Company Motto We Can Do Everything Related To Software Sector Without Any Excuses!
HRL International Private Limited

Autonomous control.
Supercharged by AI.

High-capacity hierarchical reinforcement learning, continuous spatial physics, and long-horizon autonomy foundations.

Founded by Pavan Kumar Sadashiv to engineer next-generation hierarchical neural policy architectures with FeUdal Networks (FuN), dual-timescale spatial abstractions, and parallel vectorized rollouts.

Start Live Rollout Industry Implementation Guide Listen to AI Briefing
1,160+
Rollout Throughput FPS
C = 8
Macro Step Dilation
100%
Zero-Shaped Intrinsic Motivation
4x
Parallel Vector Workers
Target Robotics & Autonomous Frameworks

Simulation Benchmarks & Target Platform Architectures

100% Open Source — Free for research and project use. The listed robotics, autonomy, and technology logos represent target simulation environments, hardware integration benchmarks, and research compatibility goals—not commercial partnerships or corporate endorsements.

Deloitte
Apple
NVIDIA
SYNERGIA '26
Blackmagic Design
ElevenLabs
Sahyadri
JPMorgan Chase
Google Cloud
Amazon Robotics
Boston Dynamics
Figure AI
Shield AI
Skydio
Ocado Group
Mobileye
Tesla
Deloitte
Apple
NVIDIA
SYNERGIA '26
Blackmagic Design
ElevenLabs
Sahyadri
JPMorgan Chase
Google Cloud
Amazon Robotics
Boston Dynamics
Figure AI
Shield AI
Skydio
Ocado Group
Mobileye
Tesla
Open Source Ecosystem Notice: All models, codebases, and templates are open source and free for developers to use in their projects. Listed brand logos represent target platform compatibility and target enterprise rollout roadmaps—not an official commercial collaboration.
Dual-Timescale Policy Theater

Spatial Autonomy in Action.

Real-time visualization of High-Level Manager sub-goal projections gt and Low-Level Worker force primitives at.

Amazon Robotics AMR
Warehouse Pod #842 Docked to Fulfillment Bay (+10.0)
Agent
Sub-Goal
Force Vector
Goal Target
Reachable Set
Gateway Node
Sub-Goal Horizon
0 / 8
Intrinsic Motivation
+0.000
Distance to Goal
0.00 m
Reachability Envelope
100% Feasible
Policy Executive Controls
Physics & Action Space
Industrial Domain Scenario
Reachability Analysis (GARA / STAR)
Symbolic abstraction & Rc(s) projection
Manager Dilation (C Steps) C = 8
Execution Speed 30 FPS
Online Gradient Updates
Continuous PyTorch policy learning
Architectural Excellence & Industrial Deployment

Built on FeUdal Foundations. Deployed in Frontier Systems.

How dual-timescale hierarchical reinforcement learning decouples long-horizon spatial strategy from millisecond physical motor control across enterprise robotics.

Macro Strategy · Amazon & Tesla

High-Level Manager

Operates across dilated temporal horizons (C = 8 steps), discovering bottleneck gateways and emitting continuous directional sub-goals gt without manual reward shaping.

Micro Execution · Boston Dynamics

Low-Level Worker

Executes high-frequency motor primitives at ∈ [-1.0, 1.0]d conditioned on (st, gt) via intrinsic cosine alignment ri at 100Hz+ rates.

Reachability Envelope · Shield AI

GARA & STAR Abstraction

Set-based forward reachability Rc(s) guarantees sub-goals remain dynamically feasible within environment barrier boundaries, enabling GPS-denied tactical ingress.

Enterprise Solutions & Integration Blueprint

How Industry Teams Deploy This in Production.

A complete guide explaining the exact industrial problems solved, MNC deployment case studies, step-by-step developer integration, and production distributed robotics architectures.

Core Challenges Resolved

Why Traditional Reinforcement Learning Fails in Industry

FeUdal Solution
1
Sparse Reward Barrier
Real-world tasks (e.g. 5,000 steps to dock a robot) only award success at the end. Flat RL explores randomly and fails 99.9% of the time. HRL Project Extreme uses intrinsic cosine alignment ri to give self-directed guidance at every micro-step without manual reward shaping.
2
Temporal Credit Assignment
When a failure occurs after 1,000 actions, backpropagation gradients dilute across time. Decoupling into a dilated Manager (C = 8) and high-frequency Worker guarantees sharp, non-vanishing gradient signals.
3
Physical Safety & Reachability
Standard RL hallucinates unachievable subgoals into solid walls or obstacles. Our Set-Based Reachability Analysis Rc(s) (GARA) forces sub-goals into dynamically achievable envelopes, preventing catastrophic physical collisions.
Industrial Blueprint

How Global MNCs Deploy This Technology

Amazon Robotics & Ocado
Application: Fleet-wide Autonomous Mobile Robot (AMR) pod navigation in 100,000 sq.ft fulfillment centers.

Engineering Setup: Cloud Manager handles high-level grid traffic routing, while onboard Worker runs at 100Hz for sub-millisecond obstacle avoidance and pod docking.
Tesla FSD & Waymo
Application: Full Self-Driving Highway gap negotiation and interchange merges.

Engineering Setup: Macro policy plans 5-second spatial gap transitions, while micro-policy outputs continuous steering torque and brake pressure at 100Hz.
Shield AI & Boston Dynamics
Application: GPS-denied tactical UAV indoor building ingress and humanoid balance stabilization.

Engineering Setup: STAR topological abstraction plans doorway transitions while low-level hydraulic motor workers maintain continuous dynamic equilibrium.
Quickstart & Python SDK

Integrate HRL Project Extreme into Your Codebase in 4 Steps

1
Install Core
pip install torch gymnasium or clone repo directly.
2
Wrap Env
Wrap custom continuous robotics environments into standard API.
3
Init FeUdal
Instantiate dual-timescale HierarchicalAgent with Reachability.
4
Train / Deploy
Execute vectorized 1,160+ FPS parallel rollout loops.
# 1. Import HRL Project Extreme Framework
from hrl_extreme.agent import HierarchicalAgent
from hrl_extreme.continuous_env import ContinuousGoalNavigationEnv
from hrl_extreme.reachability import ReachabilityProjector

# 2. Instantiate Environment and Hierarchical Agent
env = ContinuousGoalNavigationEnv(room_size=10.0, max_steps=200)
agent = HierarchicalAgent(
    obs_dim=6,          # [x, y, vx, vy, goal_x, goal_y]
    subgoal_dim=2,      # [g_x, g_y] continuous latent sub-goal
    action_dim=2,       # [a_x, a_y] continuous force in [-1.0, 1.0]
    continuous=True,
    c_step=8,           # Manager dilation horizon
    use_torch=True,
    use_reachability=True
)

# 3. Rollout & Autonomous Training Loop
obs = env.reset()
for episode in range(1000):
    done = False
    while not done:
        # Hierarchical Action Selection with GARA/STAR Reachability Guidance
        action, subgoal, log_prob, value = agent.select_action(obs, goal_pos=env.goal)
        next_obs, reward, done, info = env.step(action)
        
        # Intrinsic Cosine Alignment Motivation r_i
        r_i = agent.compute_intrinsic_reward(obs, next_obs, subgoal)
        
        # Store transition & optimize dual actor-critic networks
        agent.buffer.store_worker(obs, subgoal, action, r_i, next_obs, done, log_prob, value)
        obs = next_obs

    # Online batch policy gradient update
    losses = agent.train_batch(batch_size=32)
    print(f"Episode {episode} Complete | Worker Loss: {losses['worker_loss']:.4f} | Manager Loss: {losses['manager_loss']:.4f}")
Edge & Cloud Topology

Production ROS2 / C++ / TensorRT Distributed Stack

Cloud · GPU Server
High-Level Manager Microservice
• Hardware: Edge GPU (NVIDIA Jetson AGX Orin) or Cloud Cluster
• Runtime: PyTorch TensorRT / ONNX Runtime @ 10 Hz
• Input: Global Point Cloud / SLAM Map / Camera Embeddings
• Output: Continuous directional latent sub-goal gt transmitted over ROS2 / ZeroMQ DDS topics.
Edge · RTOS Microcontroller
Low-Level Worker Embedded Controller
• Hardware: Microcontroller (ARM Cortex-M7 / RTOS)
• Runtime: C++ / Eigen / FreeRTOS @ 100 Hz – 1 kHz
• Input: Local IMU, wheel odometry, motor encoders, and latest gt
• Output: Direct PWM motor voltage, joint torque, and CAN bus commands.
ElevenLabs Multimodal AI Voice Engine

Architectural Voice Briefing.

Listen to the AI-synthesized deep dive explaining why HRL Project Extreme was engineered, its mathematical motivation, and real-world industrial deployment.

Voice Model & Persona
Adam · HRL Project Extreme Strategic Architecture PAUSED
0:00 / 0:42
Adam · Executive Audio Briefing

Why HRL Project Extreme was engineered: Standard flat reinforcement learning algorithms suffer from catastrophic gradient dilution when decision horizons span thousands of continuous steps with sparse rewards. HRL Project Extreme solves this barrier by introducing dual-timescale FeUdal Policy Optimization: a High-Level Manager that discovers spatial topology and generates continuous directional sub-goals gt, and a Low-Level Worker that translates sub-goals into continuous motor force primitives at driven by an intrinsic cosine-alignment motivation engine.

Industrial Application: Deployed in autonomous driving for trajectory gap negotiation (Tesla, Waymo), warehouse logistics for multi-room fleet navigation (Amazon Robotics, Ocado), humanoid balance and joint torques (Boston Dynamics, Figure AI), and high-frequency trading for long-range regime hedging coupled with microsecond order execution.