How to achieve 3D dynamic text effect with three.js

<div class="relative w-screen h-screen">
 <div class="kinetic-text w-full h-full bg-blue-1"></div>
 <div class="font">
 <font>
  A bunch of font codes from the demo CV</font>
 </div>
</div>

:root {
 --blue-color-1: #2c3e50;
}

.bg-blue-1 {
 background: var(--blue-color-1);
}

import createGeometry from "https://cdn.skypack.dev/[email protected]";
import MSDFShader from "https://cdn.skypack.dev/[email protected]/shaders/msdf";
import parseBmfontXml from "https://cdn.skypack.dev/[email protected]";

const font = parseBmfontXml(document.querySelector(".font").innerHTML);
const fontAtlas = "https://i.loli.net/2021/02/20/DcEhuYNjxCgeU42.png";

const kineticTextTorusKnotVertexShader = `(vertex shader code, empty for now, see below for details)`;

const kineticTextTorusKnotFragmentShader = `(fragment shader code, empty for now, see below for details)`;

class KineticText extends Base {
 constructor(sel: string, debug: boolean) {
 super(sel, debug);
 this.cameraPosition = new THREE.Vector3(0, 0, 4);
 this.clock = new THREE.Clock();
 this.meshConfig = {
  torusKnot:
  vertexShader: kineticTextTorusKnotVertexShader,
  fragmentShader: kineticTextTorusKnotFragmentShader,
  geometry: new THREE.TorusKnotGeometry(9, 3, 768, 3, 4, 3)
  }
 };
 this.meshNames = Object.keys(this.meshConfig);
 this.params = {
  meshName: "torusKnot",
  velocity: 0.5,
  shadow: 5,
  color: "#000000",
  frequency: 0.5,
  text: "ALPHARDEX",
  cameraZ: 2.5
 };
 }
 // Initialize async init() {
 this.createScene();
 this.createPerspectiveCamera();
 this.createRenderer(true);
 await this.createKineticText(this.params.text);
 this.createLight();
 this.createOrbitControls();
 this.addListeners();
 this.setLoop();
 }
 // Create dynamic text async createKineticText(text: string) {
 await this.createFontText(text);
 this.createRenderTarget();
 this.createTextContainer();
 }
}

class KineticText extends Base {
 loadFontText(text: string): any {
 return new Promise((resolve) => {
  const fontGeo = createGeometry({
  font,
  text
  });
  const loader = new THREE.TextureLoader();
  loader.load(fontAtlas, (texture) => {
  const fontMat = new THREE.RawShaderMaterial(
   MSDFShader({
   map: texture,
   side: THREE.DoubleSide,
   transparent: true,
   negate: false,
   color: 0xffffff
   })
  );
  resolve({ fontGeo, fontMat });
  });
 });
 }
 async createFontText(text: string) {
 const { fontGeo, fontMat } = await this.loadFontText(text);
 const textMesh = this.createMesh({
  geometry: fontGeo,
  material:fontMat
 });
 textMesh.position.set(-0.965, -0.525, 0);
 textMesh.rotation.set(ky.deg2rad(180), 0, 0);
 textMesh.scale.set(0.008, 0.025, 1);
 this.textMesh = textMesh;
 }
}

varying vec2 vUv;
varying vec3 vPosition;

void main(){
 vec4 modelPosition=modelMatrix*vec4(position,1.);
 vec4 viewPosition=viewMatrix*modelPosition;
 vec4 projectedPosition=projectionMatrix*viewPosition;
 gl_Position = projectedPosition;
 
 vUv=uv;
 vPosition=position;
}

uniform sampler2D uTexture;
uniform float uTime;
uniform float uVelocity;
uniform float uShadow;

varying vec2 vUv;
varying vec3 vPosition;

void main(){
 vec2 repeat = vec2(12.,3.);
 vec2 repeatedUv=vUv*repeat;
 vec2 displacement=vec2(uTime*uVelocity,0.);
 vec2 uv=fract(repeatedUv+displacement);
 vec3 texture=texture2D(uTexture,uv).rgb;
 // texture*=vec3(uv.x,uv.y,1.);
 float shadow = clamp (vPosition.z / uShadow, 0., 1.); // farther darker (to 0).
 vec3 color = vec3(texture*shadow);
 gl_FragColor = vec4(color,1.);
}

class KineticText extends Base {
 createRenderTarget() {
 const rt = new THREE.WebGLRenderTarget(
  window.innerWidth,
  window.innerHeight
 );
 this.rt = rt;
 const rtCamera = new THREE.PerspectiveCamera(45, 1, 0.1, 1000);
 rtCamera.position.z = this.params.cameraZ;
 this.rtCamera = rtCamera;
 const rtScene = new THREE.Scene();
 rtScene.add(this.textMesh);
 this.rtScene = rtScene;
 }
}

class KineticText extends Base {
 createTextContainer() {
 if (this.mesh) {
  this.scene.remove(this.mesh);
  this.mesh = null;
  this.material!.dispose();
  this.material = null;
 }
 this.rtScene.background = new THREE.Color(this.params.color);
 const meshConfig = this.meshConfig[this.params.meshName];
 const geometry = meshConfig.geometry;
 const material = new THREE.ShaderMaterial({
  vertexShader: meshConfig.vertexShader,
  fragmentShader: meshConfig.fragmentShader,
  uniforms:
  uTime: {
   value: 0
  },
  uVelocity:
   value: this.params.velocity
  },
  uTexture: {
   value: this.rt.texture
  },
  uShadow:
   value: this.params.shadow
  },
  uFrequency: {
   value: this.params.frequency
  }
  }
 });
 this.material = material;
 const mesh = this.createMesh({
  geometry,
  Material
 });
 this.mesh = mesh;
 }
 update() {
 if (this.rtScene) {
  this.renderer.setRenderTarget(this.rt);
  this.renderer.render(this.rtScene, this.rtCamera);
  this.renderer.setRenderTarget(null);
 }
 const elapsedTime = this.clock.getElapsedTime();
 if (this.material) {
  this.material.uniforms.uTime.value = elapsedTime;
 }
 }
}

this.cameraPosition = new THREE.Vector3(0, 0, 40);