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Player models are multishader (RenderComponent shader 100): the client wraps each NiLODNode and draws it with the mapShaders id in its name. With shader_metal, shader_brushed or shader_glow set, the opaque bricks are split by look into S<id>_Metal_Model, S<id>_Brushed_Model and S<id>_Glow_Model beside S01_Opaque_Model and S01_Alpha_Model, each with every LOD level. Metal is LU Toolbox's metallic colors plus Materials.xml types (shinySteel; brushedSteel and matteSteel for brushed), glow its glow colors. Glow shapes get an emissive material (glow_emissive) and their plain color, not the baked one. Transparent glow stays in S01_Alpha. All off by default, which writes the same bytes as before (tested). Not how live looked; models already made change only when made again. The icon renderer reads the groups back by tag and draws glow at its plain color and metal with a tinted reflection and highlight. Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
76 lines
3.0 KiB
C++
76 lines
3.0 KiB
C++
#pragma once
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#include <array>
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#include <cstdint>
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#include <string>
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#include <string_view>
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#include <vector>
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#include "UgcModel.h"
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#include "UgcRender.h"
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/**
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* The files the UGC server writes: the mesh as a Gamebryo .nif the client loads, icons as .png and .dds, and the
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* client's .checksum files for its downloads. Pure (data in, bytes out).
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*/
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namespace UgcFormats {
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struct NifShape {
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std::string name;
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const UgcModel::Mesh* mesh{};
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bool transparent{};
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};
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/**
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* A Gamebryo 20.3.0.9 file (user version 0, as the client's own meshes): a root NiNode named `rootName` with one
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* NiTriShape per shape (at most 65535 vertices and triangles each: UgcModel::Split), with vertex colors that are
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* the diffuse and ambient color (NiVertexColorProperty), a white NiMaterialProperty, and for transparent shapes an
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* NiAlphaProperty blending with the vertex alpha.
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*/
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std::string WriteNif(const std::string& rootName, const std::vector<NifShape>& shapes);
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struct NifLod {
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float nearDistance{};
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float farDistance{};
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std::string name; // the level's node, e.g. LOD_0
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std::vector<const UgcModel::Mesh*> pieces; // its shapes (UgcModel::Divide's pieces)
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};
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struct NifLodGroup {
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std::string name; // S01_Opaque_Model: the NiLODNode and its shapes
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bool transparent{};
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std::vector<NifLod> lods;
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// NiMaterialProperty's emissive color (grey) of the group's shapes; 0 the shared white material with none.
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// The client's emissive shader (S46) lerps from the lit color to the vertex color by vertex alpha times its red.
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float emissive{};
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};
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/**
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* The layout LU Toolbox exports (setup_lod_data) and the game's own brick models (res/BrickModels/ndmade) have:
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* the root node, an NiLODNode per group with NiRangeLODData holding each level's distances, a node per level and
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* the level's shapes under it, named like the group. Properties as WriteNif; a group with
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* an emissive color gets a material of its own.
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*/
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std::string WriteLodNif(const std::string& rootName, const std::vector<NifLodGroup>& groups);
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// PNG (8-bit RGBA)
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std::string EncodePng(const UgcRender::Image& image);
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// DDS as the client's own icons are: DXT5 (BC3), without mipmaps, header flags caps|height|width|pixel format|linear
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// size (0x81007), caps texture (0x1000)
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std::string EncodeDds(const UgcRender::Image& image);
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// One 4x4 block (RGBA, 64 bytes, row by row) as DXT5's 16 bytes: alpha endpoints and 3-bit indices, then the
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// color's two RGB565 endpoints and 2-bit indices
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std::array<uint8_t, 16> EncodeDxt5Block(const std::array<uint8_t, 64>& rgba);
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// Lowercase hex MD5 of `data`
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std::string Md5Hex(std::string_view data);
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// What the client reads from a UGC file's .checksum: the MD5 and size of the file as it is after inflating it
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std::string ChecksumXml(std::string_view data);
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// The MD5 (lowercase hex) and size a .checksum (ChecksumXml) holds; false when it doesn't hold both
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bool ReadChecksumXml(std::string_view xml, std::string& md5, uint32_t& size);
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}
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