Files
panopainter/src/abr.cpp
2019-02-28 02:02:36 +01:00

557 lines
18 KiB
C++

#include "pch.h"
#include "abr.h"
#include "log.h"
bool ABR::section_desc()
{
auto sz = align4(ru32());
auto n1 = ri32(); // some integer
auto s = rwstring(); // maybe a string
auto null = rkey_or_string();
auto null_val = ri32(); // integer following the null
// presets list
auto name = rkey_or_string(); // "Brsh"
auto list = rstring(4); // "VlLs"
if (auto presets = std::dynamic_pointer_cast<List>(call(list)))
{
for (auto const& pr : presets->items)
{
if (auto desc = std::dynamic_pointer_cast<Descriptor>(pr))
m_presets.push_back(desc);
}
auto out = presets->str(0, "");
auto lines = split(out, '\n');
for (const auto& l : lines)
{
LOG("%s", l.c_str());
}
}
snap();
return true;
}
bool ABR::section_samp()
{
auto section_size = ru32();
auto start = pos();
auto end = start + section_size;
while (pos() < end)
{
auto samp_size = ru32();
auto uid = rpascal();
//printf("sample brush %s\n", uid.c_str());
skip(4); // unknown bytes usually 00 01 00 00
auto vm = parse_vmem();
if (vm)
{
if (auto img = vm->image(true, true))
{
// TODO: check if uid already exists in map
m_samples[uid] = img;
}
}
}
return true;
}
bool ABR::section_patt()
{
auto section_size = ru32();
auto start = pos();
auto end = start + section_size;
while (pos() < end)
{
auto patt_length = ru32(); // length of this pattern
auto patt_version = ru32(); // = 1
// Bitmap = 0; Grayscale = 1; Indexed = 2; RGB = 3;
// CMYK = 4; Multichannel = 7; Duotone = 8; Lab = 9
auto image_mode = ru32();
if (!(image_mode == 1 || image_mode == 3))
{
LOG("PATT: skip image mode %d\n", image_mode);
skip(patt_length - 8);
snap();
continue;
}
auto point = rpoint();
auto name = rwstring();
auto uid = rpascal();
// Index color table (256 * 3 RGB values):
// only present when image mode is indexed color
// read(...);
// no worries indexed is skipped anyway
auto vm = parse_vmem();
if (vm)
{
int nc = std::min((int)vm->channels.size(), 3);
if (nc != image_mode)
{
LOG("PATT: image_mode (%d) and number of channels (%d) not matching\n",
image_mode, vm->channels.size());
}
if (auto img = vm->image(true, false))
{
// TODO: check if uid already exists in map
m_patterns[uid] = img;
}
}
}
return true;
}
std::vector<std::shared_ptr<Brush>> ABR::compute_brushes(const std::string& path)
{
std::vector<std::shared_ptr<Brush>> ret;
for (auto const& p : m_presets)
{
auto samp = p->get<Descriptor>("Brsh");
if (samp->class_id != "sampledBrush" && samp->class_id != "computedBrush")
{
LOG("unsupported brush type %s", samp->class_id.c_str());
continue;
}
auto b = std::make_shared<Brush>();
b->m_name = wstr2str(p->value<String>("Nm "));
// default values
b->m_tip_color = { 0, 0, 0, 1 };
b->m_tip_flow = .90f;
b->m_tip_opacity = 1.f;
b->m_tip_wet = p->value<UnitFloat>("Wtdg");
b->m_tip_noise = p->value<Boolean>("Nose") ? 1.f : 0.f;
b->m_tip_aspect = (1.f - samp->value<UnitFloat>("Rndn") * 0.01) * 0.5f + 0.5f;
b->m_tip_size = samp->value<UnitFloat>("Dmtr");
b->m_tip_spacing = samp->value<UnitFloat>("Spcn") * 0.01f;
float tip_angle = -samp->value<UnitFloat>("Angl") / 360.f;
b->m_tip_angle = tip_angle >= 0.f ? tip_angle : tip_angle + 1.f; // [-180, 180] -> [0, 1]
b->m_tip_flipx = samp->value<Boolean>("flipX");
b->m_tip_flipy = samp->value<Boolean>("flipY");
// brush sample
if (samp->class_id == "sampledBrush")
{
auto tip_uid = wstr2str(samp->value<String>("sampledData"));
b->m_brush_path = path + "/brushes/" + tip_uid + ".png";
b->m_brush_thumb_path = path + "/brushes/thumbs/" + tip_uid + ".png";
const auto& samp_img = m_samples[tip_uid];
if (samp_img->height > samp_img->width)
b->m_tip_scale = { (float)samp_img->width / (float)samp_img->height, 1.f };
else
b->m_tip_scale = { 1.f, (float)samp_img->height / (float)samp_img->width };
}
else if (samp->class_id == "computedBrush")
{
if (samp->value<UnitFloat>("Hrdn") > 50.f)
{
b->m_brush_path = "data/brushes/Round-Hard.png";
b->m_brush_thumb_path = "data/brushes/thumbs/Round-Hard.png";
}
else
{
b->m_brush_path = "data/brushes/Round-Brush.png";
b->m_brush_thumb_path = "data/brushes/thumbs/Round-Brush.png";
}
}
// Shape dynamics
if (p->value<Boolean>("useTipDynamics"))
{
// other properties 'brushProjection', 'minimumRoundness', 'tiltScale'
if (auto jitter_size = p->get<Descriptor>("szVr"))
{
b->m_jitter_scale = jitter_size->value<UnitFloat>("jitter") * 0.01f;
// TODO: p->value<UnitFloat>("minimumDiameter") * 0.001f; // minimum size
if (jitter_size->value<Integer>("bVTy") == 2)
b->m_tip_size_pressure = true;
}
if (auto jitter_angle = p->get<Descriptor>("angleDynamics"))
{
auto mode = jitter_angle->value<Integer>("bVTy");
if (mode == 0)
{
b->m_jitter_angle = jitter_angle->value<UnitFloat>("jitter") * 0.01f;
}
else if (mode == 5)
{
b->m_jitter_angle = jitter_angle->value<UnitFloat>("jitter") * 0.01f;
b->m_tip_angle_init = true;
}
else if (mode == 6)
{
b->m_jitter_angle = jitter_angle->value<UnitFloat>("jitter") * 0.01f;
b->m_tip_angle_follow = true;
}
}
if (auto roundness = p->get<Descriptor>("roundnessDynamics"))
{
b->m_jitter_aspect = roundness->value<UnitFloat>("jitter") * 0.01;
}
b->m_tip_randflipx = p->value<Boolean>("flipX");
b->m_tip_randflipy = p->value<Boolean>("flipY");
}
// Transfer settings
if (p->value<Boolean>("usePaintDynamics"))
{
auto jitter_opacity = p->get<Descriptor>("opVr");
if (jitter_opacity)
{
b->m_jitter_opacity = jitter_opacity->value<UnitFloat>("jitter") * 0.01f;
// TODO: jitter_opacity->value<UnitFloat>("Mnm ") * 0.01f; // minimum size
if (jitter_opacity->value<Integer>("bVTy") == 2)
b->m_tip_opacity_pressure = true;
}
auto jitter_flow = p->get<Descriptor>("prVr");
if (jitter_flow)
{
b->m_jitter_flow = jitter_flow->value<UnitFloat>("jitter") * 0.01f;
// TODO: m_jitter_flow->value<UnitFloat>("Mnm ") * 0.01f; // minimum size
if (jitter_flow->value<Integer>("bVTy") == 2)
b->m_tip_flow_pressure = true;
}
}
std::vector<std::string> modes = {
"normal", // normal (not in Photoshop)
"Mltp", // multiply
"Sbtr", // subtract
"Drkn", // darken
"Ovrl", // overlay
"CDdg", // color dodge
"CBrn", // color burn
"linearBurn", // linear burn
"hardMix", // hard mix
"linearHeight", // linear height
"Hght", // height
};
// pattern
if (auto patt = p->get<Descriptor>("Txtr"))
{
auto patt_uid = wstr2str(patt->value<String>("Idnt"));
b->m_pattern_path = path + "/patterns/" + patt_uid + ".png";
b->m_pattern_thumb_path = path + "/patterns/thumbs/" + patt_uid + ".png";
b->m_pattern_invert = p->value<Boolean>("InvT");
b->m_pattern_eachsample = p->value<Boolean>("TxtC");
b->m_pattern_depth = p->value<UnitFloat>("textureDepth") * 0.01f; // [0, 100] -> [0, 1]
b->m_pattern_scale = p->value<UnitFloat>("textureScale") * 0.01f; // [0, 1000] -> [0, 1]
b->m_pattern_brightness = (float)(p->value<Integer>("textureBrightness") + 150) / 300.f; // [-150, 150] -> [0, 1]
int raw_contrast = p->value<Integer>("textureContrast"); // [-50, 0, 100] -> [0, 1]
b->m_pattern_contrast = raw_contrast / (raw_contrast < 0 ? 100.f : 200.f) + 0.5f;
// blending mode
std::string blend_mode = p->value<Enum>("textureBlendMode");
auto bm_it = std::find(modes.begin(), modes.end(), blend_mode);
if (bm_it != modes.end())
b->m_pattern_blend_mode = std::distance(modes.begin(), bm_it);
b->m_pattern_enabled = p->value<Boolean>("useTexture");
}
// dual brush
auto db = p->get<Descriptor>("dualBrush");
if (db && db->value<Boolean>("useDualBrush"))
{
auto samp = db->get<Descriptor>("Brsh");
if (samp->class_id != "sampledBrush" && samp->class_id != "computedBrush")
{
LOG("unsupported brush type %s", samp->class_id.c_str());
continue;
}
//b->m_name = wstr2str(p->value<String>("Nm "));
// default values
//b->m_tip_color = { 0, 0, 0, 1 };
b->m_dual_flow = .90f;
b->m_dual_opacity = 1.f;
b->m_dual_aspect = (1.f - samp->value<UnitFloat>("Rndn") * 0.01) * 0.5f + 0.5f;
b->m_dual_size = samp->value<UnitFloat>("Dmtr") / b->m_tip_size;
b->m_dual_spacing = samp->value<UnitFloat>("Spcn") * 0.01f;
float tip_angle = -samp->value<UnitFloat>("Angl") / 360.f;
b->m_dual_angle = tip_angle >= 0.f ? tip_angle : tip_angle + 1.f; // [-180, 180] -> [0, 1]
//b->m_tip_wet = p->value<UnitFloat>("Wtdg");
//b->m_tip_noise = (float)samp->value<UnitFloat>("Nose");
b->m_tip_flipx = samp->value<Boolean>("flipX");
b->m_tip_flipy = samp->value<Boolean>("flipY");
b->m_dual_randflip = db->value<Boolean>("Flip");
b->m_dual_scatter_bothaxis = db->value<Boolean>("bothAxes");
if (db->value<Boolean>("useScatter"))
{
auto scatter = db->get<Descriptor>("scatterDynamics");
b->m_dual_scatter = scatter->value<UnitFloat>("jitter") * 0.01f;
}
// brush sample
if (samp->class_id == "sampledBrush")
{
auto tip_uid = wstr2str(samp->value<String>("sampledData"));
b->m_dual_path = path + "/brushes/" + tip_uid + ".png";
b->m_dual_thumb_path = path + "/brushes/thumbs/" + tip_uid + ".png";
const auto& samp_img = m_samples[tip_uid];
//b->m_tip_width = (float)samp_img->width / (float)samp_img->height;
}
else if (samp->class_id == "computedBrush")
{
if (samp->value<UnitFloat>("Hrdn") > 50.f)
{
b->m_dual_path = "data/brushes/Round-Hard.png";
b->m_dual_thumb_path = "data/brushes/thumbs/Round-Hard.png";
}
else
{
b->m_dual_path = "data/brushes/Round-Brush.png";
b->m_dual_thumb_path = "data/brushes/thumbs/Round-Brush.png";
}
}
// blending mode
std::string blend_mode = db->value<Enum>("BlnM");
auto bm_it = std::find(modes.begin(), modes.end(), blend_mode);
if (bm_it != modes.end())
b->m_dual_blend_mode = std::distance(modes.begin(), bm_it);
b->m_dual_enabled = db->value<Boolean>("useDualBrush");
}
ret.push_back(b);
}
return ret;
}
std::shared_ptr<ABR::VMArray> ABR::parse_vmem()
{
// Virtual Memory Array List
auto vmem_version = ru32(); // = 3
assert(vmem_version == 3);
auto vmem_length = ru32();
// TODO: check if at the end there's good data
// check if the bounds are within the parent's size
auto vmem_rect = rrect();
auto vmem_channels = ru32();
// The following is a virtual memory array,
// repeated for the number of channels
// + one for a user mask + one for a sheet mask.
vmem_channels += 2; // user and sheet mask
auto ret = std::make_shared<VMArray>(vmem_version, vmem_rect);
for (int ch = 0; ch < vmem_channels; ch++)
{
auto array_written = ru32(); // skip if 0
if (array_written == 0)
continue;
auto length = ru32(); // skip if 0, length is from the next field to the end
if (length == 0)
continue;
auto depth = ru32(); // Pixel depth: 1, 8, 16 or 32
auto rect = rrect();
auto depth2 = ru16(); // again?
auto compression = ru8(); // 1 = zip
if (depth != 8)
{
LOG("unsupported depth %d bits\n", depth);
skip(length - 23);
continue;
}
if (compression == 0)
{
int data_size = (depth >> 3) * rect.area();
ret->channels.emplace_back(depth, rect, compression, rraw(data_size));
}
else if (compression == 1)
{
auto start = pos();
auto height = rect.height();
// contain the compressed length of each scanline
std::vector<uint16_t> scanlines;
scanlines.reserve(height);
for (int i = 0; i < height; i++)
scanlines.push_back(ru16());
std::vector<uint8_t> raw;
for (auto sl : scanlines)
{
auto decoded = rrle(sl);
raw.insert(raw.end(), decoded.begin(), decoded.end());
}
ret->channels.emplace_back(depth, rect, compression, raw);
auto len = pos() - start;
}
else
{
LOG("unsupported compression mode %d\n", compression);
skip(length - 23);
continue;
}
}
snap();
return ret;
}
std::shared_ptr<ABR::List> ABR::parse_vlls()
{
auto ret = std::make_shared<List>();
auto count = ru32();
//printf("list: %d\n", count);
for (int i = 0; i < count; i++)
{
auto type = rstring(4);
auto item = call(type);
if (!item)
return nullptr;
ret->items.push_back(item);
}
return ret;
}
std::shared_ptr<ABR::String> ABR::parse_text()
{
auto ret = std::make_shared<String>();
ret->value = rwstring();
//wprintf(L"text: %s\n", ret->value.c_str());
return ret;
}
std::shared_ptr<ABR::Descriptor> ABR::parse_objc()
{
auto ret = std::make_shared<Descriptor>();
ret->name = rwstring();
ret->class_id = rkey_or_string();
auto count = ru32();
//printf("objc type %s, %d props\n", ret->class_id.c_str(), count);
for (int i = 0; i < count; i++)
{
auto key = rkey_or_string();
auto type = rstring(4);
//printf("prop %s\n", t.c_str());
auto property = call(type);
if (!property)
return nullptr;
if (ret->props.find(key) != ret->props.end())
LOG("DUPLICATE prop %s\n", key.c_str());
ret->props[key] = property;
}
return ret;
}
std::shared_ptr<ABR::UnitFloat> ABR::parse_untf()
{
auto ret = std::make_shared<UnitFloat>();
ret->unit = rstring(4);
ret->value = rdbl();
//printf("float %s: %f\n", ret->unit.c_str(), ret->value);
return ret;
}
std::shared_ptr<ABR::Boolean> ABR::parse_bool()
{
auto ret = std::make_shared<Boolean>();
ret->value = ru8();
//printf("bool: %s\n", ret->value ? "true" : "false");
return ret;
}
std::shared_ptr<ABR::Integer> ABR::parse_long()
{
auto ret = std::make_shared<Integer>();
ret->value = ru32();
//printf("long: %d\n", ret->value);
return ret;
}
std::shared_ptr<ABR::Double> ABR::parse_doub()
{
auto ret = std::make_shared<Double>();
ret->value = rdbl();
//printf("double: %d\n", ret->value);
return ret;
}
std::shared_ptr<ABR::Enum> ABR::parse_enum()
{
auto ret = std::make_shared<Enum>();
ret->type = rkey_or_string();
ret->value = rkey_or_string();
//printf("enum: %s %s\n", t.c_str(), e.c_str());
return ret;
}
std::shared_ptr<ABR::RawData> ABR::parse_tdta()
{
auto ret = std::make_shared<RawData>();
ret->data = rraw();
return ret;
}
ABR::ABR()
{
m_parser_table = std::map<std::string, std::function<ABR::Type::Ref()>>
{
{ "VlLs", std::bind(&ABR::parse_vlls, this) },
{ "TEXT", std::bind(&ABR::parse_text, this) },
{ "Objc", std::bind(&ABR::parse_objc, this) },
{ "UntF", std::bind(&ABR::parse_untf, this) },
{ "bool", std::bind(&ABR::parse_bool, this) },
{ "long", std::bind(&ABR::parse_long, this) },
{ "doub", std::bind(&ABR::parse_doub, this) },
{ "enum", std::bind(&ABR::parse_enum, this) },
{ "tdta", std::bind(&ABR::parse_tdta, this) },
};
}
bool ABR::open(const std::string& path)
{
Asset asset;
if (asset.open(path.c_str()))
{
init(asset.read_all(), asset.m_len, BinaryStream::ByteOrder::BigEndian);
auto version_major = ru16();
auto version_minor = ru16();
LOG("ABR %d.%d\n", version_major, version_minor);
while (!eof())
{
if (rstring(4) != "8BIM")
return false;
auto t = rstring(4);
if (t == "desc")
{
section_desc();
}
else if (t == "patt")
{
section_patt();
}
else if (t == "samp")
{
section_samp();
}
else
{
LOG("skip section %s\n", t.c_str());
skip(align4(ru32()));
}
}
return true;
}
return false;
}