classesABC.js

class Quaternion {
    constructor() {
        // Initialize the quaternion
    }

    rotationX(angle) {
        // Implement rotation around X axis
        return this;
    }

    rotationY(angle) {
        // Implement rotation around Y axis
        return this;
    }

    rotationZ(angle) {
        // Implement rotation around Z axis
        return this;
    }

    rotationAxis(angle, vector) {
        // Implement rotation around an arbitrary axis
        return this;
    }
}

const a = {
    a: (angle) => new Quaternion().rotationX(-angle),
    b: (angle) => new Quaternion().rotationX(angle),
    c: (angle) => new Quaternion().rotationY(-angle),
    d: (angle) => new Quaternion().rotationY(angle),
    e: (angle) => new Quaternion().rotationZ(-angle),
    f: (angle) => new Quaternion().rotationZ(angle),

    of: (vector) => (angle) => new Quaternion().rotationAxis(angle, vector),

    rotation: function(angle) {
        // Implement rotation logic
    },

    rotationDegrees: function(angle) {
        return this.rotation(angle * 0.017453292);
    }
};

class ab {}
ab.a = false;
ab.b = 3955;
ab.c = 'main';
ab.d = '1.21.1';
ab.e = 767;
ab.f = 204;
ab.g = 3937;
ab.bm = 30;
ab.h = false;
ab.i = 34;
ab.j = 48;
ab.k = 1;
ab.l = 1;
ab.m = 'DataVersion';
ab.n = false;
ab.o = false;
ab.p = false;
ab.q = false;
ab.r = false;
ab.s = false;
ab.t = false;
ab.u = false;
ab.v = false;
ab.w = false;
ab.x = false;
ab.y = false;
ab.z = false;
ab.A = false;
ab.B = false;
ab.C = false;
ab.D = false;
ab.E = false;
ab.F = false;
ab.G = false;
ab.H = false;
ab.I = false;
ab.J = false;
ab.K = false;
ab.L = false;
ab.M = false;
ab.N = false;
ab.O = false;
ab.P = false;
ab.Q = false;
ab.R = false;
ab.S = false;
ab.T = false;
ab.U = false;
ab.V = false;
ab.W = false;
ab.X = false;
ab.Y = false;
ab.Z = false;
ab.aa = false;
ab.ab = false;
ab.ac = false;
ab.ad = false;
ab.ae = false;
ab.af = false;
ab.ag = false;
ab.ah = false;
ab.ai = false;
ab.aj = false;
ab.ak = false;
ab.al = false;
ab.am = false;
ab.an = false;
ab.ao = false;
ab.ap = false;
ab.aq = false;
ab.ar = false;
ab.as = false;
ab.at = false;
ab.au = false;
ab.av = false;
ab.aw = false;
ab.ax = false;
ab.ay = false;
ab.az = false;
ab.aA = false;
ab.aB = false;
ab.aC = false;
ab.aD = 25565;
ab.aE = false;
ab.aF = false;
ab.aG = 0;
ab.aH = 0;
ab.aI = null;
ab.aJ = false;
ab.aK = false;
ab.aL = false;
ab.aM = false;
ab.aN = false;
ab.aO = false;
ab.aP = false;
ab.aQ = 0;
ab.aR = 3600000.0;
ab.aS = false;
ab.aT = false;
ab.aU = false;
ab.aV = false;
ab.aW = 16;
ab.aX = 256;
ab.aY = 32500;
ab.aZ = 2000000;
ab.ba = 16;
ab.bb = 1000000;
ab.bc = 32;
ab.bd = null;
ab.be = 20;
ab.bf = 50;
ab.bg = 1200;
ab.bh = 24000;
ab.bi = 1365.3334;
ab.bj = 0.87890625;
ab.bk = 17.578125;
ab.bl = 64;
ab.bn = null;
ab.a$0 = () => {
  if (this.bn === null) {
    this.bn = this.t.a();
  }
};
ab.a$1 = ($$0) => {
  let $$1 = $$0.d();
  let $$2 = $$0.e();
  if (!this.ar) {
    return false;
  } else {
    return $$1 > 8192 || $$1 < 0 || $$2 > 1024 || $$2 < 0;
  }
};
ab.a = (...args$) => {
  switch (args$.length) {
    case 0:
      return ab.a$0(...args$);
    case 1:
      return ab.a$1(...args$);
  }
};
ab.b = () => {
  if (this.bn === null) {
    throw new IllegalStateException('Game version not set');
  } else {
    return this.bn;
  }
};
ab.c = () => {
  return 767;
};

const a = zl.a(vu.e, ($$0) => {
  $$0.a(zy.l, aaa.a).a(abq.b, abs.a).a(zy.m, aab.a).a(abi.f, abl.b).a(zy.n, aac.a).a(zy.o, aad.a).a(zy.p, aae.a).a(abi.g, abm.a);
});
const b = a.a(vw);
const c = zl.b(vu.e, ($$0) => {
  $$0.a(abq.a, abp.a).a(zy.a, zn.b).a(zy.c, zp.a).a(abi.a, abd.b).a(zy.d, zq.a).a(zy.e, zr.a).a(abi.e, abf.b).a(abi.b, abe.a).a(zy.f, zs.a).a(zy.g, zt.b).a(zy.i, zv.a).a(zy.j, zw.a).a(abi.c, abh.a).a(zy.k, zx.a).a(abi.d, abg.a).a(zy.b, zo.a).a(zy.h, zu.a);
});
const d = c.a(vw);

class abw implements zg<abu> {
   static final yx<vw, abw> a = zg.a(abw::a, abw::new);
   private final int b;
   private final double c;
   private final double d;
   private final double e;
   private final int f;

   constructor(btc $$0, aqt $$1) {
      this.b = $$0.an();
      const $$2 = $$1.b();
      this.c = $$2.a();
      this.d = $$2.b();
      this.e = $$2.c();
      this.f = $$0.p();
   }

   constructor(vw $$0) {
      this.b = $$0.l();
      this.c = $$0.readDouble();
      this.d = $$0.readDouble();
      this.e = $$0.readDouble();
      this.f = $$0.readShort();
   }

   a(vw $$0) {
      $$0.c(this.b);
      $$0.a(this.c);
      $$0.a(this.d);
      $$0.a(this.e);
      $$0.l(this.f);
   }

   a() {
      return agg.d;
   }

   a(abu $$0) {
      $$0.a(this);
   }

   b() {
      return this.b;
   }

   e() {
      return this.c;
   }

   f() {
      return this.d;
   }

   g() {
      return this.e;
   }

   h() {
      return this.f;
   }

   a(wf param1) {
      this.a(param1);
   }
}

class abx implements zg<abu> {
   static yx<vw, abx> a = zg.a(abx::a, abx::new);
   static int b = 0;
   static int c = 2;
   static int d = 3;
   static int e = 4;
   static int f = 5;
   int g;
   int h;

   constructor(bsr $$0, int $$1) {
      this.g = $$0.an();
      this.h = $$1;
   }

   constructor(vw $$0) {
      this.g = $$0.l();
      this.h = $$0.readUnsignedByte();
   }

   a(vw $$0) {
      $$0.c(this.g);
      $$0.k(this.h);
   }

   a() {
      return agg.e;
   }

   a(abu $$0) {
      $$0.a(this);
   }

   b() {
      return this.g;
   }

   e() {
      return this.h;
   }

   a(wf param1) {
      this.a(param1);
   }
}

const { Maps } = require('com.google.common.collect');
const { LogUtils } = require('com.mojang.logging');
const { Files, InvalidPathException, Path } = require('java.nio.file');
const { SystemInfo, hardware } = require('oshi');
const { Logger } = require('org.slf4j');

const a = 1048576;
const c = LogUtils.getLogger();
let d, e, f;

class ac {
  constructor() {
    this.g = Maps.newLinkedHashMap();
    this.a('Minecraft Version', ab.b().c());
    this.a('Minecraft Version ID', ab.b().b());
    this.a('Operating System', d);
    this.a('Java Version', e);
    this.a('Java VM Version', f);
    this.a('Memory', () => {
      const runtime = Runtime.getRuntime();
      const maxMemory = runtime.maxMemory();
      const totalMemory = runtime.totalMemory();
      const freeMemory = runtime.freeMemory();
      const maxMemoryMiB = maxMemory / a;
      const totalMemoryMiB = totalMemory / a;
      const freeMemoryMiB = freeMemory / a;
      return `${freeMemory} bytes (${freeMemoryMiB} MiB) / ${totalMemory} bytes (${totalMemoryMiB} MiB) up to ${maxMemory} bytes (${maxMemoryMiB} MiB)`;
    });
  }

  a(key, value) {
    this.g.set(key, value);
  }
}

function aca(b, c, d) {
  this.b = b;
  this.c = c;
  this.d = d;
}

aca.prototype.a = function(vw) {
  vw.c(this.b);
  vw.a(this.c);
  vw.k(this.d);
};

aca.prototype.a = function() {
  return agg.h;
};

aca.prototype.a = function(abu) {
  abu.a(this);
};

aca.prototype.b = function() {
  return this.b;
};

aca.prototype.e = function() {
  return this.c;
};

aca.prototype.f = function() {
  return this.d;
};

aca.prototype.a = function(wf) {
  this.a(wf);
};

aca.a = zg.a(aca.prototype.a, aca);

import { BiFunction } from 'some-library'; // Import any necessary libraries

class Acb {
    static a;
    constructor(b, c, d) {
        this.b = b;
        this.c = c;
        this.d = d;
    }

    static a($0, $1) {
        const $2 = $0.i().H_();
        return new Acb($0.aD_(), $0.r(), $1($0, $2));
    }

    static a($0) {
        return Acb.a($0, (a, b) => a.a(b)); // Assuming dqh::a is a method reference
    }

    a() {
        return Agg.i; // Assuming agg.i is a static property
    }

    a($0) {
        $0.a(this);
    }

    b() {
        return this.b;
    }

    e() {
        return this.c;
    }

    f() {
        return this.d;
    }

    a(var1) {
        this.a(var1);
    }

    static {
        Acb.a = Yx.a(Jd.b, Acb.b, Yv.a(Lu.h), Acb.e, Yv.p, Acb.f, Acb);
    }
}

class Acc {
    static a = Zg.a(Acc.a, Acc.new);
    constructor(b, e, c, d) {
        this.b = b;
        this.e = e;
        this.c = c;
        this.d = d;
    }

    static fromWk(wk) {
        const b = wk.e();
        const c = wk.readUnsignedByte();
        const d = wk.readUnsignedByte();
        const e = Yv.a(Lu.f).decode(wk);
        return new Acc(b, e, c, d);
    }

    toWk(wk) {
        wk.a(this.b);
        wk.k(this.c);
        wk.k(this.d);
        Yv.a(Lu.f).encode(wk, this.e);
    }

    a() {
        return Agg.j;
    }

    a(abu) {
        abu.a(this);
    }

    b() {
        return this.b;
    }

    e() {
        return this.c;
    }

    f() {
        return this.d;
    }

    g() {
        return this.e;
    }

    a(param1) {
        this.a(param1);
    }
}

class ACD {
    static a = YX.a(JD.b, ACD.e, YV.a(DFY.q), ACD.b, ACD.new);

    constructor($0, $1) {
        this.b = $0;
        this.c = $1;
    }

    constructor($0, $1) {
        this($1, $0.a_($1));
    }

    a() {
        return AGG.k;
    }

    a($0) {
        $0.a(this);
    }

    b() {
        return this.c;
    }

    e() {
        return this.b;
    }

    // Synthetic method
    a(param1) {
        this.a(param1);
    }
}

class acf extends zd {
   a() {
      return agg.b;
   }
}

class ACG extends ZE {
   constructor(iterable) {
      super(iterable);
   }

   a() {
      return AGG.a;
   }

   a(abu) {
      abu.a(this);
   }

   // Synthetic method
   // Bridge method
   a(param1) {
      this.a(param1);
   }
}

class Ach {
    static a = (vwInstance) => new Ach(vwInstance);
    
    constructor(bqoInstance, boolValue) {
        this.b = bqoInstance;
        this.c = boolValue;
    }

    static fromVw(vwInstance) {
        return new Ach(bqo.a(vwInstance.readUnsignedByte()), vwInstance.readBoolean());
    }

    toVw(vwInstance) {
        vwInstance.k(this.b.a());
        vwInstance.a(this.c);
    }

    getZi() {
        return Agg.m;
    }

    apply(abuInstance) {
        abuInstance.a(this);
    }

    isBool() {
        return this.c;
    }

    getBqo() {
        return this.b;
    }

    // Synthetic method
    static syntheticMethod(param1) {
        this.apply(param1);
    }
}

import { ByteBuf } from 'io.netty.buffer';

class Acj {
    static a = new Acj();
    static b;

    constructor() {}

    a() {
        return Agg.o;
    }

    a(abu) {
        abu.a(this);
    }

    // Synthetic method
    a(param1) {
        this.a(param1);
    }

    static {
        Acj.b = Yx.a(Acj.a);
    }
}

class Aa extends Error {
    constructor(message) {
        super(this.escapeJava(message));
    }

    constructor(message, cause) {
        super(this.escapeJava(message), cause);
    }

    escapeJava(str) {
        return str.replace(/\\/g, '\\\\')
                  .replace(/'/g, "\\'")
                  .replace(/"/g, '\\"')
                  .replace(/\n/g, '\\n')
                  .replace(/\r/g, '\\r')
                  .replace(/\t/g, '\\t');
    }
}

class aac {
    static a = zg.a(aac.a, aac);

    constructor($$0) {
        this.b = $$0;
    }

    static fromVW($$0) {
        return new aac($$0.readLong());
    }

    toVW($$0) {
        $$0.b(this.b);
    }

    a() {
        return zy.n;
    }

    a($$0) {
        $$0.a(this);
    }

    b() {
        return this.b;
    }

    // Synthetic method
    a(param1) {
        this.a(param1);
    }
}

class Aad {
    static a = new Map();

    constructor($0) {
        this.b = $0;
    }

    static fromVW($0) {
        return new Aad($0.readInt());
    }

    toVW($0) {
        $0.p(this.b);
    }

    a() {
        return Zy.o;
    }

    a($0) {
        $0.a(this);
    }

    b() {
        return this.b;
    }

    // Synthetic method
    a(param1) {
        this.a(param1);
    }
}

import { a as aaj } from 'aaj/b';

class aao extends Record {
    static a = aaj.a(aao.a, () => new aao());
    static b = aaj.a("debug/game_test_clear");

    constructor($$0) {
        super();
        if ($$0) {
            this.a($$0);
        }
    }

    a() {
        return aao.b;
    }

    a($$0) {
    }

    toString() {
        return this.toString();
    }

    hashCode() {
        return this.hashCode();
    }

    equals($$0) {
        return this.equals(this, $$0);
    }
}

function aba() {}
function abb() {}

interface abc extends zm {
  b() {
    return vu.e;
  }

  a(abd arg1);

  a(abe arg1);

  a(abh arg1);

  a(abg arg1);

  a(abf arg1);
}
function abd() {
  this.a = function() {
    return abi.a;
  };

  this.a = function(abc) {
    abc.a(this);
  };

  this.d = function() {
    return true;
  };

  this.a = function(wf) {
    this.a(wf);
  };
}

abd.a = new abd();
abd.b = yx.a(abd.a);

class abf implements zg<abc> {
  static final abf a = new abf();
  static final yx<ByteBuf, abf> b = yx.a(a);

  private abf() {}

  zi<abf> a() {
    return abi.e;
  }

  void a(abc $$0) {
    $$0.a(this);
  }

  void a(wf param1) {
    this.a((abc)param1);
  }
}
class Abi {
  static a = Abi.createZi('finish_configuration', 'b');
  static b = Abi.createZi('registry_data', 'b');
  static c = Abi.createZi('update_enabled_features', 'b');
  static d = Abi.createZi('select_known_packs', 'b');
  static e = Abi.createZi('reset_chat', 'b');
  static f = Abi.createZi('finish_configuration', 'a');
  static g = Abi.createZi('select_known_packs', 'a');

  static createZi(key, type) {
    return new Zi(type === 'a' ? Zh.a : Zh.b, Akr.b(key));
  }
}

// Placeholder classes and methods (to be replaced with actual implementations)
class Zi {
  constructor(type, value) {
    this.type = type;
    this.value = value;
  }
}

class Zh {
  static a = 'someValueA';
  static b = 'someValueB';
}

class Akr {
  static b(key) {
    // Replace this with actual logic
    return `ProcessedValueFor:${key}`;
  }
}
// Assuming `zz`, `vu`, `abl`, and `abm` are already defined in your JavaScript environment

class Abk extends Zz {
  // Define a default method equivalent to the default method in Java
  b() {
    return Vu.e;
  }

  // Define abstract methods that need to be implemented by subclasses
  a(abl) {
    throw new Error('Method "a(abl)" must be implemented.');
  }

  a(abm) {
    throw new Error('Method "a(abm)" must be implemented.');
  }
}

// Placeholder classes and constants (to be replaced with actual implementations)
class Zz {
  // Base class logic, if needed
}

class Vu {
  static e = 'someValue'; // Replace with actual value or implementation
}

// Placeholder classes
class Abl {
  // Implementation details
}

class Abm {
  // Implementation details
}
// Assuming you have corresponding definitions for these classes/functions

class Abl {
  static a = new Abl();
  static b;

  constructor() {
    // Private constructor, singleton pattern
  }

  // Method a() returns a reference to a `Zi` instance
  a() {
    return Abi.f; // Assuming `Abi` class and `f` property exist
  }

  // Method a(abk) calls a method on the `abk` instance
  a(abk) {
    abk.a(this);
  }

  // Method d() returns a boolean value
  d() {
    return true;
  }

  // Synthetic method - bridge method
  a(param1) {
    this.a(param1); // Assuming `param1` is of type `abk`
  }

  static initialize() {
    Abl.b = Yx.a(Abl.a); // Assuming `Yx` class and `a` method exist
  }
}

// Initialize static properties
Abl.initialize();

// Placeholder classes/functions (to be replaced with actual implementations)
class Zi {
  constructor(type, value) {
    this.type = type;
    this.value = value;
  }
}

class Abi {
  static f = new Zi('type', 'value'); // Placeholder for actual value
}

class Yx {
  static a(instance) {
    // Replace with actual logic
    return `ProcessedValueFor:${instance}`;
  }
}

// Assuming `Abk` class exists and has an `a()` method
class Abk {
  a(instance) {
    // Method implementation
  }
}
// JavaScript equivalent of the Java interface `abn`
// JavaScript does not have annotations, so document expected behavior with comments

/**
 * @typedef {Object} Abn
 * @property {Function} methodName - Description of the method(s) expected in implementing classes
 */

/**
 * Abstract class to simulate the interface behavior.
 * Implementing classes should provide their own methods as described.
 */
class Abn {
  // Constructor and methods would be defined by classes implementing this abstract class
  // The implementing classes should define the methods required by this interface
}

// Placeholder for the annotations in Java (not applicable in JavaScript but documented)
class ParametersAreNonnullByDefault {}
class W {}
class U {}

// Example usage of the annotations in comments
/**
 * @ParametersAreNonnullByDefault
 * @w
 * @u
 */
// Abstract class to simulate the Java interface `abo`
class Abo extends Vq {
  /**
   * Method to be implemented by subclasses.
   * @param {Abp} var1 - The parameter expected by the method.
   */
  a(var1) {
    throw new Error('Method "a" must be implemented by subclass.');
  }
}

// Placeholder classes (to be replaced with actual implementations)
class Vq {
  // Base class logic, if needed
}

class Abp {
  // Implementation details
}
// Define the placeholder classes and methods (replace with actual implementations)
class Zi {
  constructor(type, value) {
    this.type = type;
    this.value = value;
  }
}

class Zh {
  static a = 'someValueA'; // Replace with actual value
  static b = 'someValueB'; // Replace with actual value
}

class Akr {
  static b(key) {
    // Replace with actual logic for processing the key
    return `ProcessedValueFor:${key}`;
  }
}

class Abq {
  static a = Abq.createZi('cookie_request', Zh.b);
  static b = Abq.createZi('cookie_response', Zh.a);

  // Generic-like method for creating Zi instances
  static createZi(key, type) {
    return new Zi(type, Akr.b(key));
  }
}

// Example placeholder classes for generics
class Abp {}
class Abs {}
class Zg {}
class Abo {}
class Abr {}

// Example usage
const instanceA = Abq.a;
const instanceB = Abq.b;

console.log(instanceA);
console.log(instanceB);
// Define an abstract class to simulate the Java interface `abr`
class Abr extends Agj {
  /**
   * Abstract method to be implemented by subclasses.
   * @param {Abs} var1 - The parameter expected by the method.
   */
  a(var1) {
    throw new Error('Method "a" must be implemented by subclass.');
  }
}

// Placeholder classes (to be replaced with actual implementations)
class Agj {
  // Base class logic, if needed
}

class Abs {
  // Implementation details
}
// Abstract class to simulate the Java interface `abt`
class Abt {
  /**
   * Abstract method that should be implemented by subclasses.
   * Any class implementing this should provide its own methods.
   */
  someMethod() {
    throw new Error('Method "someMethod" must be implemented by subclass.');
  }
}

// Placeholder classes for annotations (not applicable in JavaScript but documented)
class ParametersAreNonnullByDefault {}
class W {}
class U {}

// Example usage of the annotations in comments
/**
 * @ParametersAreNonnullByDefault
 * @w
 * @u
 */
// Define an abstract class to simulate the Java interface `abu`
class Abu extends Aji {
  /**
   * Default method that returns a specific value.
   * @returns {Vu} - The default value.
   */
  b() {
    return Vu.b; // Assuming Vu is defined elsewhere
  }

  /**
   * Method to be implemented by subclasses.
   * @param {Abv} var1 - Parameter for the method.
   */
  a(var1) {
    throw new Error('Method "a" must be implemented by subclass.');
  }

  // Add all other methods with similar definitions
  a(var1) {
    throw new Error('Method "a(var1)" must be implemented by subclass.');
  }
  
  a(var1) {
    throw new Error('Method "a(var1)" must be implemented by subclass.');
  }
  
  // Repeat this pattern for each method in the interface

  // Example for a few other methods
  a(abw) {
    throw new Error('Method "a(abw)" must be implemented by subclass.');
  }

  a(aff) {
    throw new Error('Method "a(aff)" must be implemented by subclass.');
  }

  // ... Continue for each method defined in the Java interface
}

// Placeholder classes and constants (to be replaced with actual implementations)
class Aji {}
class Vu {
  static b = 'someDefaultValue'; // Replace with actual value
}

class Abv {}
class Abw {}
class Aff {}
// Define other classes as needed...

// Example usage
class ExampleImplementation extends Abu {
  a(abv) {
    // Provide actual implementation
    console.log('Method a(abv) implemented');
  }

  // Implement other methods similarly...
}

const example = new ExampleImplementation();
example.a(new Abv()); // Calls the implemented method
// Define constants
const B = 8000.0;
const C = 3.9;

// Define placeholder classes and methods (replace with actual implementations)
class UUID {
  // Placeholder for UUID functionality
  static randomUUID() {
    return new UUID();
  }
}

class Bsx {}
class Wk {
  l() { return 0; }
  n() { return new UUID(); }
  readDouble() { return 0.0; }
  readByte() { return 0; }
  readShort() { return 0; }
  c(value) {}
  a(value) {}
  k(value) {}
  l(value) {}
}

class Yv {
  static a(value) {
    return {
      decode: () => new Bsx(),
      encode: () => {}
    };
  }
}

class Lu {
  static z = 'someValue';
}

class Ayo {
  static d(value) {
    return Math.round(value);
  }
  
  static a(value, min, max) {
    return Math.max(min, Math.min(max, value));
  }
}

class Agg {
  static c = new Zi();
}

class Zi {}

// Main class conversion
class Abv {
  static a = {
    encode: () => new Abv(),
    decode: () => {}
  };

  constructor(arg1, arg2, arg3) {
    if (arg2 instanceof Bsr) {
      // Overloaded constructor 1
      this(arg2.an(), arg2.cz(), arg2.b().a(), arg2.b().b(), arg2.b().c(), arg2.d(), arg2.e(), arg2.am(), arg3 || 0, arg2.c(), (double)arg2.f());
    } else if (arg2 instanceof Integer && arg3 instanceof Jd) {
      // Overloaded constructor 2
      this(arg1.an(), arg1.cz(), (double)arg3.u(), (double)arg3.v(), (double)arg3.w(), arg1.dG(), arg1.dE(), arg1.am(), arg2, arg1.dr(), (double)arg1.ct());
    } else {
      // Base constructor
      this.d = arg1;
      this.e = arg2;
      this.g = arg3;
      this.h = arguments[4];
      this.i = arguments[5];
      this.m = Ayo.d(arguments[6] * 256.0 / 360.0);
      this.n = Ayo.d(arguments[7] * 256.0 / 360.0);
      this.o = Ayo.a(arguments[8] * 256.0 / 360.0);
      this.f = arguments[9];
      this.p = arguments[10];
      this.j = Ayo.a(arguments[11], -3.9, 3.9) * 8000;
      this.k = Ayo.a(arguments[12], -3.9, 3.9) * 8000;
      this.l = Ayo.a(arguments[13], -3.9, 3.9) * 8000;
    }
  }

  // Constructor for decoding
  constructorFromWk(wk) {
    this.d = wk.l();
    this.e = wk.n();
    this.f = Yv.a(Lu.z).decode(wk);
    this.g = wk.readDouble();
    this.h = wk.readDouble();
    this.i = wk.readDouble();
    this.m = wk.readByte();
    this.n = wk.readByte();
    this.o = wk.readByte();
    this.p = wk.l();
    this.j = wk.readShort();
    this.k = wk.readShort();
    this.l = wk.readShort();
  }

  // Method to encode into wk
  encodeToWk(wk) {
    wk.c(this.d);
    wk.a(this.e);
    Yv.a(Lu.z).encode(wk, this.f);
    wk.a(this.g);
    wk.a(this.h);
    wk.a(this.i);
    wk.k(this.m);
    wk.k(this.n);
    wk.k(this.o);
    wk.c(this.p);
    wk.l(this.j);
    wk.l(this.k);
    wk.l(this.l);
  }

  a() {
    return Agg.c;
  }

  a(abu) {
    abu.a(this);
  }

  b() {
    return this.d;
  }

  e() {
    return this.e;
  }

  f() {
    return this.f;
  }

  g() {
    return this.g;
  }

  h() {
    return this.h;
  }

  i() {
    return this.i;
  }

  j() {
    return this.j / B;
  }

  k() {
    return this.k / B;
  }

  l() {
    return this.l / B;
  }

  m() {
    return (this.m * 360) / 256.0;
  }

  n() {
    return (this.n * 360) / 256.0;
  }

  o() {
    return (this.o * 360) / 256.0;
  }

  p() {
    return this.p;
  }
}

// Placeholder classes for types not defined in the snippet
class Bsr {
  an() { return 0; }
  cz() { return 0; }
  b() { return { a: 0, b: 0, c: 0 }; }
  d() { return 0; }
  e() { return 0; }
  am() { return 0; }
  c() { return 0; }
  f() { return 0; }
  dr() { return 0; }
  ct() { return 0; }
}

class Aqt {
  b() { return { a: 0, b: 0, c: 0 }; }
  d() { return 0; }
  e() { return 0; }
  c() { return 0; }
  f() { return 0; }
}

class Jd {
  u() { return 0; }
  v() { return 0; }
  w() { return 0; }
}

class Exc {
  c() { return 0; }
  d() { return 0; }
  e() { return 0; }
}

class Yv {
  static a(value) {
    return {
      decode: () => new Bsx(),
      encode: () => {}
    };
  }
}
// Define placeholder classes and methods (replace with actual implementations)
class Vw {
  l() { return 0; }
  readDouble() { return 0.0; }
  readShort() { return 0; }
  c(value) {}
  a(value) {}
  l(value) {}
}

class Exc {
  a() { return 0.0; }
  b() { return 0.0; }
  c() { return 0.0; }
}

class Btc {
  an() { return 0; }
  p() { return 0; }
}

class Aqt {
  b() {
    return new Exc();
  }
}

class Zi {}

class Agg {
  static d = new Zi();
}

class Abw {
  static a = {
    encode: () => new Abw(),
    decode: () => {}
  };

  constructor(btc, aqt) {
    this.b = btc.an();
    const exc = aqt.b();
    this.c = exc.a();
    this.d = exc.b();
    this.e = exc.c();
    this.f = btc.p();
  }

  // Constructor for deserialization
  constructorFromVw(vw) {
    this.b = vw.l();
    this.c = vw.readDouble();
    this.d = vw.readDouble();
    this.e = vw.readDouble();
    this.f = vw.readShort();
  }

  // Method to serialize data into vw
  serializeToVw(vw) {
    vw.c(this.b);
    vw.a(this.c);
    vw.a(this.d);
    vw.a(this.e);
    vw.l(this.f);
  }

  // Method to get the associated zi instance
  a() {
    return Agg.d;
  }

  // Method to handle an instance of abu
  a(abu) {
    abu.a(this);
  }

  // Getter methods
  b() {
    return this.b;
  }

  e() {
    return this.c;
  }

  f() {
    return this.d;
  }

  g() {
    return this.e;
  }

  h() {
    return this.f;
  }
}

// Example usage
const btc = new Btc();
const aqt = new Aqt();
const abwInstance = new Abw(btc, aqt);

// For deserialization
const vw = new Vw();
const abwFromVw = new Abw();
abwFromVw.constructorFromVw(vw);

// For serialization
abwInstance.serializeToVw(vw);