEND(&it->held_items, ITEM_Chalice);
		}
	}
#endif
}


#ifdef WEB
	EMSCRIPTEN_KEEPALIVE
void dump_save_data()
{
	EM_ASM( {
			save_game_data = new Int8Array(Module.HEAP8.buffer, $0, $1);
			}, (char*)(&gs), sizeof(gs));
}
	EMSCRIPTEN_KEEPALIVE
void read_from_save_data(char *data, size_t length)
{
	GameState read_data = { 0 };
	memcpy((char*)(&read_data), data, length);
	if (read_data.version != CURRENT_VERSION)
	{
		Log("Bad gamestate, has version %d expected version %d\n", read_data.version, CURRENT_VERSION);
	}
	else
	{
		gs = read_data;
		update_player_from_entities();
	}
}
#endif

// a callback, when 'text backend' has finished making text. End dialog
void end_text_input(char *what_player_said)
{
	// avoid double ending text input
	if (!receiving_text_input)
	{
		return;
	}
	receiving_text_input = false;

	size_t player_said_len = strlen(what_player_said);
	int actual_len = 0;
	for (int i = 0; i < player_said_len; i++) if (what_player_said[i] != '\n') actual_len++;
	if (actual_len == 0)
	{
		// this just means cancel the dialog
	}
	else
	{
		Sentence what_player_said_sentence = { 0 };
		assert(player_said_len < ARRLEN(what_player_said_sentence.data)); // should be made sure of in the html5 layer
		for (int i = 0; i < player_said_len; i++)
		{
			char c = what_player_said[i];
			if (!BUFF_HAS_SPACE(&what_player_said_sentence))
			{
				break;
			}
			else if (c == '\n')
			{
				break;
			}
			else
			{
				BUFF_APPEND(&what_player_said_sentence, c);
			}
		}

		Entity *talking = gete(player->talking_to);
		assert(talking);
		ItemKind player_holding = ITEM_none;
		if (gete(player->holding_item) != 0)
		{
			player_holding = gete(player->holding_item)->item_kind;
		}
		if (talking->last_seen_holding_kind != player_holding)
		{
			process_perception(talking, (Perception) { .type = PlayerHeldItemChanged, .holding = player_holding, }, player);

		}
		process_perception(talking, (Perception) { .type = PlayerDialog, .player_dialog = what_player_said_sentence, }, player);
	}
}
/*
	 AnimatedSprite moose_idle = 
	 {
	 .img = &image_moose,
	 .time_per_frame = 0.15,
	 .num_frames = 8,
	 .start = {0.0, 0.0},
	 .horizontal_diff_btwn_frames = 347.0f,
	 .region_size = {347.0f, 160.0f},
	 .offset = {-1.5f, -10.0f},
	 };
	 */


sg_image image_font = { 0 };
float font_line_advance = 0.0f;
const float font_size = 32.0;
stbtt_bakedchar cdata[96]; // ASCII 32..126 is 95 glyphs


static struct
{
	sg_pass_action pass_action;
	sg_pipeline pip;
	sg_bindings bind;
} state;


void audio_stream_callback(float *buffer, int num_frames, int num_channels)
{
	assert(num_channels == 1);
	const int num_samples = num_frames * num_channels;
	double time_to_play = (double)num_frames / (double)SAMPLE_RATE;
	double time_per_sample = 1.0 / (double)SAMPLE_RATE;
	for (int i = 0; i < num_samples; i++)
	{
		float output_frame = 0.0f;
		for (int audio_i = 0; audio_i < ARRLEN(playing_audio); audio_i++)
		{
			AudioPlayer *it = &playing_audio[audio_i];
			if (it->sample != 0)
			{
				if (cursor_pcm(it) >= it->sample->pcm_data_length)
				{
					it->sample = 0;
				}
				else
				{
					output_frame += it->sample->pcm_data[cursor_pcm(it)]*(float)(it->volume + 1.0);
					it->cursor_time += time_per_sample*(it->pitch + 1.0);
				}
			}
		}
		buffer[i] = output_frame;
	}
}


typedef BUFF(Entity*, 16) SwordToDamage;
SwordToDamage entity_sword_to_do_damage(Entity *from, Overlapping o)
{
	SwordToDamage to_return = { 0 };
	BUFF_ITER(Overlap, &o)
	{
		if (!it->is_tile && it->e != from)
		{
			bool done_damage = false;
			Entity *looking_for = it->e;
			BUFF_ITER(EntityRef, &from->done_damage_to_this_swing)
			{
				EntityRef ref = *it;
				Entity *it = gete(ref);
				if (it == looking_for) done_damage = true;
			}
			if (!done_damage)
			{
				if (!BUFF_HAS_SPACE(&from->done_damage_to_this_swing))
				{
					BUFF_REMOVE_FRONT(&from->done_damage_to_this_swing);
					Log("Too many things to do damage to...\n");
					assert(false);
				}
				BUFF_APPEND(&to_return, looking_for);
				BUFF_APPEND(&from->done_damage_to_this_swing, frome(looking_for));
			}
		}
	}
	return to_return;
}


#define WHITE ((Color) { 1.0f, 1.0f, 1.0f, 1.0f })
#define GREY ((Color) { 0.4f, 0.4f, 0.4f, 1.0f })
#define BLACK ((Color) { 0.0f, 0.0f, 0.0f, 1.0f })
#define RED   ((Color) { 1.0f, 0.0f, 0.0f, 1.0f })
#define PINK  ((Color) { 1.0f, 0.0f, 1.0f, 1.0f })
#define BLUE  ((Color) { 0.0f, 0.0f, 1.0f, 1.0f })
#define GREEN ((Color) { 0.0f, 1.0f, 0.0f, 1.0f })
#define BROWN (colhex(0x4d3d25))

Color oflightness(float dark)
{
	return (Color) { dark, dark, dark, 1.0f };
}

Color colhex(uint32_t hex)
{
	int r = (hex & 0xff0000) >> 16;
	int g = (hex & 0x00ff00) >> 8;
	int b = (hex & 0x0000ff) >> 0;

	return (Color) { (float)r / 255.0f, (float)g / 255.0f, (float)b / 255.0f, 1.0f };
}

Color blendalpha(Color c, float alpha)
{
	Color to_return = c;
	to_return.a = alpha;
	return to_return;
}


void init(void)
{
#ifdef WEB
	EM_ASM( {
			set_server_url(UTF8ToString($0));
			}, SERVER_URL);
#endif
	Log("Size of entity struct: %zu\n", sizeof(Entity));
	Log("Size of %d gs.entities: %zu kb\n", (int)ARRLEN(gs.entities), sizeof(gs.entities) / 1024);
	sg_setup(&(sg_desc) {
			.context = sapp_sgcontext(),
			});
	stm_setup();
	saudio_setup(&(saudio_desc) {
			.stream_cb = audio_stream_callback,
			.logger.func = slog_func,
			});

	scratch = make_arena(1024 * 10);

	load_assets();
	reset_level();

#ifdef WEB
	EM_ASM( {
			load_all();
			});
#endif

	// load font
	{
		FILE* fontFile = fopen("assets/orange kid.ttf", "rb");
		fseek(fontFile, 0, SEEK_END);
		size_t size = ftell(fontFile); /* how long is the file ? */
		fseek(fontFile, 0, SEEK_SET); /* reset */

		unsigned char *fontBuffer = malloc(size);

		fread(fontBuffer, size, 1, fontFile);
		fclose(fontFile);

		unsigned char *font_bitmap = calloc(1, 512*512);
		stbtt_BakeFontBitmap(fontBuffer, 0, font_size, font_bitmap, 512, 512, 32, 96, cdata);

		unsigned char *font_bitmap_rgba = malloc(4 * 512 * 512); // stack would be too big if allocated on stack (stack overflow)
		for (int i = 0; i < 512 * 512; i++)
		{
			font_bitmap_rgba[i*4 + 0] = 255;
			font_bitmap_rgba[i*4 + 1] = 255;
			font_bitmap_rgba[i*4 + 2] = 255;
			font_bitmap_rgba[i*4 + 3] = font_bitmap[i];
		}

		image_font = sg_make_image(&(sg_image_desc) {
				.width = 512,
				.height = 512,
				.pixel_format = SG_PIXELFORMAT_RGBA8,
				.min_filter = SG_FILTER_NEAREST,
				.mag_filter = SG_FILTER_NEAREST,
				.data.subimage[0][0] =
				{
				.ptr = font_bitmap_rgba,
				.size = (size_t)(512 * 512 * 4),
				}
				});

		stbtt_fontinfo font;
		stbtt_InitFont(&font, fontBuffer, 0);
		int ascent = 0;
		int descent = 0;
		int lineGap = 0;
		float scale = stbtt_ScaleForPixelHeight(&font, font_size);
		stbtt_GetFontVMetrics(&font, &ascent, &descent, &lineGap);
		font_line_advance = (float)(ascent - descent + lineGap) * scale * 0.75f;

		free(font_bitmap_rgba);
		free(fontBuffer);
	}

	state.bind.vertex_buffers[0] = sg_make_buffer(&(sg_buffer_desc)
			{
			.usage = SG_USAGE_STREAM,
			//.data = SG_RANGE(vertices),
#ifdef DEVTOOLS
			.size = 1024*2500,
#else
			.size = 1024*700,
#endif
			.label = "quad-vertices"
			});

	const sg_shader_desc *desc = quad_program_shader_desc(sg_query_backend());
	assert(desc);
	sg_shader shd = sg_make_shader(desc);

	Color clearcol = colhex(0x98734c);
	state.pip = sg_make_pipeline(&(sg_pipeline_desc)
			{
			.shader = shd,
			.depth = {
			.compare = SG_COMPAREFUNC_LESS_EQUAL,
			.write_enabled = true
			},
			.layout = {
			.attrs =
			{
			[ATTR_quad_vs_position].format = SG_VERTEXFORMAT_FLOAT3,
			[ATTR_quad_vs_texcoord0].format = SG_VERTEXFORMAT_FLOAT2,
			}
			},
			.colors[0].blend = (sg_blend_state) { // allow transparency
			.enabled = true,
			.src_factor_rgb = SG_BLENDFACTOR_SRC_ALPHA,
			.dst_factor_rgb = SG_BLENDFACTOR_ONE_MINUS_SRC_ALPHA,
			.op_rgb = SG_BLENDOP_ADD,
			.src_factor_alpha = SG_BLENDFACTOR_ONE,
			.dst_factor_alpha = SG_BLENDFACTOR_ONE_MINUS_SRC_ALPHA,
			.op_alpha = SG_BLENDOP_ADD,
			},
			.label = "quad-pipeline",
			});

	state.pass_action = (sg_pass_action)
	{
		//.colors[0] = { .action=SG_ACTION_CLEAR, .value={12.5f/255.0f, 12.5f/255.0f, 12.5f/255.0f, 1.0f } }
		//.colors[0] = { .action=SG_ACTION_CLEAR, .value={255.5f/255.0f, 255.5f/255.0f, 255.5f/255.0f, 1.0f } }
		// 0x898989 is the color in tiled
		.colors[0] =
		{ .action = SG_ACTION_CLEAR, .value = { clearcol.r, clearcol.g, clearcol.b, 1.0f } }
	};
}

Vec2 screen_size()
{
	return V2((float)sapp_width(), (float)sapp_height());
}

typedef struct Camera
{
	Vec2 pos;
	float scale;
} Camera;

bool mobile_controls = false;
Vec2 thumbstick_base_pos = { 0 };
Vec2 thumbstick_nub_pos = { 0 };
typedef struct TouchMemory
{
	// need this because uintptr_t = 0 *doesn't* mean no touching!
	bool active;
	uintptr_t identifier;
} TouchMemory;
TouchMemory activate(uintptr_t by)
{
	//Log("Activating %ld\n", by);
	return (TouchMemory) { .active = true, .identifier = by };
}
// returns if deactivated
bool maybe_deactivate(TouchMemory *memory, uintptr_t ended_identifier)
{
	if (memory->active)
	{
		if (memory->identifier == ended_identifier)
		{
			//Log("Deactivating %ld\n", memory->identifier);
			*memory = (TouchMemory) { 0 };
			return true;
		}
	}
	else
	{
		return false;
	}
	return false;
}
TouchMemory movement_touch = { 0 };
TouchMemory roll_pressed_by = { 0 };
TouchMemory attack_pressed_by = { 0 };
TouchMemory interact_pressed_by = { 0 };
bool mobile_roll_pressed = false;
bool mobile_attack_pressed = false;
bool mobile_interact_pressed = false;

float thumbstick_base_size()
{
	if (screen_size().x < screen_size().y)
	{
		return screen_size().x * 0.24f;
	}
	else
	{
		return screen_size().x * 0.14f;
	}
}

float mobile_button_size()
{
	if (screen_size().x < screen_size().y)
	{
		return screen_size().x * 0.2f;
	}
	else
	{
		return screen_size().x * 0.09f;
	}
}

Vec2 roll_button_pos()
{
	return V2(screen_size().x - mobile_button_size(), screen_size().y * 0.4f);
}

Vec2 interact_button_pos()
{
	return V2(screen_size().x - mobile_button_size()*2.0f, screen_size().y * (0.4f + (0.4f - 0.25f)));
}
Vec2 attack_button_pos()
{
	return V2(screen_size().x - mobile_button_size()*2.0f, screen_size().y * 0.25f);
}

// everything is in pixels in world space, 43 pixels is approx 1 meter measured from 
// merchant sprite being 5'6"
const float pixels_per_meter = 43.0f;
Camera cam = { .scale = 2.0f };

Vec2 cam_offset()
{
	Vec2 to_return = AddV2(cam.pos, MulV2F(screen_size(), 0.5f));
	to_return = FloorV2(to_return); // avoid pixel glitching on tilemap atlas
	return to_return;
}

// in pixels
Vec2 img_size(sg_image img)
{
	sg_image_info info = sg_query_image_info(img);
	return V2((float)info.width, (float)info.height);
}

#define IMG(img) img, full_region(img)

// full region in pixels
AABB full_region(sg_image img)
{
	return (AABB)
	{
		.upper_left = V2(0.0f, 0.0f),
			.lower_right = img_size(img),
	};
}

// screen coords are in pixels counting from bottom left as (0,0), Y+ is up
Vec2 world_to_screen(Vec2 world)
{
	Vec2 to_return = world;
	to_return = MulV2F(to_return, cam.scale);
	to_return = AddV2(to_return, cam_offset());
	return to_return;
}

Vec2 screen_to_world(Vec2 screen)
{
	Vec2 to_return = screen;
	to_return = SubV2(to_return, cam_offset());
	to_return = MulV2F(to_return, 1.0f / cam.scale);
	return to_return;
}

AABB aabb_at(Vec2 at, Vec2 size)
{
	return (AABB) {
		.upper_left = at,
			.lower_right = AddV2(at, V2(size.x, -size.y)),
	};
}

AABB aabb_at_yplusdown(Vec2 at, Vec2 size)
{
	return (AABB) {
		.upper_left = at,
			.lower_right = AddV2(at, V2(size.x, size.y)),
	};
}

Quad quad_at(Vec2 at, Vec2 size)
{
	Quad to_return;

	to_return.points[0] = V2(0.0, 0.0);
	to_return.points[1] = V2(size.X, 0.0);
	to_return.points[2] = V2(size.X, -size.Y);
	to_return.points[3] = V2(0.0, -size.Y);

	for (int i = 0; i < 4; i++)
	{
		to_return.points[i] = AddV2(to_return.points[i], at);
	}
	return to_return;
}

Quad tile_quad(TileCoord coord)
{
	Quad to_return = quad_at(tilecoord_to_world(coord), V2(TILE_SIZE, TILE_SIZE));

	return to_return;
}

// out must be of at least length 4
Quad quad_centered(Vec2 at, Vec2 size)
{
	Quad to_return = quad_at(at, size);
	for (int i = 0; i < 4; i++)
	{
		to_return.points[i] = AddV2(to_return.points[i], V2(-size.X*0.5f, size.Y*0.5f));
	}
	return to_return;
}

bool aabb_is_valid(AABB aabb)
{
	Vec2 size_vec = SubV2(aabb.lower_right, aabb.upper_left); // negative in vertical direction
	return size_vec.Y < 0.0f && size_vec.X > 0.0f;
}

// positive in both directions
Vec2 aabb_size(AABB aabb)
{
	assert(aabb_is_valid(aabb));
	Vec2 size_vec = SubV2(aabb.lower_right, aabb.upper_left); // negative in vertical direction
	size_vec.y *= -1.0;
	return size_vec;
}

Quad quad_aabb(AABB aabb)
{
	Vec2 size_vec = SubV2(aabb.lower_right, aabb.upper_left); // negative in vertical direction

	assert(aabb_is_valid(aabb));
	return (Quad) {
		.ul = aabb.upper_left,
			.ur = AddV2(aabb.upper_left, V2(size_vec.X, 0.0f)),
			.lr = AddV2(aabb.upper_left, size_vec),
			.ll = AddV2(aabb.upper_left, V2(0.0f, size_vec.Y)),
	};
}

Quad centered_quad(Vec2 at, Vec2 size)
{
	return quad_aabb(centered_aabb(at, size));
}

// both segment_a and segment_b must be arrays of length 2
bool segments_overlapping(float *a_segment, float *b_segment)
{
	assert(a_segment[1] >= a_segment[0]);
	assert(b_segment[1] >= b_segment[0]);
	float total_length = (a_segment[1] - a_segment[0]) + (b_segment[1] - b_segment[0]);
	float farthest_to_left = fminf(a_segment[0], b_segment[0]);
	float farthest_to_right = fmaxf(a_segment[1], b_segment[1]);
	if (farthest_to_right - farthest_to_left < total_length)
	{
		return true;
	}
	else
	{
		return false;
	}
}

bool overlapping(AABB a, AABB b)
{
	// x axis

	{
		float a_segment[2] =
		{ a.upper_left.X, a.lower_right.X };
		float b_segment[2] =
		{ b.upper_left.X, b.lower_right.X };
		if (segments_overlapping(a_segment, b_segment))
		{
		}
		else
		{
			return false;
		}
	}

	// y axis

	{
		float a_segment[2] =
		{ a.lower_right.Y, a.upper_left.Y };
		float b_segment[2] =
		{ b.lower_right.Y, b.upper_left.Y };
		if (segments_overlapping(a_segment, b_segment))
		{
		}
		else
		{
			return false;
		}
	}

	return true; // both segments overlapping
}

bool has_point(AABB aabb, Vec2 point)
{
	return
		(aabb.upper_left.X < point.X && point.X < aabb.lower_right.X) &&
		(aabb.upper_left.Y > point.Y && point.Y > aabb.lower_right.Y);
}

AABB screen_cam_aabb()
{
	return (AABB) { .upper_left = V2(0.0, screen_size().Y), .lower_right = V2(screen_size().X, 0.0) };
}

AABB world_cam_aabb()
{
	AABB to_return = screen_cam_aabb();
	to_return.upper_left = screen_to_world(to_return.upper_left);
	to_return.lower_right = screen_to_world(to_return.lower_right);
	return to_return;
}

int num_draw_calls = 0;

#define FLOATS_PER_VERTEX (3 + 2)
float cur_batch_data[1024*10] = { 0 };
int cur_batch_data_index = 0;
// @TODO check last tint as well, do this when factor into drawing parameters
sg_image cur_batch_image = { 0 };
quad_fs_params_t cur_batch_params = { 0 };
void flush_quad_batch()
{
	if (cur_batch_image.id == 0 || cur_batch_data_index == 0) return; // flush called when image changes, image starts out null!
	state.bind.vertex_buffer_offsets[0] = sg_append_buffer(state.bind.vertex_buffers[0], &(sg_range) { cur_batch_data, cur_batch_data_index*sizeof(*cur_batch_data) });
	state.bind.fs_images[SLOT_quad_tex] = cur_batch_image;
	sg_apply_bindings(&state.bind);
	sg_apply_uniforms(SG_SHADERSTAGE_FS, SLOT_quad_fs_params, &SG_RANGE(cur_batch_params));
	assert(cur_batch_data_index % FLOATS_PER_VERTEX == 0);
	sg_draw(0, cur_batch_data_index / FLOATS_PER_VERTEX, 1);
	num_draw_calls += 1;
	memset(cur_batch_data, 0, cur_batch_data_index*sizeof(*cur_batch_data));
	cur_batch_data_index = 0;
}

typedef enum
{
	LAYER_TILEMAP,
	LAYER_WORLD,
	LAYER_UI,
	LAYER_UI_FG,
	LAYER_SCREENSPACE_EFFECTS,

	LAYER_LAST
} Layer;

typedef BUFF(char, 200) StacktraceElem;
typedef BUFF(StacktraceElem, 16) StacktraceInfo;

StacktraceInfo get_stacktrace()
{
#ifdef WINDOWS
	StacktraceInfo to_return = {0};
	void *stack[ARRLEN(to_return.data)] = {0};
	int captured = CaptureStackBackTrace(0, ARRLEN(to_return.data), stack, 0);

	HANDLE process = GetCurrentProcess();
	SymInitialize(process, NULL, TRUE);

	for(int i = 0; i < captured; i++)
	{
		StacktraceElem new_elem = {0};
		
		SYMBOL_INFO *symbol = calloc(sizeof(SYMBOL_INFO) + ARRLEN(new_elem.data), 1);

		symbol->MaxNameLen = ARRLEN(new_elem.data);
		symbol->SizeOfStruct = sizeof(SYMBOL_INFO);

		if(!SymFromAddr(process, (DWORD64) stack[i], 0, symbol))
		{
			DWORD error_code = GetLastError();
			Log("Could not read stack trace: %d\n", error_code);
			assert(false);
		}

		size_t symbol_name_len = strlen(symbol->Name);
		assert(symbol_name_len < ARRLEN(new_elem.data));
		memcpy(new_elem.data, symbol->Name, symbol_name_len);
		new_elem.cur_index = (int)symbol_name_len;
		BUFF_APPEND(&to_return, new_elem);

		free(symbol);
	}
	return to_return;
#else
	return (StacktraceInfo){0};
#endif
}

typedef struct DrawParams
{
	bool world_space;
	Quad quad;
	sg_image image;
	AABB image_region;
	Color tint;

	AABB clip_to; // if world space is in world space, if screen space is in screen space - Lao Tzu
	int sorting_key;
	float alpha_clip_threshold;

	bool do_clipping;
	Layer layer;

	// for debugging purposes
	int line_number; 
} DrawParams;

Vec2 into_clip_space(Vec2 screen_space_point)
{
	Vec2 zero_to_one = DivV2(screen_space_point, screen_size());
	Vec2 in_clip_space = SubV2(MulV2F(zero_to_one, 2.0), V2(1.0, 1.0));
	return in_clip_space;
}


typedef BUFF(DrawParams, 1024*5) RenderingQueue;
RenderingQueue rendering_queues[LAYER_LAST] = { 0 };

// The image region is in pixel space of the image
void draw_quad_impl(DrawParams d, int line)
{
	Vec2 *points = d.quad.points;
	if (d.world_space)
	{
		for (int i = 0; i < 4; i++)
		{
			points[i] = world_to_screen(points[i]);
		}
	}

	if (d.do_clipping && d.world_space)
	{
		d.clip_to.upper_left = world_to_screen(d.clip_to.upper_left);
		d.clip_to.lower_right = world_to_screen(d.clip_to.lower_right);
	}

	// we've aplied the world space transform
	d.world_space = false;

	d.line_number = line;

	assert(d.layer >= 0 && d.layer < ARRLEN(rendering_queues));
	BUFF_APPEND(&rendering_queues[(int)d.layer], d);
}

#define draw_quad(...) draw_quad_impl(__VA_ARGS__, __LINE__)

int rendering_compare(const void *a, const void *b)
{
	DrawParams *a_draw = (DrawParams*)a;
	DrawParams *b_draw = (DrawParams*)b;

	return (int)((a_draw->sorting_key - b_draw->sorting_key));
}

void swap(Vec2 *p1, Vec2 *p2)
{
	Vec2 tmp = *p1;
	*p1 = *p2;
	*p2 = tmp;
}

double anim_sprite_duration(AnimKind anim)
{
	AnimatedSprite *s = GET_TABLE_PTR(sprites, anim);
	return s->num_frames * s->time_per_frame;
}

Vec2 tile_id_to_coord(sg_image tileset_image, Vec2 tile_size, uint16_t tile_id)
{
	int tiles_per_row = (int)(img_size(tileset_image).X / tile_size.X);
	int tile_index = tile_id - 1;
	int tile_image_row = tile_index / tiles_per_row;
	int tile_image_col = tile_index - tile_image_row*tiles_per_row;
	Vec2 tile_image_coord = V2((float)tile_image_col * tile_size.X, (float)tile_image_row*tile_size.Y);
	return tile_image_coord;
}

void colorquad(bool world_space, Quad q, Color col)
{
	bool queue = false;
	if (col.A < 1.0f)
	{
		queue = true;
	}
	// y coord sorting for colorquad puts it below text for dialog panel
	draw_quad((DrawParams) { world_space, q, image_white_square, full_region(image_white_square), col, .layer = LAYER_UI });
}

Vec2 NormV2_or_zero(Vec2 v)
{
	if(v.x == 0.0f && v.y == 0.0f)
	{
		return V2(0.0f, 0.0f);
	}
	else
	{
		return NormV2(v);
	}
}


// in world coordinates
bool in_screen_space = false;
void line(Vec2 from, Vec2 to, float line_width, Color color)
{
	Vec2 normal = rotate_counter_clockwise(NormV2_or_zero(SubV2(to, from)));
	
	Quad line_quad = {
		.points = {
			AddV2(from, MulV2F(normal, line_width)),  // upper left
			AddV2(to, MulV2F(normal, line_width)),    // upper right
			AddV2(to, MulV2F(normal, -line_width)),   // lower right
			AddV2(from, MulV2F(normal, -line_width)), // lower left
		}
	};
	colorquad(!in_screen_space, line_quad, color);
}

#ifdef DEVTOOLS
bool show_devtools = true;
#ifdef PROFILING
extern bool profiling;
#else
bool profiling;
#endif
#endif

Color debug_color = {1,0,0,1};

#define dbgcol(col) DeferLoop(debug_color = col, debug_color = RED)

void dbgsquare(Vec2 at)
{
#ifdef DEVTOOLS
	if (!show_devtools) return;
	colorquad(true, quad_centered(at, V2(3.0, 3.0)), debug_color);
#else
	(void)at;
#endif
}

void dbgbigsquare(Vec2 at)
{
#ifdef DEVTOOLS
	if (!show_devtools) return;
	colorquad(true, quad_centered(at, V2(20.0, 20.0)), BLUE);
#else
	(void)at;
#endif
}

void dbgline(Vec2 from, Vec2 to)
{
#ifdef DEVTOOLS
	if (!show_devtools) return;
	line(from, to, 0.5f, debug_color);
#else
	(void)from;
	(void)to;
#endif
}

void dbgvec(Vec2 from, Vec2 vec)
{
	Vec2 to = AddV2(from, vec);
	dbgline(from, to);
}

// in world space
void dbgrect(AABB rect)
{
#ifdef DEVTOOLS
	if (!show_devtools) return;
	if (!aabb_is_valid(rect))
	{
		dbgsquare(rect.upper_left);
	}
	else
	{
		const float line_width = 0.5;
		Color col = debug_color;
		Quad q = quad_aabb(rect);
		line(q.ul, q.ur, line_width, col);
		line(q.ur, q.lr, line_width, col);
		line(q.lr, q.ll, line_width, col);
		line(q.ll, q.ul, line_width, col);
	}
#else
	(void)rect;
#endif
}

// from_point is for knockback
void request_do_damage(Entity *to, Entity *from, float damage)
{
	Vec2 from_point = from->pos;
	if (to == NULL) return;
	if (to->is_bullet)
	{
		Vec2 norm = NormV2(SubV2(to->pos, from_point));
		dbgvec(from_point, norm);
		to->vel = ReflectV2(to->vel, norm);
		dbgprint("deflecitng\n");
	}
	else if (true)
	{
		// damage processing is done in process perception so in training, has accurate values for
		// NPC health
		if (to->is_character)
		{
			to->damage += damage;
		}
		else
		{
			if (from->is_character)
			{
				process_perception(to, (Perception) { .type = PlayerAction, .player_action_type = ACT_hits_npc, .damage_done = damage, }, player);
			}
			else
			{
				process_perception(to, (Perception) { .type = EnemyAction, .enemy_action_type = ACT_hits_npc, .damage_done = damage, }, player);
			}
		}
		to->vel = MulV2F(NormV2(SubV2(to->pos, from_point)), 15.0f);
	}
	else
	{
		Log("Can't do damage to npc...\n");
	}
}


typedef struct TextParams
{
	bool world_space;
	bool dry_run;
	const char *text;
	Vec2 pos;
	Color color;
	float scale;
	AABB clip_to; // if in world space, in world space. In space of pos given
	Color *colors; // color per character, if not null must be array of same length as text
	bool do_clipping;
} TextParams;

// returns bounds. To measure text you can set dry run to true and get the bounds
AABB draw_text(TextParams t)
{
	size_t text_len = strlen(t.text);
	AABB bounds = { 0 };
	float y = 0.0;
	float x = 0.0;
	for (int i = 0; i < text_len; i++)
	{
		stbtt_aligned_quad q;
		float old_y = y;
		stbtt_GetBakedQuad(cdata, 512, 512, t.text[i]-32, &x, &y, &q, 1);
		float difference = y - old_y;
		y = old_y + difference;

		Vec2 size = V2(q.x1 - q.x0, q.y1 - q.y0);
		if (t.text[i] == '\n')
		{
#ifdef DEVTOOLS
			y += font_size*0.75f; // arbitrary, only debug t.text has newlines
			x = 0.0;
#else
			assert(false);
#endif
		}
		if (size.Y > 0.0 && size.X > 0.0)
		{ // spaces (and maybe other characters) produce quads of size 0
			Quad to_draw = {
				.points = {
					AddV2(V2(q.x0, -q.y0), V2(0.0f, 0.0f)),
					AddV2(V2(q.x0, -q.y0), V2(size.X, 0.0f)),
					AddV2(V2(q.x0, -q.y0), V2(size.X, -size.Y)),
					AddV2(V2(q.x0, -q.y0), V2(0.0f, -size.Y)),
				},
			};

			for (int i = 0; i < 4; i++)
			{
				to_draw.points[i] = MulV2F(to_draw.points[i], t.scale);
			}

			AABB font_atlas_region = (AABB)
			{
				.upper_left = V2(q.s0, q.t0),
					.lower_right = V2(q.s1, q.t1),
			};
			font_atlas_region.upper_left.X *= img_size(image_font).X;
			font_atlas_region.lower_right.X *= img_size(image_font).X;
			font_atlas_region.upper_left.Y *= img_size(image_font).Y;
			font_atlas_region.lower_right.Y *= img_size(image_font).Y;

			for (int i = 0; i < 4; i++)
			{
				bounds.upper_left.X = fminf(bounds.upper_left.X, to_draw.points[i].X);
				bounds.upper_left.Y = fmaxf(bounds.upper_left.Y, to_draw.points[i].Y);
				bounds.lower_right.X = fmaxf(bounds.lower_right.X, to_draw.points[i].X);
				bounds.lower_right.Y = fminf(bounds.lower_right.Y, to_draw.points[i].Y);
			}

			for (int i = 0; i < 4; i++)
			{
				to_draw.points[i] = AddV2(to_draw.points[i], t.pos);
			}

			if (!t.dry_run)
			{
				Color col = t.color;
				if (t.colors)
				{
					col = t.colors[i];
				}

				if (false) // drop shadow, don't really like it
					if (t.world_space)
					{
						Quad shadow_quad = to_draw;
						for (int i = 0; i < 4; i++)
						{
							shadow_quad.points[i] = AddV2(shadow_quad.points[i], V2(0.0, -1.0));
						}
						draw_quad((DrawParams) { t.world_space, shadow_quad, image_font, font_atlas_region, (Color) { 0.0f, 0.0f, 0.0f, 0.4f }, t.clip_to, .layer = LAYER_UI_FG, .do_clipping = t.do_clipping });
					}

				draw_quad((DrawParams) { t.world_space, to_draw, image_font, font_atlas_region, col, t.clip_to, .layer = LAYER_UI_FG, .do_clipping = t.do_clipping });
			}
		}
	}

	bounds.upper_left = AddV2(bounds.upper_left, t.pos);
	bounds.lower_right = AddV2(bounds.lower_right, t.pos);
	return bounds;
}

AABB draw_centered_text(TextParams t)
{
	if(t.scale <= 0.01f) return (AABB){0};
	t.dry_run = true;
	AABB text_aabb = draw_text(t);
	t.dry_run = false;
	Vec2 center_pos = t.pos;
	t.pos = AddV2(center_pos, MulV2F(aabb_size(text_aabb), -0.5f));
	return draw_text(t);
}

int sorting_key_at(Vec2 pos)
{
	return -(int)pos.y;
}

void draw_shadow_for(DrawParams d)
{
	Quad sheared_quad = d.quad;
	float height = d.quad.ur.y - d.quad.lr.y;
	Vec2 shear_addition = V2(-height*0.35f, -height*0.2f);
	sheared_quad.ul = AddV2(sheared_quad.ul, shear_addition);
	sheared_quad.ur = AddV2(sheared_quad.ur, shear_addition);
	d.quad = sheared_quad;
	d.tint = (Color) { 0, 0, 0, 0.2f };
	d.sorting_key -= 1;
	d.alpha_clip_threshold = 0.0f;
	dbgline(sheared_quad.ul, sheared_quad.ur);
	dbgline(sheared_quad.ur, sheared_quad.lr);
	dbgline(sheared_quad.lr, sheared_quad.ll);
	dbgline(sheared_quad.ll, sheared_quad.ul);
	draw_quad(d);
}

//void draw_animated_sprite(AnimatedSprite *s, double elapsed_time, bool flipped, Vec2 pos, Color tint)
void draw_animated_sprite(DrawnAnimatedSprite d)
{
	AnimatedSprite *s = GET_TABLE_PTR(sprites, d.anim);
	sg_image spritesheet_img = *GET_TABLE(anim_img_table, d.anim);

	d.pos = AddV2(d.pos, s->offset);
	int index = (int)floor(d.elapsed_time / s->time_per_frame) % s->num_frames;
	if (s->no_wrap)
	{
		index = (int)floor(d.elapsed_time / s->time_per_frame);
		if (index >= s->num_frames) index = s->num_frames - 1;
	}

	Quad q = quad_centered(d.pos, s->region_size);

	if (d.flipped)
	{
		swap(&q.points[0], &q.points[1]);
		swap(&q.points[3], &q.points[2]);
	}

	AABB region;
	region.upper_left = AddV2(s->start, V2(index * s->horizontal_diff_btwn_frames, 0.0f));
	float width = img_size(spritesheet_img).X;
	while (region.upper_left.X >= width)
	{
		region.upper_left.X -= width;
		region.upper_left.Y += s->region_size.Y;
	}
	region.lower_right = AddV2(region.upper_left, s->region_size);

	DrawParams drawn = (DrawParams) { true, q, spritesheet_img, region, d.tint, .sorting_key = sorting_key_at(d.pos), .layer = LAYER_WORLD, };
	if (!d.no_shadow) draw_shadow_for(drawn);
	draw_quad(drawn);
}

// gets aabbs overlapping the input aabb, including gs.entities and tiles
Overlapping get_overlapping(Level *l, AABB aabb)
{
	Overlapping to_return = { 0 };

	Quad q = quad_aabb(aabb);
	// the corners, jessie
	PROFILE_SCOPE("checking the corners")
		for (int i = 0; i < 4; i++)
		{
			TileCoord to_check = world_to_tilecoord(q.points[i]);
			TileInstance t = get_tile_layer(l, 2, to_check);
			if (is_tile_solid(t))
			{
				Overlap element = ((Overlap) { .is_tile = true, .t = t });
				//{ (&to_return)[(&to_return)->cur_index++] = element; assert((&to_return)->cur_index < ARRLEN((&to_return)->data)); }
				BUFF_APPEND(&to_return, element);
			}
		}

	// the gs.entities jessie
	PROFILE_SCOPE("checking the entities")
		ENTITIES_ITER(gs.entities)
		{
			if (!(it->is_character && it->is_rolling) && overlapping(aabb, entity_aabb(it)))
			{
				BUFF_APPEND(&to_return, (Overlap) { .e = it });
			}
		}

	return to_return;
}

typedef struct CollisionInfo
{
	bool happened;
	Vec2 normal;
}CollisionInfo;

typedef struct MoveSlideParams
{
	Entity *from;
	Vec2 position;
	Vec2 movement_this_frame;

	// optional
	bool dont_collide_with_entities;
	CollisionInfo *col_info_out;
} MoveSlideParams;


// returns new pos after moving and sliding against collidable things
Vec2 move_and_slide(MoveSlideParams p)
{
	Vec2 collision_aabb_size = entity_aabb_size(p.from);
	Vec2 new_pos = AddV2(p.position, p.movement_this_frame);

	assert(collision_aabb_size.x > 0.0f);
	assert(collision_aabb_size.y > 0.0f);
	AABB at_new = centered_aabb(new_pos, collision_aabb_size);
	BUFF(AABB, 256) to_check = { 0 };



	// add tilemap boxes
	{
		Vec2 at_new_size_vector = SubV2(at_new.lower_right, at_new.upper_left);
		Vec2 points_to_check[] = {
			AddV2(at_new.upper_left, V2(0.0, 0.0)),
			AddV2(at_new.upper_left, V2(at_new_size_vector.X, 0.0)),
			AddV2(at_new.upper_left, V2(at_new_size_vector.X, at_new_size_vector.Y)),
			AddV2(at_new.upper_left, V2(0.0, at_new_size_vector.Y)),
		};
		for (int i = 0; i < ARRLEN(points_to_check); i++)
		{
			Vec2 *it = &points_to_check[i];
			TileCoord tilecoord_to_check = world_to_tilecoord(*it);

			if (is_tile_solid(get_tile_layer(&level_level0, 2, tilecoord_to_check)))
			{
				AABB t = tile_aabb(tilecoord_to_check);
				BUFF_APPEND(&to_check, t);
			}
		}
	}


	// add entity boxes
	if (!p.dont_collide_with_entities && !(p.from->is_character && p.from->is_rolling))
	{
		ENTITIES_ITER(gs.entities)
		{
			if (!(it->is_character && it->is_rolling) && it != p.from && !(it->is_npc && it->dead) && !it->is_item)
			{
				BUFF_APPEND(&to_check, centered_aabb(it->pos, entity_aabb_size(it)));
			}
		}
	}

	// here we do some janky C stuff to resolve collisions with the closest
	// box first, because doing so is a simple heuristic to avoid depenetrating and losing
	// sideways velocity. It's visual and I can't put diagrams in code so uh oh!

	typedef BUFF(AABB, 32) OverlapBuff;
	OverlapBuff actually_overlapping = { 0 };

	BUFF_ITER(AABB, &to_check)
	{
		if (overlapping(at_new, *it))
		{
			BUFF_APPEND(&actually_overlapping, *it);
		}
	}


	float smallest_distance = FLT_MAX;
	int smallest_aabb_index = 0;
	int i = 0;
	BUFF_ITER(AABB, &actually_overlapping)
	{
		float cur_dist = LenV2(SubV2(aabb_center(at_new), aabb_center(*it)));
		if (cur_dist < smallest_distance) {
			smallest_distance = cur_dist;
			smallest_aabb_index = i;
		}
		i++;
	}


	OverlapBuff overlapping_smallest_first = { 0 };
	if (actually_overlapping.cur_index > 0)
	{
		BUFF_APPEND(&overlapping_smallest_first, actually_overlapping.data[smallest_aabb_index]);
	}
	BUFF_ITER_I(AABB, &actually_overlapping, i)
	{
		if (i == smallest_aabb_index)
		{
		}
		else
		{
			BUFF_APPEND(&overlapping_smallest_first, *it);
		}
	}

	// overlapping
	BUFF_ITER(AABB, &overlapping_smallest_first)
	{
		dbgcol(GREEN)
		{
			dbgrect(*it);
		}
	}


	//overlapping_smallest_first = actually_overlapping;

	BUFF_ITER(AABB, &actually_overlapping)
		dbgcol(WHITE)
		dbgrect(*it);

	BUFF_ITER(AABB, &overlapping_smallest_first)
		dbgcol(WHITE)
		dbgsquare(aabb_center(*it));

	CollisionInfo info = { 0 };
	for (int col_iter_i = 0; col_iter_i < 1; col_iter_i++)
		BUFF_ITER(AABB, &overlapping_smallest_first)
		{
			AABB to_depenetrate_from = *it;
			int iters_tried_to_push_apart = 0;
			while (overlapping(to_depenetrate_from, at_new) && iters_tried_to_push_apart < 500)
			{
				const float move_dist = 0.1f;

				info.happened = true;
				Vec2 from_point = aabb_center(to_depenetrate_from);
				Vec2 to_player = NormV2(SubV2(aabb_center(at_new), from_point));
				Vec2 compass_dirs[4] = {
					V2(1.0, 0.0),
					V2(-1.0, 0.0),
					V2(0.0,  1.0),
					V2(0.0, -1.0),
				};
				int closest_index = -1;
				float closest_dot = -99999999.0f;
				for (int i = 0; i < 4; i++)
				{
					float dot = DotV2(compass_dirs[i], to_player);
					if (dot > closest_dot)
					{
						closest_index = i;
						closest_dot = dot;
					}
				}
				assert(closest_index != -1);
				Vec2 move_dir = compass_dirs[closest_index];
				info.normal = move_dir;
				dbgvec(from_point, MulV2F(move_dir, 30.0f));
				Vec2 move = MulV2F(move_dir, move_dist);
				at_new.upper_left = AddV2(at_new.upper_left, move);
				at_new.lower_right = AddV2(at_new.lower_right, move);
				iters_tried_to_push_apart++;
			}
		}

	if (p.col_info_out) *p.col_info_out = info;

	Vec2 result_pos = aabb_center(at_new);
	dbgrect(centered_aabb(result_pos, collision_aabb_size));
	return result_pos;
}

typedef struct
{
	bool dry_run;
	Vec2 at_point;
	float max_width;
	char *text;
	Color *colors;
	float text_scale;
	AABB clip_to;
	bool do_clipping;

	bool screen_space;
} WrappedTextParams;

// returns next vertical cursor position
float draw_wrapped_text(WrappedTextParams p)
{
	char *sentence_to_draw = p.text;
	size_t sentence_len = strlen(sentence_to_draw);

	Vec2 cursor = p.at_point;
	while (sentence_len > 0)
	{
		char line_to_draw[MAX_SENTENCE_LENGTH] = { 0 };
		Color colors_to_draw[MAX_SENTENCE_LENGTH] = { 0 };
		size_t chars_from_sentence = 0;
		AABB line_bounds = { 0 };
		while (chars_from_sentence <= sentence_len)
		{
			memset(line_to_draw, 0, MAX_SENTENCE_LENGTH);
			memcpy(line_to_draw, sentence_to_draw, chars_from_sentence);

			line_bounds = draw_text((TextParams) { !p.screen_space, true, line_to_draw, cursor, BLACK, p.text_scale, p.clip_to, .do_clipping = p.do_clipping});
			if (line_bounds.lower_right.X > p.at_point.X + p.max_width)
			{
				// too big
				if (chars_from_sentence <= 0) chars_from_sentence = 1; // @CREDIT(warehouse56) always draw at least one character, if there's not enough room
				chars_from_sentence -= 1;
				break;
			}
			chars_from_sentence += 1;
		}
		if (chars_from_sentence > sentence_len) chars_from_sentence--;
		memset(line_to_draw, 0, MAX_SENTENCE_LENGTH);
		memcpy(line_to_draw, sentence_to_draw, chars_from_sentence);
		memcpy(colors_to_draw, p.colors, chars_from_sentence*sizeof(Color));

		//float line_height = line_bounds.upper_left.Y - line_bounds.lower_right.Y;
		float line_height = font_line_advance * p.text_scale;
		AABB drawn_bounds = draw_text((TextParams) { !p.screen_space, p.dry_run, line_to_draw, AddV2(cursor, V2(0.0f, -line_height)), BLACK, p.text_scale, p.clip_to, colors_to_draw, .do_clipping = p.do_clipping});
		if (!p.dry_run) dbgrect(drawn_bounds);

		// caught a random infinite loop in the debugger, this will stop it
		assert(chars_from_sentence >= 0); // defensive programming
		if (chars_from_sentence == 0)
		{
			break;
		}

		sentence_len -= chars_from_sentence;
		sentence_to_draw += chars_from_sentence;
		p.colors += chars_from_sentence;
		cursor = V2(drawn_bounds.upper_left.X, drawn_bounds.lower_right.Y);
	}

	return cursor.Y;
}

Sentence *last_said_sentence(Entity *npc)
{
	BUFF_ITER_I(Perception, &npc->remembered_perceptions, i)
	{
		bool is_last_said = i == npc->remembered_perceptions.cur_index - 1;
		if (is_last_said && it->type == NPCDialog)
		{
			return &it->npc_dialog;
		}
	}
	return 0;
}

typedef enum
{
	DELEM_NPC,
	DELEM_PLAYER,
	DELEM_ACTION_DESCRIPTION,
} DialogElementKind;

typedef struct
{
	Sentence s;
	DialogElementKind kind;
} DialogElement;

// Some perceptions can have multiple dialog elements.
// Like item give perceptions that have an action with both dialog
// and an argument. So worst case every perception has 2 dialog
// elements right now is why it's *2
typedef BUFF(DialogElement, REMEMBERED_PERCEPTIONS*2) Dialog;
Dialog produce_dialog(Entity *talking_to, bool character_names)
{
	assert(talking_to->is_npc);
	Dialog to_return = { 0 };
	BUFF_ITER(Perception, &talking_to->remembered_perceptions)
	{
		if (it->type == NPCDialog)
		{
			Sentence to_say = (Sentence) { 0 };

			if (it->npc_action_type == ACT_give_item)
			{
				DialogElement new = { 0 };
				printf_buff(&new.s, "%s gave %s to you", characters[talking_to->npc_kind].name, items[it->given_item].name);
				new.kind = DELEM_ACTION_DESCRIPTION;
				BUFF_APPEND(&to_return, new);
			}

			if (character_names)
			{
				append_str(&to_say, characters[talking_to->npc_kind].name);
				append_str(&to_say, ": ");
			}

			Sentence *last_said = last_said_sentence(talking_to);
			if (last_said == &it->npc_dialog)
			{
				for (int i = 0; i < min(it->npc_dialog.cur_index, (int)talking_to->characters_said); i++)
				{
					BUFF_APPEND(&to_say, it->npc_dialog.data[i]);
				}
			}
			else
			{
				append_str(&to_say, it->npc_dialog.data);
			}
			BUFF_APPEND(&to_return, ((DialogElement) { .s = to_say, .kind = DELEM_NPC }));
		}
		else if (it->type == PlayerAction)
		{
			if (it->player_action_type == ACT_give_item)
			{
				DialogElement new = { 0 };
				printf_buff(&new.s, "You gave %s to the NPC", items[it->given_item].name);
				new.kind = DELEM_ACTION_DESCRIPTION;
				BUFF_APPEND(&to_return, new);
			}
		}
		else if (it->type == PlayerDialog)
		{
			Sentence to_say = (Sentence) { 0 };
			if (character_names)
			{
				append_str(&to_say, "Player: ");
			}
			append_str(&to_say, it->player_dialog.data);
			BUFF_APPEND(&to_return, ((DialogElement) { .s = to_say, .kind = DELEM_PLAYER }));
		}
	}
	return to_return;
}

// trail is buffer of vec2s
Vec2 get_point_along_trail(BuffRef trail, float along)
{
	assert(trail.data_elem_size == sizeof(Vec2));
	assert(*trail.cur_index > 1);

	Vec2 *arr = (Vec2*)trail.data;

	int cur = *trail.cur_index - 1;
	while(cur > 0)
	{
		Vec2 from = arr[cur];
		Vec2 to = arr[cur - 1];
		Vec2 cur_segment = SubV2(to, from);
		float len = LenV2(cur_segment);
		if(len < along)
		{
			along -= len;
		}
		else
		{
			return LerpV2(from, along/len, to);
		}
		cur -= 1;
	}
	return arr[*trail.cur_index - 1];
}
float get_total_trail_len(BuffRef trail)
{
	assert(trail.data_elem_size == sizeof(Vec2));

	if(*trail.cur_index <= 1)
	{
		return 0.0f;
	}
	else
	{
		float to_return = 0.0f;
		Vec2 *arr = (Vec2*)trail.data;
		for(int i = 0; i < *trail.cur_index - 1; i++)
		{
			to_return += LenV2(SubV2(arr[i], arr[i+1]));
		}
		return to_return;
	}
}

Vec2 mouse_pos = { 0 }; // in screen space

void draw_dialog_panel(Entity *talking_to, float alpha)
{
	float panel_width = 250.0f;
	float panel_height = 150.0f;
	float panel_vert_offset = 30.0f;


	AABB dialog_panel = (AABB) {
		.upper_left = AddV2(talking_to->pos, V2(-panel_width / 2.0f, panel_vert_offset + panel_height)),
			.lower_right = AddV2(talking_to->pos, V2(panel_width / 2.0f, panel_vert_offset)),
	};
	AABB constrict_to = world_cam_aabb();
	dialog_panel.upper_left.x = fmaxf(constrict_to.upper_left.x, dialog_panel.upper_left.x);
	dialog_panel.lower_right.y = fmaxf(constrict_to.lower_right.y, dialog_panel.lower_right.y);
	dialog_panel.upper_left.y = fminf(constrict_to.upper_left.y, dialog_panel.upper_left.y);
	dialog_panel.lower_right.x = fminf(constrict_to.lower_right.x, dialog_panel.lower_right.x);

	if (aabb_is_valid(dialog_panel))
	{
		Quad dialog_quad = quad_aabb(dialog_panel);
		float line_width = 2.0f;
		Quad panel_quad = dialog_quad;
		{
			float inset = line_width;
			panel_quad.ul = AddV2(panel_quad.ul, V2(inset,  -inset));
			panel_quad.ll = AddV2(panel_quad.ll, V2(inset,   inset));
			panel_quad.lr = AddV2(panel_quad.lr, V2(-inset,  inset));
			panel_quad.ur = AddV2(panel_quad.ur, V2(-inset, -inset));
		}
		colorquad(true, panel_quad, (Color) { 1.0f, 1.0f, 1.0f, 0.7f*alpha });
		Color line_color = (Color) { 0, 0, 0, alpha };
		line(AddV2(dialog_quad.ul, V2(-line_width, 0.0)), AddV2(dialog_quad.ur, V2(line_width, 0.0)), line_width, line_color);
		line(dialog_quad.ur, dialog_quad.lr, line_width, line_color);
		line(AddV2(dialog_quad.lr, V2(line_width, 0.0)), AddV2(dialog_quad.ll, V2(-line_width, 0.0)), line_width, line_color);
		line(dialog_quad.ll, dialog_quad.ul, line_width, line_color);

		float padding = 5.0f;
		dialog_panel.upper_left = AddV2(dialog_panel.upper_left, V2(padding, -padding));
		dialog_panel.lower_right = AddV2(dialog_panel.lower_right, V2(-padding, padding));

		if (aabb_is_valid(dialog_panel))
		{
			float new_line_height = dialog_panel.lower_right.Y;

			Dialog dialog = produce_dialog(talking_to, false);
			if (dialog.cur_index > 0)
			{
				for (int i = dialog.cur_index - 1; i >= 0; i--)
				{
					DialogElement *it = &dialog.data[i];
					{
						Color *colors = calloc(sizeof(*colors), it->s.cur_index);
						for (int char_i = 0; char_i < it->s.cur_index; char_i++)
						{
							if (it->kind == DELEM_PLAYER)
							{
								colors[char_i] = BLACK;
							}
							else if (it->kind == DELEM_NPC)
							{
								colors[char_i] = colhex(0x345e22);
							}
							else if (it->kind == DELEM_ACTION_DESCRIPTION)
							{
								colors[char_i] = colhex(0xb5910e);
							}
							else
							{
								assert(false);
							}
							colors[char_i] = blendalpha(colors[char_i], alpha);
						}
						float measured_line_height = draw_wrapped_text((WrappedTextParams) { true, V2(dialog_panel.upper_left.X, new_line_height), dialog_panel.lower_right.X - dialog_panel.upper_left.X, it->s.data, colors, 0.5f, .clip_to = dialog_panel, .do_clipping = true});
						new_line_height += (new_line_height - measured_line_height);
						draw_wrapped_text((WrappedTextParams) { false, V2(dialog_panel.upper_left.X, new_line_height), dialog_panel.lower_right.X - dialog_panel.upper_left.X, it->s.data, colors, 0.5f, dialog_panel, .do_clipping = true });

						free(colors);
					}
				}
			}

			dbgrect(dialog_panel);
		}
	}
}


#define ROLL_KEY SAPP_KEYCODE_LEFT_SHIFT
double elapsed_time = 0.0;
double unwarped_elapsed_time = 0.0;
double last_frame_processing_time = 0.0;
uint64_t last_frame_time;

typedef struct
{
	bool interact;
	bool mouse_down;
	bool mouse_up;

	bool speak_shortcut;
	bool give_shortcut;
} PressedState;

PressedState pressed = { 0 };
bool mouse_down = false;
float learned_shift = 0.0;
float learned_space = 0.0;
float learned_e = 0.0;
#ifdef DEVTOOLS
bool mouse_frozen = false;
#endif

typedef struct
{
	float pressed_amount; // for buttons, 0.0 is completely unpressed (up), 1.0 is completely depressed (down)
	bool is_being_pressed;
} IMState;

struct { int key; IMState value; } *imui_state = 0;

bool imbutton_key(AABB button_aabb, float text_scale, const char *text, int key, float dt, bool force_down)
{
	IMState state = hmget(imui_state, key);

	float raise = Lerp(0.0f, state.pressed_amount, 5.0f);
	button_aabb.upper_left.y += raise;
	button_aabb.lower_right.y += raise;

	bool to_return = false;
	float pressed_target = 0.5f;
	if (has_point(button_aabb, mouse_pos))
	{
		if (pressed.mouse_down)
		{
			state.is_being_pressed = true;
		}

		pressed_target = 1.0f; // when hovering button like pops out a bit

		if (pressed.mouse_up) to_return = true; // when mouse released, and hovering over button, this is a button press - Lao Tzu
	}
	if (pressed.mouse_up) state.is_being_pressed = false;

	if (state.is_being_pressed || force_down) pressed_target = 0.0f;

	state.pressed_amount = Lerp(state.pressed_amount, dt*20.0f, pressed_target);

	float button_alpha = Lerp(0.5f, state.pressed_amount, 1.0f);

	if (aabb_is_valid(button_aabb))
	{
		draw_quad((DrawParams) { false, quad_aabb(button_aabb), IMG(image_white_square), blendalpha(WHITE, button_alpha), .layer = LAYER_UI, });
		draw_centered_text((TextParams) { false, false, text, aabb_center(button_aabb), BLACK, text_scale, .clip_to = button_aabb, .do_clipping = true });
	}

	hmput(imui_state, key, state);
	return to_return;
}

#define imbutton(...) imbutton_key(__VA_ARGS__, __LINE__, unwarped_dt, false)

void draw_item(bool world_space, ItemKind kind, AABB in_aabb, float alpha)
{
	Quad drawn = quad_aabb(in_aabb);
	if (kind == ITEM_Tripod)
	{
		draw_quad((DrawParams) { world_space, drawn, IMG(image_tripod), blendalpha(WHITE, alpha), .layer = LAYER_UI_FG });
	}
	else if (kind == ITEM_Boots)
	{
		draw_quad((DrawParams) { world_space, drawn, IMG(image_boots), blendalpha(WHITE, alpha), .layer = LAYER_UI_FG });
	}
	else if (kind == ITEM_Chalice)
	{
		draw_quad((DrawParams) { world_space, drawn, IMG(image_chalice), blendalpha(WHITE, alpha), .layer = LAYER_UI_FG });
	}
	else if (kind == ITEM_GoldCoin)
	{
		draw_quad((DrawParams) { world_space, drawn, IMG(image_gold_coin), blendalpha(WHITE, alpha), .layer = LAYER_UI_FG });
	}
	else if (kind == ITEM_WhiteSquare)
	{
		colorquad(world_space, drawn, blendalpha(WHITE, alpha));
	}
	else
	{
		assert(false);
	}
}

void frame(void)
{
	static float speed_factor = 1.0f;
	// elapsed_time
	double unwarped_dt_double = 0.0;
	{
		unwarped_dt_double = stm_sec(stm_diff(stm_now(), last_frame_time));
		unwarped_dt_double = fmin(unwarped_dt_double, MINIMUM_TIMESTEP * 5.0); // clamp dt at maximum 5 frames, avoid super huge dt
		elapsed_time += unwarped_dt_double*speed_factor;
		unwarped_elapsed_time += unwarped_dt_double;
		last_frame_time = stm_now();
	}
	double dt_double = unwarped_dt_double*speed_factor;
	float unwarped_dt = (float)unwarped_dt_double;
	float dt = (float)dt_double;

#if 0
	{
		printf("Frametime: %.1f ms\n", dt*1000.0);
		sg_begin_default_pass(&state.pass_action, sapp_width(), sapp_height());
		sg_apply_pipeline(state.pip);

		//colorquad(false, quad_at(V2(0.0, 100.0), V2(100.0f, 100.0f)), RED);
		sg_image img = image_white_square;
		AABB region = full_region(img);
		//region.lower_right.X *= 0.5f;
		draw_quad((DrawParams) { false, quad_at(V2(0.0, 100.0), V2(100.0f, 100.0f)), img, region, WHITE });


		flush_quad_batch();
		sg_end_pass();
		sg_commit();
		reset(&scratch);
	}
	return;
#endif

	PROFILE_SCOPE("frame")
	{

		// better for vertical aspect ratios
		if (screen_size().x < 0.7f*screen_size().y)
		{
			cam.scale = 2.3f;
		}
		else
		{
			cam.scale = 2.0f;
		}


		uint64_t time_start_frame = stm_now();

		Vec2 movement = { 0 };
		bool attack = false;
		bool roll = false;
		bool interact = false;
		if (mobile_controls)
		{
			movement = SubV2(thumbstick_nub_pos, thumbstick_base_pos);
			if (LenV2(movement) > 0.0f)
			{
				movement = MulV2F(NormV2(movement), LenV2(movement) / (thumbstick_base_size()*0.5f));
			}
			attack = mobile_attack_pressed;
			roll = mobile_roll_pressed;
			interact = pressed.interact;
		}
		else
		{
			movement = V2(
					(float)keydown[SAPP_KEYCODE_D] - (float)keydown[SAPP_KEYCODE_A],
					(float)keydown[SAPP_KEYCODE_W] - (float)keydown[SAPP_KEYCODE_S]
					);
			attack = keydown[SAPP_KEYCODE_SPACE];
#ifdef DEVTOOLS
			attack = attack || keydown[SAPP_KEYCODE_LEFT_CONTROL];
#endif
			roll = keydown[ROLL_KEY];
			interact = pressed.interact;
		}
		if (LenV2(movement) > 1.0)
		{
			movement = NormV2(movement);
		}

		sg_begin_default_pass(&state.pass_action, sapp_width(), sapp_height());
		sg_apply_pipeline(state.pip);

		Level *cur_level = &level_level0;

		// Draw Tilemap draw tilemap tilemap drawing
#if 1
		PROFILE_SCOPE("tilemap")
		{
			Vec2 starting_world = AddV2(world_cam_aabb().upper_left, V2(-TILE_SIZE, TILE_SIZE));
			Vec2 ending_world = AddV2(world_cam_aabb().lower_right, V2(TILE_SIZE, -TILE_SIZE));

			TileCoord starting_point = world_to_tilecoord(starting_world);
			TileCoord ending_point = world_to_tilecoord(ending_world);

			int starting_row = starting_point.y;
			int ending_row = ending_point.y;

			int starting_col = starting_point.x;
			int ending_col = ending_point.x;

			for (int layer = 0; layer < LAYERS; layer++)
			{
				for (int row = starting_row; row < ending_row; row++)
				{
					for (int col = starting_col; col < ending_col; col++)
					{
						TileCoord cur_coord = { col, row };
						TileInstance cur = get_tile_layer(cur_level, layer, cur_coord);

						int tileset_i = 0;
						uint16_t max_gid = 0;
						for (int i = 0; i < ARRLEN(tilesets); i++)
						{
							TileSet tileset = tilesets[i];
							if (cur.kind > tileset.first_gid && tileset.first_gid > max_gid)
							{
								tileset_i = i;
								max_gid = tileset.first_gid;
							}
						}

						TileSet tileset = tilesets[tileset_i];
						cur.kind -= tileset.first_gid - 1;

						if (cur.kind != 0)
						{
							Vec2 tile_size = V2(TILE_SIZE, TILE_SIZE);

							sg_image tileset_image = *tileset.img;

							Vec2 tile_image_coord = tile_id_to_coord(tileset_image, tile_size, cur.kind);

							AnimatedTile *anim = NULL;
							for (int i = 0; i < sizeof(tileset.animated) / sizeof(*tileset.animated); i++)
							{
								if (tileset.animated[i].exists && tileset.animated[i].id_from == cur.kind-1)
								{
									anim = &tileset.animated[i];
								}
							}
							if (anim)
							{
								double time_per_frame = 0.1;
								int frame_index = (int)(elapsed_time / time_per_frame) % anim->num_frames;
								tile_image_coord = tile_id_to_coord(tileset_image, tile_size, anim->frames[frame_index] + 1);
							}

							AABB region;
							region.upper_left = tile_image_coord;
							region.lower_right = AddV2(region.upper_left, tile_size);

							draw_quad((DrawParams) { true, tile_quad(cur_coord), tileset_image, region, WHITE, .layer = LAYER_TILEMAP });
						}
					}
				}
			}
		}
#endif

		assert(player != NULL);

		// gameplay processing loop, do multiple if lagging
		// these are static so that, on frames where no gameplay processing is necessary and just rendering, the rendering uses values from last frame
		static Entity *interacting_with = 0; // used by rendering to figure out who to draw dialog box on
		static bool player_in_combat = false;
		const float dialog_interact_size = 2.5f * TILE_SIZE;

		float speed_target;
		// pausing the game
		if (player->in_conversation_mode || gs.won)
		{
			speed_target = 0.0f;
		}
		else
		{
			speed_target = 1.0f;
		}
		speed_factor = Lerp(speed_factor, unwarped_dt*10.0f, speed_target);
		if (fabsf(speed_factor - speed_target) <= 0.05f)
		{
			speed_factor = speed_target;
		}
		int num_timestep_loops = 0;
		// restore the pressed state after gameplay loop so pressed input events can be processed in the
		// rendering correctly as well
		PressedState before_gameplay_loops = pressed;
		{
			unprocessed_gameplay_time += unwarped_dt;
			float timestep = fminf(unwarped_dt, (float)MINIMUM_TIMESTEP);
			while (unprocessed_gameplay_time >= timestep)
			{
				num_timestep_loops++;
				unprocessed_gameplay_time -= timestep;
				float unwarped_dt = timestep;
				float dt = unwarped_dt*speed_factor;

				// process gs.entities
				player_in_combat = false; // in combat set by various enemies when they fight the player
				PROFILE_SCOPE("entity processing")
				{
					if(player->knighted)
					{
						gs.won = true;
					}
					ENTITIES_ITER(gs.entities)
					{
						assert(!(it->exists && it->generation == 0));
#ifdef WEB
						if (it->is_npc)
						{
							if (it->gen_request_id != 0)
							{
								assert(it->gen_request_id > 0);
								int status = EM_ASM_INT( {
										return get_generation_request_status($0);
										}, it->gen_request_id);
								if (status == 0)
								{
									// simply not done yet
								}
								else
								{
									if (status == 1)
									{
										// done! we can get the string
										char sentence_str[MAX_SENTENCE_LENGTH] = { 0 };
										EM_ASM( {
												let generation = get_generation_request_content($0);
												stringToUTF8(generation, $1, $2);
												}, it->gen_request_id, sentence_str, ARRLEN(sentence_str));


										// parse out from the sentence NPC action and dialog
										Perception out = { 0 };
#ifdef DO_CHATGPT_PARSING
										bool text_was_well_formatted = parse_chatgpt_response(it, sentence_str, &out);
#else
										bool text_was_well_formatted = parse_ai_response(it, sentence_str, &out);
#endif

										if (text_was_well_formatted)
										{
											process_perception(it, out, player);
										}
										else
										{
											it->perceptions_dirty = true; // on poorly formatted AI, just retry request.
										}

										EM_ASM( {
												done_with_generation_request($0);
												}, it->gen_request_id);
									}
									else if (status == 2)
									{
										Log("Failed to generate dialog! Fuck!\n");
										// need somethin better here. Maybe each sentence has to know if it's player or NPC, that way I can remove the player's dialog
										process_perception(it, (Perception) { .type = NPCDialog, .npc_action_type = ACT_none, .npc_dialog = SENTENCE_CONST("I'm not sure...") }, player);
									}
									else if (status == -1)
									{
										Log("Generation request doesn't exist anymore, that's fine...\n");
									}
									else
									{
										Log("Unknown generation request status: %d\n", status);
									}
									it->gen_request_id = 0;
								}
							}
						}
#endif


						if (fabsf(it->vel.x) > 0.01f)
							it->facing_left = it->vel.x < 0.0f;

						if (it->dead)
						{
							it->dead_time += dt;
						}

						it->being_hovered = false;
						if (player->in_conversation_mode)
						{

							if (has_point(entity_aabb(it), screen_to_world(mouse_pos)))
							{
								it->being_hovered = true;
								if (pressed.mouse_down)
								{
									player->talking_to = frome(it);
									player->state = CHARACTER_TALKING;
								}
							}
						}

						if (it->is_npc)
						{
							// character speech animation text input
							if (true)
							{
								const float characters_per_sec = 35.0f;
								double before = it->characters_said;

								int length = 0;
								if (last_said_sentence(it)) length = last_said_sentence(it)->cur_index;
								if ((int)before < length)
								{
									it->characters_said += characters_per_sec*unwarped_dt;
								}
								else
								{
									it->characters_said = (double)length;
								}

								if ((int)it->characters_said > (int)before)
								{
									float dist = LenV2(SubV2(it->pos, player->pos));
									float volume = Lerp(-0.6f, clamp01(dist / 70.0f), -1.0f);
									play_audio(&sound_simple_talk, volume);
								}
							}


							if(it->standing == STANDING_JOINED)
							{
								int place_in_line = 1;
								Entity *e = it;
								ENTITIES_ITER(gs.entities)
								{
									if(it->is_npc && it->standing == STANDING_JOINED)
									{
										if(it == e) break;
										place_in_line += 1;
									}
								}

								Vec2 target = get_point_along_trail(BUFF_MAKEREF(&player->position_history), (float)place_in_line * TILE_SIZE);

								it->pos = LerpV2(it->pos, dt*5.0f, target);
							}


							// A* and shotgun movement code
							if(false)
							if (it->standing == STANDING_FIGHTING || it->standing == STANDING_JOINED)
							{
								Entity *targeting = player;

/*
G cost: distance from the current node to the start node
H cost: distance from the current node to the target node

G     H
  SUM
F cost: G + H
*/
								Vec2 to = targeting->pos;

								PathCache *cached = get_path_cache(elapsed_time, it->cached_path);
								AStarPath path = { 0 };
								bool succeeded = false;
								if (cached)
								{
									path = cached->path;
									succeeded = true;
								}
								else
								{
									Vec2 from = it->pos;
									typedef struct AStarNode {
										bool exists;
										struct AStarNode * parent;
										bool in_closed_set;
										bool in_open_set;
										float f_score; // total of g score and h score
										float g_score; // distance from the node to the start node
										Vec2 pos;
									} AStarNode;

									BUFF(AStarNode, MAX_ASTAR_NODES) nodes = { 0 };
									struct { Vec2 key; AStarNode *value; } *node_cache = 0;
#define V2_HASH(v) (FloorV2(v))
									const float jump_size = TILE_SIZE / 2.0f;
									BUFF_APPEND(&nodes, ((AStarNode) { .in_open_set = true, .pos = from }));
									Vec2 from_hash = V2_HASH(from);
									float got_there_tolerance = max_coord(entity_aabb_size(player))*1.5f;
									hmput(node_cache, from_hash, &nodes.data[0]);

									bool should_quit = false;
									AStarNode *last_node = 0;
									PROFILE_SCOPE("A* Pathfinding") // astar pathfinding a star
										while (!should_quit)
										{
											int openset_size = 0;
											BUFF_ITER(AStarNode, &nodes) if (it->in_open_set) openset_size += 1;
											if (openset_size == 0)
											{
												should_quit = true;
											}
											else
											{
												AStarNode *current = 0;
												PROFILE_SCOPE("Get lowest fscore astar node in open set")
												{
													float min_fscore = INFINITY;
													int min_fscore_index = -1;
													BUFF_ITER_I(AStarNode, &nodes, i)
														if (it->in_open_set)
														{
															if (it->f_score < min_fscore)
															{
																min_fscore = it->f_score;
																min_fscore_index = i;
															}
														}
													assert(min_fscore_index >= 0);
													current = &nodes.data[min_fscore_index];
													assert(current);
												}

												float length_to_goal = 0.0f;
												PROFILE_SCOPE("get length to goal") length_to_goal = LenV2(SubV2(to, current->pos));

												if (length_to_goal <= got_there_tolerance)
												{
													succeeded = true;
													should_quit = true;
													last_node = current;
												}
												else
												{
													current->in_open_set = false;
													Vec2 neighbor_positions[] = {
														V2(-jump_size, 0.0f),
														V2(jump_size, 0.0f),
														V2(0.0f, jump_size),
														V2(0.0f, -jump_size),

														V2(-jump_size, jump_size),
														V2(jump_size, jump_size),
														V2(jump_size, -jump_size),
														V2(-jump_size, -jump_size),
													};
													ARR_ITER(Vec2, neighbor_positions) *it = AddV2(*it, current->pos);

													Entity *e = it;

													PROFILE_SCOPE("Checking neighbor positions")
														ARR_ITER(Vec2, neighbor_positions)
														{
															Vec2 cur_pos = *it;

															dbgsquare(cur_pos);

															bool would_block_me = false;

															PROFILE_SCOPE("Checking for overlap")
															{
																Overlapping overlapping_at_want = get_overlapping(&level_level0, entity_aabb_at(e, cur_pos));
																BUFF_ITER(Overlap, &overlapping_at_want) if (is_overlap_collision(*it) && !(it->e && it->e == e)) would_block_me = true;
															}

															if (would_block_me)
															{
															}
															else
															{
																AStarNode *existing = 0;
																Vec2 hash = V2_HASH(cur_pos);
																existing = hmget(node_cache, hash);

																if (false)
																	PROFILE_SCOPE("look for existing A* node")
																		BUFF_ITER(AStarNode, &nodes)
																		{
																			if (V2ApproxEq(it->pos, cur_pos))
																			{
																				existing = it;
																				break;
																			}
																		}

																float tentative_gscore = current->g_score + jump_size;
																if (tentative_gscore < (existing ? existing->g_score : INFINITY))
																{
																	if (!existing)
																	{
																		if (!BUFF_HAS_SPACE(&nodes))
																		{
																			should_quit = true;
																			succeeded = false;
																		}
																		else
																		{
																			BUFF_APPEND(&nodes, (AStarNode) { 0 });
																			existing = &nodes.data[nodes.cur_index-1];
																			existing->pos = cur_pos;
																			Vec2 pos_hash = V2_HASH(cur_pos);
																			hmput(node_cache, pos_hash, existing);
																		}
																	}

																	if (existing)
																		PROFILE_SCOPE("estimate heuristic")
																		{
																			existing->parent = current;
																			existing->g_score = tentative_gscore;
																			float h_score = 0.0f;
																			{
																				// diagonal movement heuristic from some article
																				Vec2 curr_cell = *it;
																				Vec2 goal = to;
																				float D = jump_size;
																				float D2 = LenV2(V2(jump_size, jump_size));
																				float dx = fabsf(curr_cell.x - goal.x);
																				float dy = fabsf(curr_cell.y - goal.y);
																				float h = D * (dx + dy) + (D2 - 2 * D) * fminf(dx, dy);

																				h_score += h;
																				// approx distance with manhattan distance
																				//h_score += fabsf(existing->pos.x - to.x) + fabsf(existing->pos.y - to.y);
																			}
																			existing->f_score = tentative_gscore + h_score;
																			existing->in_open_set = true;
																		}
																}
															}
														}
												}
											}
										}

									hmfree(node_cache);
									node_cache = 0;

									// reconstruct path
									if (succeeded)
									{
										assert(last_node);
										AStarNode *cur = last_node;
										while (cur)
										{
											BUFF_PUSH_FRONT(&path, cur->pos);
											cur = cur->parent;
										}
									}

									if (succeeded)
										it->cached_path = cache_path(elapsed_time, &path);
								}

								Vec2 next_point_on_path = { 0 };
								if (succeeded)
								{
									float nearest_dist = INFINITY;
									int nearest_index = -1;
									Entity *from = it;
									BUFF_ITER_I(Vec2, &path, i)
									{
										float dist = LenV2(SubV2(*it, from->pos));
										if (dist < nearest_dist)
										{
											nearest_dist = dist;
											nearest_index = i;
										}
									}
									assert(nearest_index >= 0);
									int target_index = (nearest_index + 1);

									if (target_index >= path.cur_index)
									{
										next_point_on_path = to;
									}
									else
									{
										next_point_on_path = path.data[target_index];
									}
								}

								BUFF_ITER_I(Vec2, &path, i)
								{
									if (i == 0)
									{
									}
									else
									{
										dbgcol(BLUE) dbgline(*it, path.data[i-1]);
									}
								}

								{
									if (npc_attacks_with_sword(it))
									{
										if (fabsf(it->vel.x) > 0.01f)
											it->facing_left = it->vel.x < 0.0f;

										it->pos = move_and_slide((MoveSlideParams) { it, it->pos, MulV2F(it->vel, pixels_per_meter * dt) });
										AABB weapon_aabb = entity_sword_aabb(it, 30.0f, 18.0f);
										Vec2 target_vel = { 0 };
										Overlapping overlapping_weapon = get_overlapping(cur_level, weapon_aabb);
										if (it->swing_timer > 0.0)
										{
											player_in_combat = true;
											it->swing_timer += dt;
											if (it->swing_timer >= anim_sprite_duration(ANIM_skeleton_swing_sword))
											{
												it->swing_timer = 0.0;
											}
											if (it->swing_timer >= 0.4f)
											{
												SwordToDamage to_damage = entity_sword_to_do_damage(it, overlapping_weapon);
												Entity *from = it;
												BUFF_ITER(Entity *, &to_damage)
												{
													request_do_damage(*it, from, DAMAGE_SWORD);
												}
											}
										}
										else
										{
											// in huntin' range
											//it->walking = LenV2(SubV2(player->pos, it->pos)) < 250.0f;
											it->walking = true;
											if (it->walking)
											{
												player_in_combat = true;
												Entity *skele = it;
												BUFF_ITER(Overlap, &overlapping_weapon)
												{
													if (it->e && it->e->is_character)
													{
														skele->swing_timer += dt;
														BUFF_CLEAR(&skele->done_damage_to_this_swing);
													}
												}
												target_vel = MulV2F(NormV2(SubV2(next_point_on_path, it->pos)), PLAYER_ROLL_SPEED);
											}
											else
											{
											}
										}
										it->vel = LerpV2(it->vel, dt*8.0f, target_vel);
									}

									if (npc_attacks_with_shotgun(it))
										if (succeeded)
										{
											Vec2 to_player = NormV2(SubV2(targeting->pos, it->pos));
											Vec2 rotate_direction;
											if (it->direction_of_spiral_pattern)
											{
												rotate_direction = rotate_counter_clockwise(to_player);
											}
											else
											{
												rotate_direction = rotate_clockwise(to_player);
											}
											Vec2 target_vel = NormV2(SubV2(next_point_on_path, it->pos));
											target_vel = MulV2F(target_vel, 3.0f);
											it->vel = LerpV2(it->vel, 15.0f * dt, target_vel);
											CollisionInfo col = { 0 };
											it->pos = move_and_slide((MoveSlideParams) { it, it->pos, MulV2F(it->vel, pixels_per_meter * dt), .col_info_out = &col });
											if (col.happened)
											{
												it->direction_of_spiral_pattern = !it->direction_of_spiral_pattern;
											}

											if (it->standing == STANDING_FIGHTING)
											{
												it->shotgun_timer += dt;
												Vec2 to_player = NormV2(SubV2(targeting->pos, it->pos));
												if (it->shotgun_timer >= 1.0f)
												{
													it->shotgun_timer = 0.0f;
													const float spread = (float)PI / 4.0f;
													// shoot shotgun
													int num_bullets = 5;
													for (int i = 0; i < num_bullets; i++)
													{
														Vec2 dir = to_player;
														float theta = Lerp(-spread / 2.0f, ((float)i / (float)(num_bullets - 1)), spread / 2.0f);
														dir = RotateV2(dir, theta);
														Entity *new_bullet = new_entity();
														new_bullet->is_bullet = true;
														new_bullet->pos = AddV2(it->pos, MulV2F(dir, 20.0f));
														new_bullet->vel = MulV2F(dir, 15.0f);
														it->vel = AddV2(it->vel, MulV2F(dir, -3.0f));
													}
												}
											}

										}
								}
							}
							if (it->npc_kind == NPC_OldMan)
							{
								/*
									 draw_dialog_panel(it);
									 Entity *targeting = player;
									 it->shotgun_timer += dt;
									 Vec2 to_player = NormV2(SubV2(targeting->pos, it->pos));
									 if(it->shotgun_timer >= 1.0f)
									 {
									 it->shotgun_timer = 0.0f;
									 const float spread = (float)PI/4.0f;
								// shoot shotgun
								int num_bullets = 5;
								for(int i = 0; i < num_bullets; i++)
								{
								Vec2 dir = to_player;
								float theta = Lerp(-spread/2.0f, ((float)i / (float)(num_bullets - 1)), spread/2.0f);
								dir = RotateV2(dir, theta);
								Entity *new_bullet = new_entity();
								new_bullet->is_bullet = true;
								new_bullet->pos = AddV2(it->pos, MulV2F(dir, 20.0f));
								new_bullet->vel = MulV2F(dir, 15.0f);
								it->vel = AddV2(it->vel, MulV2F(dir, -3.0f));
								}
								}

								Vec2 target_vel = NormV2(AddV2(rotate_counter_clockwise(to_player), MulV2F(to_player, 0.5f)));
								target_vel = MulV2F(target_vel, 3.0f);
								it->vel = LerpV2(it->vel, 15.0f * dt, target_vel);
								it->pos = move_and_slide((MoveSlideParams){it, it->pos, MulV2F(it->vel, pixels_per_meter * dt)});
								*/
							}
							else if (npc_is_skeleton(it))
							{
								if (it->dead)
								{
								}
								else
								{
								} // skelton combat and movement
							}
							else if (it->npc_kind == NPC_Death)
							{
							}
#if 0
							else if (it->npc_kind == DEATH)
							{
								draw_animated_sprite(&death_idle, elapsed_time, true, AddV2(it->pos, V2(0, 30.0f)), col);
							}
							else if (it->npc_kind == MERCHANT)
							{
								draw_animated_sprite(&merchant_idle, elapsed_time, true, AddV2(it->pos, V2(0, 30.0f)), col);
							}
#endif
							else if (it->npc_kind == NPC_GodRock)
							{
							}
							else if (it->npc_kind == NPC_Edeline)
							{
							}
							else if (it->npc_kind == NPC_TheGuard)
							{
								if (it->moved)
								{
									it->walking = true;
									Vec2 towards = SubV2(it->target_goto, it->pos);
									if (LenV2(towards) > 1.0f)
									{
										it->pos = LerpV2(it->pos, dt*5.0f, it->target_goto);
									}
								}
								else
								{
									it->walking = false;
								}
							}
							else if (it->npc_kind == NPC_TheKing)
							{
							}
							else if (it->npc_kind == NPC_TheBlacksmith)
							{
							}
							else
							{
								assert(false);
							}
							if (it->damage >= entity_max_damage(it))
							{
								if (npc_is_skeleton(it))
								{
									it->dead = true;
								}
								else
								{
									it->destroy = true;
								}
							}
						}
						else if (it->is_item)
						{
							if (it->held_by_player)
							{
								Vec2 held_spot = V2(15.0f * (player->facing_left ? -1.0f : 1.0f), 7.0f);
								it->pos = AddV2(player->pos, held_spot);
							}
							else
							{
								it->vel = LerpV2(it->vel, dt*7.0f, V2(0.0f, 0.0f));
								CollisionInfo info = { 0 };
								it->pos = move_and_slide((MoveSlideParams) { it, it->pos, MulV2F(it->vel, pixels_per_meter * dt), .dont_collide_with_entities = true, .col_info_out = &info });
								if (info.happened) it->vel = ReflectV2(it->vel, info.normal);
							}

							//draw_quad((DrawParams){true, it->pos, IMG(image_white_square)
						}
						else if (it->is_bullet)
						{
							it->pos = AddV2(it->pos, MulV2F(it->vel, pixels_per_meter * dt));
							dbgvec(it->pos, it->vel);
							Overlapping over = get_overlapping(cur_level, entity_aabb(it));
							Entity *from_bullet = it;
							bool destroy_bullet = false;
							BUFF_ITER(Overlap, &over) if (it->e != from_bullet)
							{
								if (!it->is_tile && !(it->e->is_bullet))
								{
									// knockback and damage
									request_do_damage(it->e, from_bullet, DAMAGE_BULLET);
									destroy_bullet = true;
								}
							}
							if (destroy_bullet) *from_bullet = (Entity) { 0 };
							if (!has_point(level_aabb, it->pos)) *it = (Entity) { 0 };
						}
						else if (it->is_character)
						{
						}
						else if (it->is_prop)
						{
						}
						else
						{
							assert(false);
						}
						}
					}

					PROFILE_SCOPE("Destroy gs.entities, maybe send generation requests")
					{
						ENTITIES_ITER(gs.entities)
						{
							if (it->destroy)
							{
								int gen = it->generation;
								*it = (Entity) { 0 };
								it->generation = gen;
							}
							if (it->perceptions_dirty && !npc_does_dialog(it))
							{
								it->perceptions_dirty = false;
							}
							if (it->perceptions_dirty)
							{
								PromptBuff prompt = { 0 };
#ifdef DO_CHATGPT_PARSING
								generate_chatgpt_prompt(it, &prompt);
#else
								generate_prompt(it, &prompt);
#endif
								Log("Sending request with prompt `%s`\n", prompt.data);

#ifdef WEB
								// fire off generation request, save id
								BUFF(char, 512) completion_server_url = { 0 };
								printf_buff(&completion_server_url, "%s/completion", SERVER_URL);
								int req_id = EM_ASM_INT( {
										return make_generation_request(UTF8ToString($1), UTF8ToString($0));
										}, completion_server_url.data, prompt.data);
								it->gen_request_id = req_id;
#endif

#ifdef DESKTOP
								BUFF(char, 1024) mocked_ai_response = { 0 };
#define SAY(act, txt) { printf_buff(&mocked_ai_response, "%s \"%s\"", actions[act].name, txt); }
#define SAY_ARG(act, txt, arg) { printf_buff(&mocked_ai_response, "%s(" arg ") \"%s\"", actions[act].name, txt); }
								if (it->npc_kind == NPC_TheGuard)
								{
									if (it->last_seen_holding_kind == ITEM_Tripod && !it->moved)
									{
										SAY(ACT_none, "This codepath is deprecated");
									}
									else
									{
										SAY(ACT_none, "You passed");
									}
								}
								else
								{
									//SAY_ARG(ACT_give_item, "Here you go" , "ITEM_Chalice");
									if(it->standing != STANDING_JOINED)
									{
										SAY(ACT_joins_player, "I am an NPC");
									}
									else
									{
										SAY(ACT_none, "What's good");
									}
									//SAY(ACT_fights_player, "I am an NPC. Bla bla bl alb djsfklalfkdsaj. Did you know shortcake?");
								}
								Perception p = { 0 };
								assert(parse_chatgpt_response(it, mocked_ai_response.data, &p));
								process_perception(it, p, player);
#undef SAY
#endif
								it->perceptions_dirty = false;
							}
						}
					}

					PROFILE_SCOPE("process player")
					{
						// do dialog
						Entity *closest_interact_with = 0;
						{
							// find closest to talk to
							{
								AABB dialog_rect = centered_aabb(player->pos, V2(dialog_interact_size , dialog_interact_size));
								dbgrect(dialog_rect);
								Overlapping possible_dialogs = get_overlapping(cur_level, dialog_rect);
								float closest_interact_with_dist = INFINITY;
								BUFF_ITER(Overlap, &possible_dialogs)
								{
									bool entity_talkable = true;
									if (entity_talkable) entity_talkable = entity_talkable && !it->is_tile;
									if (entity_talkable) entity_talkable = entity_talkable && it->e->is_npc;
									//if(entity_talkable) entity_talkable = entity_talkable && !(it->e->npc_kind == NPC_Skeleton);
#ifdef WEB
									if (entity_talkable) entity_talkable = entity_talkable && it->e->gen_request_id == 0;
#endif

									bool entity_pickupable = !it->is_tile && !gete(player->holding_item) && it->e->is_item;

									if (entity_talkable || entity_pickupable)
									{
										float dist = LenV2(SubV2(it->e->pos, player->pos));
										if (dist < closest_interact_with_dist)
										{
											closest_interact_with_dist = dist;
											closest_interact_with = it->e;
										}
									}
								}
							}


							interacting_with = closest_interact_with;
							if (player->state == CHARACTER_TALKING)
							{
								interacting_with = gete(player->talking_to);
								assert(interacting_with);
							}


							// maybe get rid of talking to
							if (player->state == CHARACTER_TALKING)
							{
								if (gete(player->talking_to) == 0)
								{
									player->state = CHARACTER_IDLE;
								}
							}
							else
							{
								player->talking_to = (EntityRef) { 0 };
							}
						}

						if (interact)
						{
							if (player->state == CHARACTER_TALKING)
							{
								// don't add extra stuff to be done when changing state because in several
								// places it's assumed to end dialog I can just do player->state = CHARACTER_IDLE
								player->state = CHARACTER_IDLE;
							}
							else if (closest_interact_with)
							{
								if (closest_interact_with->is_npc)
								{
									// begin dialog with closest npc
									player->state = CHARACTER_TALKING;
									player->talking_to = frome(closest_interact_with);
								}
								else if (closest_interact_with->is_item)
								{
									// pick up item
									closest_interact_with->held_by_player = true;
									player->holding_item = frome(closest_interact_with);
								}
								else
								{
									assert(false);
								}
							}
							else
							{
								if (gete(player->holding_item))
								{
									// throw item if not talking to somebody with item
									Entity *thrown = gete(player->holding_item);
									assert(thrown);
									thrown->vel = MulV2F(player->to_throw_direction, 20.0f);
									thrown->held_by_player = false;
									player->holding_item = (EntityRef) { 0 };
								}
							}
						}

						float speed = 0.0f;
						{
							if (roll && !player->is_rolling && player->time_not_rolling > 0.3f && (player->state == CHARACTER_IDLE || player->state == CHARACTER_WALKING))
							{
								player->is_rolling = true;
								player->roll_progress = 0.0;
							}
							if (attack && (player->state == CHARACTER_IDLE || player->state == CHARACTER_WALKING))
							{
								player->state = CHARACTER_ATTACK;
								BUFF_CLEAR(&player->done_damage_to_this_swing);
								player->swing_progress = 0.0;
							}
							// after images
							BUFF_ITER(PlayerAfterImage, &player->after_images)
							{
								it->alive_for += dt;
							}
							if (player->after_images.data[0].alive_for >= AFTERIMAGE_LIFETIME)
							{
								BUFF_REMOVE_FRONT(&player->after_images);
							}

							// roll processing
							{
								if (player->state != CHARACTER_IDLE && player->state != CHARACTER_WALKING)
								{
									player->roll_progress = 0.0;
									player->is_rolling = false;
								}
								if (player->is_rolling)
								{
									player->after_image_timer += dt;
									player->time_not_rolling = 0.0f;
									player->roll_progress += dt;
									if (player->roll_progress > anim_sprite_duration(ANIM_knight_rolling))
									{
										player->is_rolling = false;
									}
								}
								if (!player->is_rolling) player->time_not_rolling += dt;
							}

							Vec2 target_vel = { 0 };

							if (LenV2(movement) > 0.01f) player->to_throw_direction = NormV2(movement);
							if (player->state == CHARACTER_WALKING)
							{
								speed = PLAYER_SPEED;
								if (player->is_rolling) speed = PLAYER_ROLL_SPEED;

								if (gete(player->holding_item) && gete(player->holding_item)->item_kind == ITEM_Boots)
								{
									speed *= 2.0f;
								}

								if (LenV2(movement) == 0.0)
								{
									player->state = CHARACTER_IDLE;
								}
								else
								{
								}
							}
							else if (player->state == CHARACTER_IDLE)
							{
								if (LenV2(movement) > 0.01) player->state = CHARACTER_WALKING;
							}
							else if (player->state == CHARACTER_ATTACK)
							{
								AABB weapon_aabb = entity_sword_aabb(player, 40.0f, 25.0f);
								dbgrect(weapon_aabb);
								SwordToDamage to_damage = entity_sword_to_do_damage(player, get_overlapping(cur_level, weapon_aabb));
								BUFF_ITER(Entity*, &to_damage)
								{
									request_do_damage(*it, player, DAMAGE_SWORD);
								}
								player->swing_progress += dt;
								if (player->swing_progress > anim_sprite_duration(ANIM_knight_attack))
								{
									player->state = CHARACTER_IDLE;
								}
							}
							else if (player->state == CHARACTER_TALKING)
							{
							}
							else
							{
								assert(false); // unknown character state? not defined how to process
							}
						} // not time stopped

						// velocity processing
						{
							Vec2 target_vel = MulV2F(movement, pixels_per_meter * speed);
							player->vel = LerpV2(player->vel, dt * 15.0f, target_vel);
							player->pos = move_and_slide((MoveSlideParams) { player, player->pos, MulV2F(player->vel, dt) });

							bool should_append = false;

							// make it so no snap when new points added
							if(player->position_history.cur_index > 0)
							{
								player->position_history.data[player->position_history.cur_index - 1] = player->pos;
							}

							if(player->position_history.cur_index > 2)
							{
								should_append = LenV2(SubV2(player->position_history.data[player->position_history.cur_index - 2], player->pos)) > TILE_SIZE;
							}
							else
							{
								should_append = true;
							}
							if(should_append) BUFF_QUEUE_APPEND(&player->position_history, player->pos);

						}
						// health
						if (player->damage >= 1.0)
						{
							reset_level();
						}
					}
					pressed = (PressedState) { 0 };
					interact = false;
				} // while loop
			}
			pressed = before_gameplay_loops;


			PROFILE_SCOPE("render player") // draw character draw player render character
			{
				DrawnAnimatedSprite to_draw = { 0 };

				if(player->position_history.cur_index > 0)
				{
					float trail_len = get_total_trail_len(BUFF_MAKEREF(&player->position_history));
					if(trail_len > 0.0f) // fmodf returns nan
					{
						float along = fmodf((float)elapsed_time*100.0f, 200.0f);
						Vec2 at = get_point_along_trail(BUFF_MAKEREF(&player->position_history), along);
						dbgbigsquare(at);
						dbgbigsquare(get_point_along_trail(BUFF_MAKEREF(&player->position_history), 50.0f));
					}
					BUFF_ITER_I(Vec2, &player->position_history, i)
					{
						if(i == player->position_history.cur_index - 1) 
						{
						}
						else
						{
							dbgline(*it, player->position_history.data[i + 1]);
						}
					}
				}

				Vec2 character_sprite_pos = AddV2(player->pos, V2(0.0, 20.0f));
				// if somebody, show their dialog panel
				if (interacting_with)
				{
					// interaction keyboard hint
					if (!mobile_controls)
					{
						float size = 100.0f;
						Vec2 midpoint = MulV2F(AddV2(interacting_with->pos, player->pos), 0.5f);
						draw_quad((DrawParams) { true, quad_centered(AddV2(midpoint, V2(0.0, 5.0f + sinf((float)elapsed_time*3.0f)*5.0f)), V2(size, size)), IMG(image_e_icon), blendalpha(WHITE, clamp01(1.0f - learned_e)), .layer = LAYER_UI_FG });
					}

					// interaction circle
					draw_quad((DrawParams) { true, quad_centered(interacting_with->pos, V2(TILE_SIZE, TILE_SIZE)), image_hovering_circle, full_region(image_hovering_circle), WHITE });
				}

				if (player->state == CHARACTER_WALKING)
				{
					if (player->is_rolling)
					{
						to_draw = (DrawnAnimatedSprite) { ANIM_knight_running, player->roll_progress, player->facing_left, character_sprite_pos, WHITE };
					}
					else
					{
						to_draw = (DrawnAnimatedSprite) { ANIM_knight_running, elapsed_time, player->facing_left, character_sprite_pos, WHITE };
					}
				}
				else if (player->state == CHARACTER_IDLE)
				{
					if (player->is_rolling)
					{
						to_draw = (DrawnAnimatedSprite) { ANIM_knight_running, player->roll_progress, player->facing_left, character_sprite_pos, WHITE };
					}
					else
					{
						to_draw = (DrawnAnimatedSprite) { ANIM_knight_idle, elapsed_time, player->facing_left, character_sprite_pos, WHITE };
					}
				}
				else if (player->state == CHARACTER_ATTACK)
				{
					to_draw = (DrawnAnimatedSprite) { ANIM_knight_attack, player->swing_progress, player->facing_left, character_sprite_pos, WHITE };
				}
				else if (player->state == CHARACTER_TALKING)
				{
					to_draw = (DrawnAnimatedSprite) { ANIM_knight_idle, elapsed_time, player->facing_left, character_sprite_pos, WHITE };
				}
				else
				{
					assert(false); // unknown character state? not defined how to draw
				}

				// hurt vignette
				if (player->damage > 0.0)
				{
					draw_quad((DrawParams) { false, (Quad) { .ul = V2(0.0f, screen_size().Y), .ur = screen_size(), .lr = V2(screen_size().X, 0.0f) }, image_hurt_vignette, full_region(image_hurt_vignette), (Color) { 1.0f, 1.0f, 1.0f, player->damage }, .layer = LAYER_SCREENSPACE_EFFECTS, });
				}

				player->anim_change_timer += dt;
				if (player->anim_change_timer >= 0.05f)
				{
					player->anim_change_timer = 0.0f;
					player->cur_animation = to_draw.anim;
				}
				to_draw.anim = player->cur_animation;

				Vec2 target_sprite_pos = to_draw.pos;

				BUFF_ITER_I(PlayerAfterImage, &player->after_images, i)
				{
					{
						DrawnAnimatedSprite to_draw = it->drawn;
						to_draw.tint.a = 0.5f;
						float progress_through_life = it->alive_for / AFTERIMAGE_LIFETIME;

						if (progress_through_life > 0.5f)
						{
							float fade_amount = (progress_through_life - 0.5f) / 0.5f;

							to_draw.tint.a = Lerp(0.8f, fade_amount, 0.0f);
							Vec2 target;
							if (i != player->after_images.cur_index-1) target = player->after_images.data[i + 1].drawn.pos;
							else target = target_sprite_pos;
							to_draw.pos = LerpV2(to_draw.pos, fade_amount, target);
						}
						to_draw.no_shadow = true;
						draw_animated_sprite(to_draw);
					}
				}

				//if(player->is_rolling^) to_draw.tint.a = 0.5f;

				if (to_draw.anim)
				{
					draw_animated_sprite(to_draw);

					if (player->after_image_timer >= TIME_TO_GEN_AFTERIMAGE)
					{
						player->after_image_timer = 0.0;
						if (BUFF_HAS_SPACE(&player->after_images))
							BUFF_APPEND(&player->after_images, (PlayerAfterImage) { .drawn = to_draw });
					}
				}
			}

			// render gs.entities render entities
			PROFILE_SCOPE("entity rendering")
				ENTITIES_ITER(gs.entities)
				{
#ifdef WEB
					if (it->gen_request_id != 0)
					{
						draw_quad((DrawParams) { true, quad_centered(AddV2(it->pos, V2(0.0, 50.0)), V2(100.0, 100.0)), IMG(image_thinking), WHITE });
					}
#endif

					Color col = LerpV4(WHITE, it->damage, RED);
					if (it->is_npc)
					{
						// health bar
						{
							Vec2 health_bar_size = V2(TILE_SIZE, 0.1f * TILE_SIZE);
							float health_bar_progress = 1.0f - (it->damage / entity_max_damage(it));
							Vec2 health_bar_center = AddV2(it->pos, V2(0.0f, -entity_aabb_size(it).y));
							Vec2 bar_upper_left = AddV2(health_bar_center, MulV2F(health_bar_size, -0.5f));
							draw_quad((DrawParams) { true, quad_at(bar_upper_left, health_bar_size), IMG(image_white_square), BROWN });
							draw_quad((DrawParams) { true, quad_at(bar_upper_left, V2(health_bar_size.x * health_bar_progress, health_bar_size.y)), IMG(image_white_square), GREEN });
						}

						float dist = LenV2(SubV2(it->pos, player->pos));
						dist -= 10.0f; // radius around point where dialog is completely opaque
						float max_dist = dialog_interact_size / 2.0f;
						float alpha = 1.0f - (float)clamp(dist / max_dist, 0.0, 1.0);
						if (gete(player->talking_to) == it && player->state == CHARACTER_TALKING) alpha = 0.0f;
						if (it->being_hovered)
						{
							draw_quad((DrawParams) { true, quad_centered(it->pos, V2(TILE_SIZE, TILE_SIZE)), IMG(image_hovering_circle), WHITE });
							alpha = 1.0f;
						}


						it->dialog_panel_opacity = Lerp(it->dialog_panel_opacity, unwarped_dt*10.0f, alpha);
						draw_dialog_panel(it, it->dialog_panel_opacity);

						if (it->npc_kind == NPC_OldMan)
						{
							bool face_left = SubV2(player->pos, it->pos).x < 0.0f;
							draw_animated_sprite((DrawnAnimatedSprite) { ANIM_old_man_idle, elapsed_time, face_left, it->pos, col });
						}
						else if (npc_is_skeleton(it))
						{
							Color col = WHITE;
							if (it->dead)
							{
								draw_animated_sprite((DrawnAnimatedSprite) { ANIM_skeleton_die, it->dead_time, it->facing_left, it->pos, col });
							}
							else
							{
								if (it->swing_timer > 0.0)
								{
									// swinging sword
									draw_animated_sprite((DrawnAnimatedSprite) { ANIM_skeleton_swing_sword, it->swing_timer, it->facing_left, it->pos, col });
								}
								else
								{
									if (it->walking)
									{
										draw_animated_sprite((DrawnAnimatedSprite) { ANIM_skeleton_run, elapsed_time, it->facing_left, it->pos, col });
									}
									else
									{
										draw_animated_sprite((DrawnAnimatedSprite) { ANIM_skeleton_idle, elapsed_time, it->facing_left, it->pos, col });
									}
								}
							}
						}
						else if (it->npc_kind == NPC_Death)
						{
							draw_animated_sprite((DrawnAnimatedSprite) { ANIM_death_idle, elapsed_time, true, AddV2(it->pos, V2(0, 30.0f)), col });
						}
						else if (it->npc_kind == NPC_GodRock)
						{
							Vec2 prop_size = V2(46.0f, 40.0f);
							DrawParams d = (DrawParams) { true, quad_centered(AddV2(it->pos, V2(-0.0f, 0.0)), prop_size), image_props_atlas, aabb_at_yplusdown(V2(15.0f, 219.0f), prop_size), WHITE, .sorting_key = sorting_key_at(AddV2(it->pos, V2(0.0f, 20.0f))), .alpha_clip_threshold = 0.7f, .layer = LAYER_WORLD, };
							draw_shadow_for(d);
							draw_quad(d);
						}
						else if (npc_is_knight_sprite(it))
						{
							Color tint = WHITE;
							if (it->npc_kind == NPC_TheGuard)
							{
								tint = colhex(0xa84032);
							}
							else if (it->npc_kind == NPC_Edeline)
							{
								tint = colhex(0x8c34eb);
							}
							else if (it->npc_kind == NPC_TheKing)
							{
								tint = colhex(0xf0be1d);
							}
							else if (it->npc_kind == NPC_TheBlacksmith)
							{
								tint = colhex(0x5c5c5c);
							}
							else
							{
								assert(false);
							}
							draw_animated_sprite((DrawnAnimatedSprite) { ANIM_knight_idle, elapsed_time, true, AddV2(it->pos, V2(0, 30.0f)), tint });
						}
						else
						{
							assert(false);
						}
					}
					else if (it->is_item)
					{
						draw_item(true, it->item_kind, centered_aabb(it->pos, V2(15.0f, 15.0f)), 1.0f);
					}
					else if (it->is_bullet)
					{
						AABB normal_aabb = entity_aabb(it);
						Quad drawn = quad_centered(aabb_center(normal_aabb), MulV2F(aabb_size(normal_aabb), 1.5f));
						draw_quad((DrawParams) { true, drawn, IMG(image_bullet), WHITE });
					}
					else if (it->is_character)
					{
					}
					else if (it->is_prop)
					{
						DrawParams d = { 0 };
						if (it->prop_kind == TREE0)
						{
							Vec2 prop_size = V2(74.0f, 122.0f);
							d = (DrawParams) { true, quad_centered(AddV2(it->pos, V2(-5.0f, 45.0)), prop_size), image_props_atlas, aabb_at_yplusdown(V2(2.0f, 4.0f), prop_size), WHITE, .sorting_key = sorting_key_at(AddV2(it->pos, V2(0.0f, 20.0f))), .alpha_clip_threshold = 0.7f };
						}
						else if (it->prop_kind == TREE1)
						{
							Vec2 prop_size = V2(94.0f, 120.0f);
							d = ((DrawParams) { true, quad_centered(AddV2(it->pos, V2(-4.0f, 55.0)), prop_size), image_props_atlas, aabb_at_yplusdown(V2(105.0f, 4.0f), prop_size), WHITE, .sorting_key = sorting_key_at(AddV2(it->pos, V2(0.0f, 20.0f))), .alpha_clip_threshold = 0.4f });
						}
						else if (it->prop_kind == TREE2)
						{
							Vec2 prop_size = V2(128.0f, 192.0f);
							d = ((DrawParams) { true, quad_centered(AddV2(it->pos, V2(-2.5f, 70.0)), prop_size), image_props_atlas, aabb_at_yplusdown(V2(385.0f, 479.0f), prop_size), WHITE, .sorting_key = sorting_key_at(AddV2(it->pos, V2(0.0f, 20.0f))), .alpha_clip_threshold = 0.4f });
						}
						else if (it->prop_kind == ROCK0)
						{
							Vec2 prop_size = V2(30.0f, 22.0f);
							d = (DrawParams) { true, quad_centered(AddV2(it->pos, V2(0.0f, 25.0)), prop_size), image_props_atlas, aabb_at_yplusdown(V2(66.0f, 235.0f), prop_size), WHITE, .sorting_key = sorting_key_at(AddV2(it->pos, V2(0.0f, 0.0f))), .alpha_clip_threshold = 0.7f };
						}
						else
						{
							assert(false);
						}
						draw_shadow_for(d);
						draw_quad(d);
					}
					else
					{
						assert(false);
					}
				}

			PROFILE_SCOPE("dialog menu") // big dialog panel draw big dialog panel
			{
				static float on_screen = 0.0f;
				Entity *talking_to = gete(player->talking_to);
				on_screen = Lerp(on_screen, unwarped_dt*9.0f, talking_to ? 1.0f : 0.0f);
				{
					float panel_width = screen_size().x * 0.4f * on_screen;
					AABB panel_aabb = (AABB) { .upper_left = V2(0.0f, screen_size().y), .lower_right = V2(panel_width, 0.0f) };
					float alpha = 1.0f;

					if (aabb_is_valid(panel_aabb))
					{
						if (!choosing_item_grid && pressed.mouse_down && !has_point(panel_aabb, mouse_pos))
						{
							player->state = CHARACTER_IDLE;
						}
						draw_quad((DrawParams) { false, quad_aabb(panel_aabb), IMG(image_white_square), blendalpha(BLACK, 0.7f) });

						// apply padding
						float padding = 0.1f * screen_size().y;
						panel_width -= padding * 2.0f;
						panel_aabb.upper_left = AddV2(panel_aabb.upper_left, V2(padding, -padding));
						panel_aabb.lower_right = AddV2(panel_aabb.lower_right, V2(-padding, padding));

						// draw button
						float space_btwn_buttons = 20.0f;
						float text_scale = 1.0f;
						const float num_buttons = 2.0f;
						Vec2 button_size = V2(
								(panel_width - (num_buttons - 1.0f)*space_btwn_buttons) / num_buttons,
								(panel_aabb.upper_left.y - panel_aabb.lower_right.y)*0.2f
								);
						float button_grid_width = button_size.x*num_buttons + space_btwn_buttons * (num_buttons - 1.0f);
						Vec2 cur_upper_left = V2((panel_aabb.upper_left.x + panel_aabb.lower_right.x) / 2.0f - button_grid_width / 2.0f, panel_aabb.lower_right.y + button_size.y);
						if(receiving_text_input && pressed.speak_shortcut)
						{
							end_text_input("");
							pressed.speak_shortcut = false;
						}
						if (imbutton_key(aabb_at(cur_upper_left, button_size), text_scale, "Speak", __LINE__, unwarped_dt, receiving_text_input) || (talking_to && pressed.speak_shortcut))
						{
							begin_text_input();
						}


						// draw keyboard hint
						{
							Vec2 keyboard_helper_at = V2(cur_upper_left.x + button_size.x*0.5f, cur_upper_left.y - button_size.y*0.75f);
							draw_quad((DrawParams){false, centered_quad(keyboard_helper_at, V2(40.0f, 40.0f)), IMG(image_white_square), blendalpha(GREY, 0.4f)});
							draw_centered_text((TextParams){false, false, "S", keyboard_helper_at, BLACK, 1.5f});
						}

						cur_upper_left.x += button_size.x + space_btwn_buttons;

						if(choosing_item_grid && pressed.give_shortcut)
						{
							pressed.give_shortcut = false;
							choosing_item_grid = false;
						}

						if (imbutton_key(aabb_at(cur_upper_left, button_size), text_scale, "Give Item", __LINE__, unwarped_dt, choosing_item_grid) || (talking_to && pressed.give_shortcut))
						{
							choosing_item_grid = true;
						}

						
						// draw keyboard hint
						{
							Vec2 keyboard_helper_at = V2(cur_upper_left.x + button_size.x*0.5f, cur_upper_left.y - button_size.y*0.75f);
							draw_quad((DrawParams){false, centered_quad(keyboard_helper_at, V2(40.0f, 40.0f)), IMG(image_white_square), blendalpha(GREY, 0.4f)});
							draw_centered_text((TextParams){false, false, "G", keyboard_helper_at, BLACK, 1.5f});
						}

						const float dialog_text_scale = 1.0f;
						float button_grid_height = button_size.y;
						AABB dialog_text_aabb = panel_aabb;
						dialog_text_aabb.lower_right.y += button_grid_height + 20.0f; // a little bit of padding because the buttons go up
						float new_line_height = dialog_text_aabb.lower_right.y;

						if (talking_to)
						{
							Dialog dialog = produce_dialog(talking_to, true);
							{
								for (int i = dialog.cur_index - 1; i >= 0; i--)
								{
									DialogElement *it = &dialog.data[i];
									{
										Color *colors = calloc(sizeof(*colors), it->s.cur_index);
										for (int char_i = 0; char_i < it->s.cur_index; char_i++)
										{
											if (it->kind == DELEM_PLAYER)
											{
												colors[char_i] = WHITE;
											}
											else if (it->kind == DELEM_NPC)
											{
												colors[char_i] = colhex(0x34e05c);
											}
											else if (it->kind == DELEM_ACTION_DESCRIPTION)
											{
												colors[char_i] = colhex(0xebc334);
											}
											else
											{
												assert(false);
											}
											colors[char_i] = blendalpha(colors[char_i], alpha);
										}
										float measured_line_height = draw_wrapped_text((WrappedTextParams) { true, V2(dialog_text_aabb.upper_left.X, new_line_height), dialog_text_aabb.lower_right.X - dialog_text_aabb.upper_left.X, it->s.data, colors, dialog_text_scale, dialog_text_aabb, .screen_space = true, .do_clipping = true});
										new_line_height += (new_line_height - measured_line_height);
										draw_wrapped_text((WrappedTextParams) { false, V2(dialog_text_aabb.upper_left.X, new_line_height), dialog_text_aabb.lower_right.X - dialog_text_aabb.upper_left.X, it->s.data, colors, dialog_text_scale, dialog_text_aabb, .screen_space = true, .do_clipping = true});

										free(colors);
									}
								}
							}
						}
					}
				}
			}

			// item grid modal draw item grid choose item pick item give item
			{
				static float visible = 0.0f;
				static float hovered_state[ARRLEN(player->held_items.data)] = { 0 };
				float target = 0.0f;
				if (choosing_item_grid) target = 1.0f;
				visible = Lerp(visible, unwarped_dt*9.0f, target);

				if (player->state != CHARACTER_TALKING)
				{
					choosing_item_grid = false;
				}

				draw_quad((DrawParams) { false, quad_at(V2(0.0, screen_size().y), screen_size()), IMG(image_white_square), blendalpha(oflightness(0.2f), visible*0.4f), .layer = LAYER_UI });

				Vec2 grid_panel_size = LerpV2(V2(0.0f, 0.0f), visible, V2(screen_size().x*0.75f, screen_size().y * 0.75f));
				AABB grid_aabb = centered_aabb(MulV2F(screen_size(), 0.5f), grid_panel_size);
				if (choosing_item_grid && pressed.mouse_down && !has_point(grid_aabb, mouse_pos))
				{
					choosing_item_grid = false;
				}
				if (aabb_is_valid(grid_aabb))
				{
					draw_quad((DrawParams) { false, quad_aabb(grid_aabb), IMG(image_white_square), blendalpha(BLACK, visible * 0.7f), .layer = LAYER_UI });

					if (imbutton(centered_aabb(AddV2(grid_aabb.upper_left, V2(aabb_size(grid_aabb).x / 2.0f, -aabb_size(grid_aabb).y)), V2(100.f*visible, 50.0f*visible)), 1.0f, "Cancel"))
					{
						choosing_item_grid = false;
					}

					const float padding = 30.0f; // between border of panel and the items
					const float padding_btwn_items = 10.0f;

					const int horizontal_item_count = 10;
					const int vertical_item_count = 6;
					assert(ARRLEN(player->held_items.data) < horizontal_item_count * vertical_item_count);

					Vec2 space_for_items = SubV2(aabb_size(grid_aabb), V2(padding*2.0f, padding*2.0f));
					float item_icon_width = (space_for_items.x - (horizontal_item_count - 1)*padding_btwn_items) / horizontal_item_count;
					Vec2 item_icon_size = V2(item_icon_width, item_icon_width);

					Vec2 cursor = AddV2(grid_aabb.upper_left, V2(padding, -padding));
					int to_give = -1; // don't modify the item array while iterating
					BUFF_ITER_I(ItemKind, &player->held_items, i)
					{
						Vec2 real_size = LerpV2(item_icon_size, hovered_state[i], MulV2F(item_icon_size, 1.25f));
						Vec2 item_center = AddV2(cursor, MulV2F(V2(item_icon_size.x, -item_icon_size.y), 0.5f));
						AABB item_icon = centered_aabb(item_center, real_size);


						float target = 0.0f;
						if (aabb_is_valid(item_icon))
						{
							draw_quad((DrawParams) { false, quad_aabb(item_icon), IMG(image_white_square), blendalpha(WHITE, Lerp(0.0f, hovered_state[i], 0.4f)), .layer = LAYER_UI_FG });
							bool hovered = has_point(item_icon, mouse_pos);
							if (hovered)
							{
								target = 1.0f;
								if (pressed.mouse_down)
								{
									if (gete(player->talking_to))
									{
										to_give = i;
									}
								}
							}

							in_screen_space = true;
							dbgrect(item_icon);
							in_screen_space = false;
							draw_item(false, *it, item_icon, clamp01(visible*visible));
						}

						hovered_state[i] = Lerp(hovered_state[i], dt*12.0f, target);

						cursor.x += item_icon_size.x + padding_btwn_items;
						if ((i + 1) % horizontal_item_count == 0 && i != 0)
						{
							cursor.y -= item_icon_size.y + padding_btwn_items;
							cursor.x = grid_aabb.upper_left.x + padding;
						}
					}
					if (to_give > -1)
					{
						choosing_item_grid = false;

						Entity *to = gete(player->talking_to);
						assert(to);

						ItemKind given_item_kind = player->held_items.data[to_give];
						BUFF_REMOVE_AT_INDEX(&player->held_items, to_give);

						process_perception(to, (Perception) { .type = PlayerAction, .player_action_type = ACT_give_item, .given_item = given_item_kind }, player);
					}

				}
			}

			// win screen
			{
				static float visible = 0.0f;
				float target = 0.0f;
				if(gs.won)
				{
					target = 1.0f;
				}
				visible = Lerp(visible, unwarped_dt*9.0f, target);

				draw_quad((DrawParams) {false, quad_at(V2(0,screen_size().y), screen_size()), IMG(image_white_square), blendalpha(BLACK, visible*0.7f), .layer = LAYER_UI});
				float shake_speed = 9.0f;
				Vec2 win_offset = V2(sinf((float)unwarped_elapsed_time * shake_speed * 1.5f + 0.1f), sinf((float)unwarped_elapsed_time * shake_speed + 0.3f));
				win_offset = MulV2F(win_offset, 10.0f);
				draw_centered_text((TextParams){false, false, "YOU WON", AddV2(MulV2F(screen_size(), 0.5f), win_offset), WHITE, 9.0f*visible});

				if(imbutton(centered_aabb(V2(screen_size().x/2.0f, screen_size().y*0.25f), MulV2F(V2(170.0f, 60.0f), visible)), 1.5f*visible, "Restart"))
				{
					reset_level();
				}
			}


			// ui
#define HELPER_SIZE 250.0f
			if (!mobile_controls)
			{
				float total_height = HELPER_SIZE * 2.0f;
				float vertical_spacing = HELPER_SIZE / 2.0f;
				total_height -= (total_height - (vertical_spacing + HELPER_SIZE));
				const float padding = 50.0f;
				float y = screen_size().y / 2.0f + total_height / 2.0f;
				float x = screen_size().x - padding - HELPER_SIZE;
				draw_quad((DrawParams) { false, quad_at(V2(x, y), V2(HELPER_SIZE, HELPER_SIZE)), IMG(image_shift_icon), (Color) { 1.0f, 1.0f, 1.0f, fmaxf(0.0f, 1.0f-learned_shift) }, .layer = LAYER_UI_FG });
				y -= vertical_spacing;
				draw_quad((DrawParams) { false, quad_at(V2(x, y), V2(HELPER_SIZE, HELPER_SIZE)), IMG(image_space_icon), (Color) { 1.0f, 1.0f, 1.0f, fmaxf(0.0f, 1.0f-learned_space) }, .layer = LAYER_UI_FG });
			}


			if (mobile_controls)
			{
				float thumbstick_nub_size = (img_size(image_mobile_thumbstick_nub).x / img_size(image_mobile_thumbstick_base).x) * thumbstick_base_size();
				draw_quad((DrawParams) { false, quad_centered(thumbstick_base_pos, V2(thumbstick_base_size(), thumbstick_base_size())), IMG(image_mobile_thumbstick_base), WHITE, .layer = LAYER_UI_FG });
				draw_quad((DrawParams) { false, quad_centered(thumbstick_nub_pos, V2(thumbstick_nub_size, thumbstick_nub_size)), IMG(image_mobile_thumbstick_nub), WHITE, .layer = LAYER_UI_FG });

				if (interacting_with || gete(player->holding_item))
				{
					draw_quad((DrawParams) { false, quad_centered(interact_button_pos(), V2(mobile_button_size(), mobile_button_size())), IMG(image_mobile_button), WHITE, .layer = LAYER_UI_FG });
				}
				draw_quad((DrawParams) { false, quad_centered(roll_button_pos(), V2(mobile_button_size(), mobile_button_size())), IMG(image_mobile_button), WHITE, .layer = LAYER_UI_FG });
				draw_quad((DrawParams) { false, quad_centered(attack_button_pos(), V2(mobile_button_size(), mobile_button_size())), IMG(image_mobile_button), WHITE, .layer = LAYER_UI_FG });
			}

#ifdef DEVTOOLS
			dbgsquare(screen_to_world(mouse_pos));

			// tile coord
			if (show_devtools)
			{
				TileCoord hovering = world_to_tilecoord(screen_to_world(mouse_pos));
				Vec2 points[4] = { 0 };
				AABB q = tile_aabb(hovering);
				dbgrect(q);
				draw_text((TextParams) { false, false, tprint("%d", get_tile(&level_level0, hovering).kind), world_to_screen(tilecoord_to_world(hovering)), BLACK, 1.0f });
			}

			// debug draw font image
			{
				draw_quad((DrawParams) { true, quad_centered(V2(0.0, 0.0), V2(250.0, 250.0)), image_font, full_region(image_font), WHITE });
			}

			// statistics
			if (show_devtools)
				PROFILE_SCOPE("statistics")
				{
					Vec2 pos = V2(0.0, screen_size().Y);
					int num_entities = 0;
					ENTITIES_ITER(gs.entities) num_entities++;
					char *stats = tprint("Frametime: %.1f ms\nProcessing: %.1f ms\nEntities: %d\nDraw calls: %d\nProfiling: %s\nNumber gameplay processing loops: %d\n", dt*1000.0, last_frame_processing_time*1000.0, num_entities, num_draw_calls, profiling ? "yes" : "no", num_timestep_loops);
					AABB bounds = draw_text((TextParams) { false, true, stats, pos, BLACK, 1.0f });
					pos.Y -= bounds.upper_left.Y - screen_size().Y;
					bounds = draw_text((TextParams) { false, true, stats, pos, BLACK, 1.0f });
					// background panel
					colorquad(false, quad_aabb(bounds), (Color) { 1.0, 1.0, 1.0, 0.3f });
					draw_text((TextParams) { false, false, stats, pos, BLACK, 1.0f });
					num_draw_calls = 0;
				}
#endif // devtools


			// update camera position
			{
				Vec2 target = MulV2F(player->pos, -1.0f * cam.scale);
				if (LenV2(SubV2(target, cam.pos)) <= 0.2)
				{
					cam.pos = target;
				}
				else
				{
					cam.pos = LerpV2(cam.pos, unwarped_dt*8.0f, target);
				}
			}

			PROFILE_SCOPE("flush rendering")
			{
				ARR_ITER_I(RenderingQueue, rendering_queues, i)
				{
					Layer layer = (Layer)i;
					RenderingQueue *rendering_queue = it;
					qsort(&rendering_queue->data[0], rendering_queue->cur_index, sizeof(rendering_queue->data[0]), rendering_compare);

					BUFF_ITER(DrawParams, rendering_queue)
					{
						DrawParams d = *it;
						PROFILE_SCOPE("Draw quad")
						{
							assert(!d.world_space); // world space already applied when queued for drawing
							Vec2 *points = d.quad.points;
							quad_fs_params_t params = { 0 };
							params.tint[0] = d.tint.R;
							params.tint[1] = d.tint.G;
							params.tint[2] = d.tint.B;
							params.tint[3] = d.tint.A;
							params.alpha_clip_threshold = d.alpha_clip_threshold;
							if (d.do_clipping)
							{
								Vec2 aabb_clip_ul = into_clip_space(d.clip_to.upper_left);
								Vec2 aabb_clip_lr = into_clip_space(d.clip_to.lower_right);
								params.clip_ul[0] = aabb_clip_ul.x;
								params.clip_ul[1] = aabb_clip_ul.y;
								params.clip_lr[0] = aabb_clip_lr.x;
								params.clip_lr[1] = aabb_clip_lr.y;
							}
							else
							{
								params.clip_ul[0] = -1.0;
								params.clip_ul[1] = 1.0;
								params.clip_lr[0] = 1.0;
								params.clip_lr[1] = -1.0;
							}
							// if the rendering call is different, and the batch must be flushed
							if (d.image.id != cur_batch_image.id || memcmp(&params, &cur_batch_params, sizeof(params)) != 0)
							{
								flush_quad_batch();
								cur_batch_image = d.image;
								cur_batch_params = params;
							}


							AABB cam_aabb = screen_cam_aabb();
							AABB points_bounding_box = { .upper_left = V2(INFINITY, -INFINITY), .lower_right = V2(-INFINITY, INFINITY) };

							for (int i = 0; i < 4; i++)
							{
								points_bounding_box.upper_left.X = fminf(points_bounding_box.upper_left.X, points[i].X);
								points_bounding_box.upper_left.Y = fmaxf(points_bounding_box.upper_left.Y, points[i].Y);

								points_bounding_box.lower_right.X = fmaxf(points_bounding_box.lower_right.X, points[i].X);
								points_bounding_box.lower_right.Y = fminf(points_bounding_box.lower_right.Y, points[i].Y);
							}
							if (!overlapping(cam_aabb, points_bounding_box))
							{
								//dbgprint("Out of screen, cam aabb %f %f %f %f\n", cam_aabb.upper_left.X, cam_aabb.upper_left.Y, cam_aabb.lower_right.X, cam_aabb.lower_right.Y);
								//dbgprint("Points boundig box %f %f %f %f\n", points_bounding_box.upper_left.X, points_bounding_box.upper_left.Y, points_bounding_box.lower_right.X, points_bounding_box.lower_right.Y);
								continue; // cull out of screen quads
							}

							float new_vertices[ FLOATS_PER_VERTEX*4 ] = { 0 };
							Vec2 region_size = SubV2(d.image_region.lower_right, d.image_region.upper_left);
							assert(region_size.X > 0.0);
							assert(region_size.Y > 0.0);
							Vec2 tex_coords[4] =
							{
								AddV2(d.image_region.upper_left, V2(0.0,                     0.0)),
								AddV2(d.image_region.upper_left, V2(region_size.X,           0.0)),
								AddV2(d.image_region.upper_left, V2(region_size.X, region_size.Y)),
								AddV2(d.image_region.upper_left, V2(0.0,           region_size.Y)),
							};

							// convert to uv space
							sg_image_info info = sg_query_image_info(d.image);
							for (int i = 0; i < 4; i++)
							{
								tex_coords[i] = DivV2(tex_coords[i], V2((float)info.width, (float)info.height));
							}
							for (int i = 0; i < 4; i++)
							{
								Vec2 in_clip_space = into_clip_space(points[i]);
								new_vertices[i*FLOATS_PER_VERTEX + 0] = in_clip_space.X;
								new_vertices[i*FLOATS_PER_VERTEX + 1] = in_clip_space.Y;
								// update Y_COORD_IN_BACK, Y_COORD_IN_FRONT when this changes
								/*
									 float unmapped = (clampf(d.y_coord_sorting, -1.0f, 2.0f));
									 float mapped = (unmapped + 1.0f)/3.0f;
									 new_vertices[i*FLOATS_PER_VERTEX + 2] = 1.0f - (float)clamp(mapped, 0.0, 1.0);
									 */
								new_vertices[i*FLOATS_PER_VERTEX + 2] = 0.0f;
								new_vertices[i*FLOATS_PER_VERTEX + 3] = tex_coords[i].X;
								new_vertices[i*FLOATS_PER_VERTEX + 4] = tex_coords[i].Y;
							}

							// two triangles drawn, six vertices
							size_t total_size = 6*FLOATS_PER_VERTEX;

							// batched a little too close to the sun
							if (cur_batch_data_index + total_size >= ARRLEN(cur_batch_data))
							{
								flush_quad_batch();
								cur_batch_image = d.image;
								cur_batch_params = params;
							}

#define PUSH_VERTEX(vert) { memcpy(&cur_batch_data[cur_batch_data_index], &vert, FLOATS_PER_VERTEX*sizeof(float)); cur_batch_data_index += FLOATS_PER_VERTEX; }
							PUSH_VERTEX(new_vertices[0*FLOATS_PER_VERTEX]);
							PUSH_VERTEX(new_vertices[1*FLOATS_PER_VERTEX]);
							PUSH_VERTEX(new_vertices[2*FLOATS_PER_VERTEX]);
							PUSH_VERTEX(new_vertices[0*FLOATS_PER_VERTEX]);
							PUSH_VERTEX(new_vertices[2*FLOATS_PER_VERTEX]);
							PUSH_VERTEX(new_vertices[3*FLOATS_PER_VERTEX]);
#undef PUSH_VERTEX

						}
					}
					BUFF_CLEAR(rendering_queue);

				}

				// end of rendering
				flush_quad_batch();
				sg_end_pass();
				sg_commit();
			}

			last_frame_processing_time = stm_sec(stm_diff(stm_now(), time_start_frame));

			reset(&scratch);
			pressed = (PressedState) { 0 };
		}
	}

	void cleanup(void)
	{
		sg_shutdown();
		hmfree(imui_state);
		Log("Cleaning up\n");
	}

	void event(const sapp_event *e)
	{
		if (e->key_repeat) return;
		if (e->type == SAPP_EVENTTYPE_TOUCHES_BEGAN)
		{
			if (!mobile_controls)
			{
				thumbstick_base_pos = V2(screen_size().x * 0.25f, screen_size().y * 0.25f);
				thumbstick_nub_pos = thumbstick_base_pos;
			}
			mobile_controls = true;
		}

#ifdef DESKTOP
		// the desktop text backend, for debugging purposes
		if (receiving_text_input)
		{
			if (e->type == SAPP_EVENTTYPE_CHAR)
			{
				if (BUFF_HAS_SPACE(&text_input_buffer))
				{
					BUFF_APPEND(&text_input_buffer, (char)e->char_code);
				}
			}
			if (e->type == SAPP_EVENTTYPE_KEY_DOWN && e->key_code == SAPP_KEYCODE_ENTER)
			{
				end_text_input(text_input_buffer.data);
			}
		}
#endif


		// mobile handling touch controls handling touch input
		if (mobile_controls)
		{
			if (e->type == SAPP_EVENTTYPE_TOUCHES_BEGAN)
			{
#define TOUCHPOINT_SCREEN(point) V2(point.pos_x, screen_size().y - point.pos_y)
				for (int i = 0; i < e->num_touches; i++)
				{
					sapp_touchpoint point = e->touches[i];
					Vec2 touchpoint_screen_pos = TOUCHPOINT_SCREEN(point);
					if (touchpoint_screen_pos.x < screen_size().x*0.4f)
					{
						if (!movement_touch.active)
						{
							//if(LenV2(SubV2(touchpoint_screen_pos, thumbstick_base_pos)) > 1.25f * thumbstick_base_size())
							if (true)
							{
								thumbstick_base_pos = touchpoint_screen_pos;
							}
							movement_touch = activate(point.identifier);
							thumbstick_nub_pos = thumbstick_base_pos;
						}
					}
					if (LenV2(SubV2(touchpoint_screen_pos, roll_button_pos())) < mobile_button_size()*0.5f)
					{
						roll_pressed_by = activate(point.identifier);
						mobile_roll_pressed = true;
					}
					if (LenV2(SubV2(touchpoint_screen_pos, interact_button_pos())) < mobile_button_size()*0.5f)
					{
						interact_pressed_by = activate(point.identifier);
						mobile_interact_pressed = true;
						pressed.interact = true;
					}
					if (LenV2(SubV2(touchpoint_screen_pos, attack_button_pos())) < mobile_button_size()*0.5f)
					{
						attack_pressed_by = activate(point.identifier);
						mobile_attack_pressed = true;
					}
				}
			}
			if (e->type == SAPP_EVENTTYPE_TOUCHES_MOVED)
			{
				for (int i = 0; i < e->num_touches; i++)
				{
					if (movement_touch.active)
					{
						if (e->touches[i].identifier == movement_touch.identifier)
						{
							thumbstick_nub_pos = TOUCHPOINT_SCREEN(e->touches[i]);
							Vec2 move_vec = SubV2(thumbstick_nub_pos, thumbstick_base_pos);
							float clampto_size = thumbstick_base_size() / 2.0f;
							if (LenV2(move_vec) > clampto_size)
							{
								thumbstick_nub_pos = AddV2(thumbstick_base_pos, MulV2F(NormV2(move_vec), clampto_size));
							}
						}
					}
				}
			}
			if (e->type == SAPP_EVENTTYPE_TOUCHES_ENDED)
			{
				for (int i = 0; i < e->num_touches; i++)
					if (e->touches[i].changed) // only some of the touch events are released
					{
						if (maybe_deactivate(&interact_pressed_by, e->touches[i].identifier))
						{
							mobile_interact_pressed = false;
						}
						if (maybe_deactivate(&roll_pressed_by, e->touches[i].identifier))
						{
							mobile_roll_pressed = false;
						}
						if (maybe_deactivate(&attack_pressed_by, e->touches[i].identifier))
						{
							mobile_attack_pressed = false;
						}
						if (maybe_deactivate(&movement_touch, e->touches[i].identifier))
						{
							thumbstick_nub_pos = thumbstick_base_pos;
						}
					}
			}
		}

		if (e->type == SAPP_EVENTTYPE_MOUSE_DOWN)
		{
			if (e->mouse_button == SAPP_MOUSEBUTTON_LEFT)
			{
				pressed.mouse_down = true;
				mouse_down = true;
			}
		}

		if (e->type == SAPP_EVENTTYPE_MOUSE_UP)
		{
			if (e->mouse_button == SAPP_MOUSEBUTTON_LEFT)
			{
				mouse_down = false;
				pressed.mouse_up = true;
			}
		}

		if (e->type == SAPP_EVENTTYPE_KEY_DOWN)
#ifdef DESKTOP
			if (!receiving_text_input)
#endif
			{
				mobile_controls = false;
				assert(e->key_code < sizeof(keydown) / sizeof(*keydown));
				keydown[e->key_code] = true;

				if (e->key_code == SAPP_KEYCODE_E)
				{
					pressed.interact = true;
				}

				if (e->key_code == SAPP_KEYCODE_S)
				{
					pressed.speak_shortcut = true;
				}
				if (e->key_code == SAPP_KEYCODE_G)
				{
					pressed.give_shortcut = true;
				}

				if (e->key_code == SAPP_KEYCODE_LEFT_SHIFT)
				{
					learned_shift += 0.15f;
				}
				if (e->key_code == SAPP_KEYCODE_SPACE)
				{
					learned_space += 0.15f;
				}
				if (e->key_code == SAPP_KEYCODE_E)
				{
					learned_e += 0.15f;
				}
#ifdef DESKTOP // very nice for my run from cmdline workflow, escape to quit
				if (e->key_code == SAPP_KEYCODE_ESCAPE)
				{
					sapp_quit();
				}
#endif
#ifdef DEVTOOLS
				if (e->key_code == SAPP_KEYCODE_T)
				{
					mouse_frozen = !mouse_frozen;
				}
				if (e->key_code == SAPP_KEYCODE_9)
				{
					gs.won = true;
				}
				if (e->key_code == SAPP_KEYCODE_M)
				{
					mobile_controls = true;
				}
				if (e->key_code == SAPP_KEYCODE_P)
				{
					profiling = !profiling;
					if (profiling)
					{
						init_profiling("rpgpt.spall");
						init_profiling_mythread(0);
					}
					else
					{
						end_profiling_mythread();
						end_profiling();
					}
				}
				if (e->key_code == SAPP_KEYCODE_7)
				{
					show_devtools = !show_devtools;
				}
#endif
			}
		if (e->type == SAPP_EVENTTYPE_KEY_UP)
		{
			keydown[e->key_code] = false;
		}
		if (e->type == SAPP_EVENTTYPE_MOUSE_MOVE)
		{
			bool ignore_movement = false;
#ifdef DEVTOOLS
			if (mouse_frozen) ignore_movement = true;
#endif
			if (!ignore_movement) mouse_pos = V2(e->mouse_x, (float)sapp_height() - e->mouse_y);
		}
	}

	sapp_desc sokol_main(int argc, char* argv[])
	{
		(void)argc; (void)argv;
		return (sapp_desc) {
			.init_cb = init,
				.frame_cb = frame,
				.cleanup_cb = cleanup,
				.event_cb = event,
				.width = 800,
				.height = 600,
				//.gl_force_gles2 = true, not sure why this was here in example, look into
				.window_title = "RPGPT",
				.win32_console_attach = true,
				.win32_console_create = true,
				.icon.sokol_default = true,
		};
	}