private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
MD5JointInfo.MD5JointData joint = joints.get(weight.getJointIndex()); Vector3f rotatedPos = new Vector3f(weight.getPosition()).rotate(joint.getOrientation()); Vector3f acumPos = new Vector3f(joint.getPosition()).add(rotatedPos); acumPos.mul(weight.getBias()); vertexPos.add(acumPos);
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
MD5JointInfo.MD5JointData joint = joints.get(weight.getJointIndex()); Vector3f rotatedPos = new Vector3f(weight.getPosition()).rotate(joint.getOrientation()); Vector3f acumPos = new Vector3f(joint.getPosition()).add(rotatedPos); acumPos.mul(weight.getBias()); vertex.position.add(acumPos);
MD5JointInfo.MD5JointData joint = joints.get(weight.getJointIndex()); Vector3f rotatedPos = new Vector3f(weight.getPosition()).rotate(joint.getOrientation()); Vector3f acumPos = new Vector3f(joint.getPosition()).add(rotatedPos); acumPos.mul(weight.getBias()); vertex.position.add(acumPos);
MD5JointInfo.MD5JointData joint = joints.get(weight.getJointIndex()); Vector3f rotatedPos = new Vector3f(weight.getPosition()).rotate(joint.getOrientation()); Vector3f acumPos = new Vector3f(joint.getPosition()).add(rotatedPos); acumPos.mul(weight.getBias()); vertex.position.add(acumPos);
MD5JointInfo.MD5JointData joint = joints.get(weight.getJointIndex()); Vector3f rotatedPos = new Vector3f(weight.getPosition()).rotate(joint.getOrientation()); Vector3f acumPos = new Vector3f(joint.getPosition()).add(rotatedPos); acumPos.mul(weight.getBias()); vertex.position.add(acumPos);
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }
private static List<Matrix4f> calcInJointMatrices(MD5Model md5Model) { List<Matrix4f> result = new ArrayList<>(); List<MD5JointInfo.MD5JointData> joints = md5Model.getJointInfo().getJoints(); for (MD5JointInfo.MD5JointData joint : joints) { // Calculate translation matrix using joint position // Calculates rotation matrix using joint orientation // Gets transformation matrix bu multiplying translation matrix by rotation matrix // Instead of multiplying we can apply rotation which is optimized internally Matrix4f mat = new Matrix4f() .translate(joint.getPosition()) .rotate(joint.getOrientation()) .invert(); result.add(mat); } return result; }