diff --git a/main.cpp b/main.cpp
index decb936..393529f 100644
--- a/main.cpp
+++ b/main.cpp
@@ -318,9 +318,9 @@ int process_faces(const world_t* world)
 		//	export_lightmap(world, face, bounds, faceIdx);
 
 		outFace.numFaceVertices = (unsigned short)(outFaceVertices.size() - outFace.firstFaceVertex);
-		outFace.centerPoint = convertWorldPosition(vertexSum / outFace.numFaceVertices);
+		outFace.center = convertWorldPosition(vertexSum / outFace.numFaceVertices);
 		float area = computeFaceArea(world, face);
-		outFace.centerPoint.pad = (short)(sqrt(area));
+		outFace.center.pad = (short)(sqrt(area));
 		outFaces.push_back(outFace);
 	}
 
@@ -335,28 +335,9 @@ int process_faces(const world_t* world)
 		{
 			ps1bsp_facevertex_t& faceVertex = outFaceVertices[outFace.firstFaceVertex + faceVertIdx];
 			faceVertex.light = compute_faceVertex_light2(world, face, faceVertex.index, faceBounds, vertexFaces);
-
-			if (face->lightmap >= 0)
-			{
-				ps1bsp_vertex_t& vertex = outVertices[faceVertex.index];
-				*(unsigned short*)(&vertex.baseLight) += faceVertex.light;
-				vertex.r++;
-			}
 		}
 	}
 
-	// Average the lightmap values for each vertex
-	for (auto iter = outVertices.begin(); iter != outVertices.end(); ++iter)
-	{
-		unsigned char count = (*iter).r;
-		if (count == 0)
-			continue;
-
-		unsigned short accumulate = *(unsigned short*)(&(*iter).baseLight);
-		(*iter).baseLight = accumulate / count;
-		(*iter).r = 0;
-	}
-
 	// Convert planes
 	std::vector<ps1bsp_plane_t> outPlanes;
 	for (int planeIdx = 0; planeIdx < world->numPlanes; ++planeIdx)
diff --git a/ps1bsp.h b/ps1bsp.h
index 6ab705e..4e3ec83 100644
--- a/ps1bsp.h
+++ b/ps1bsp.h
@@ -46,27 +46,22 @@ typedef struct
 	unsigned short nextframe;	// If non-zero, the texture is animated and this points to the next texture in the sequence
 } ps1bsp_texture_t;
 
-// This matches the SVECTOR data type, using the extra padding to store vertex color data.
-// The full range and precision required cannot be stored in just shorts, so we make use of a floating origin stored in the BSP leafs.
-// With this the higher-order bits of each vertex position are calculated into the model-view matrix, giving good precision for polygons near the camera.
+// This matches the SVECTOR data type; we can use the extra padding to store some more data.
 typedef struct
 {
 	short x;
 	short y;
 	short z;
-	unsigned char baseLight, finalLight;	// Used for gouraud shading based on static lightmap data
-	
-	// Sampled color value from the face texture, for untextured gouraud shaded drawing
-	unsigned char a : 1;	// 0 = opaque, 1 = semi-transparent
-	unsigned char r : 5;
-	unsigned char g : 5;
-	unsigned char b : 5;
+	short pad;
 } ps1bsp_vertex_t;
 
 typedef struct
 {
 	unsigned short index;
 	unsigned short light;
+
+	// TODO: add texture uv's
+	// TODO: add sampled texture color * light, for untextured gouraud shaded drawing at range
 } ps1bsp_facevertex_t;
 
 typedef struct
@@ -77,7 +72,7 @@ typedef struct
 	unsigned short firstFaceVertex;
 	unsigned short numFaceVertices;
 
-	SVECTOR centerPoint;
+	SVECTOR center;
 
 	u_long drawFrame;	// Which frame was this face last drawn on? Used to check if this face should be drawn.
 } ps1bsp_face_t;
@@ -94,7 +89,7 @@ typedef struct
 	int planeId;
 	short children[2];
 
-	// TODO: add bounding box for frustum culling
+	// TODO: add bounding box for frustum culling (or bounding sphere, might be cheaper)
 	
 	u_short firstFace;
 	u_short numFaces;