Vader

Loading...

Litepaper

Vader

Physical AI Infrastructure

Overview

Abstract

Physical AI, machines that perceive, reason, and act within the real world, represents the most consequential shift in artificial intelligence since the emergence of large language models. Yet the infrastructure required to develop physical AI systems remains inaccessible: data collection is expensive and fragmented, model training demands institutional-scale resources, and hardware access for validation is nearly impossible outside of well-funded research labs.

Vader is a distributed physical AI infrastructure protocol that coordinates all three layers through a unified token economy. Data contributors earn $VADER by producing high-quality physical AI training data. Partners stake $VADER to access that data and train models on best-in-class architectures. As the protocol matures, $VADER is used to access lab-deployed robots for real-world model validation.

The result is a self-sustaining flywheel: better data attracts more partners, more partners fund more contributors, more contributors produce better data.


Context

The Problem

Building capable physical AI systems requires three distinct resources, and access to all three is structurally broken.

01
Real-world training data is scarce and siloed

Physical AI models require grounded, embodied data: egocentric video, teleoperation recordings, and simulation data. This data is extraordinarily expensive to collect and almost entirely locked within closed research institutions. Independent developers and startups have no credible path to accessing it.

02
Model training infrastructure is out of reach

Training World Action Models, Vision Language Action Models, and task-specific policy networks requires large-scale multimodal physical AI data, robotics-specific training pipelines, and evaluation environments. Raw data alone is not enough; teams still need the tooling to turn demonstrations into reliable physical AI models.

03
Hardware access for validation doesn't exist

A model that cannot be tested on physical hardware has no real-world value. Access to controlled robot environments is not available to most developers in the market today. Developers either own hardware or they cannot validate their work.

These three gaps reinforce each other. Without data, training is impossible. Without training infrastructure, data has no output. Without hardware, models cannot be validated. Vader addresses all three.


Design

Protocol Architecture

Vader operates across three vertically integrated layers. Each layer is economically connected to the others through $VADER.

Data Layer
EgoPlay
SimPlay
Remote Teleops
$VADER
Model Infra Layer
WAM Training
VLA Training
Task-Specific Policy
$VADER
Deployment Layer
Unitree G1 · Lab Robots

Layer 01

Data Layer

The data layer is the foundation of the protocol. It consists of three collection surfaces, each targeting a distinct modality of physical AI training data.

EgoPlay

A task-based platform for egocentric video data collection. Contributors complete structured daily physical tasks on camera from a first-person perspective. Each submission is evaluated automatically. Submissions that meet processability thresholds may be eligible for $VADER rewards under applicable protocol rules. Egocentric video captures the exact perspective from which robotic systems must eventually operate, making it directly applicable to training embodied models.

SimPlay

A simulation environment for generating synthetic physical AI training data. Contributors operate agents within physics-based environments, producing structured motion and interaction datasets and earning $VADER per validated submission. Simulation data enables controlled, repeatable data generation at scale, including edge cases that are impractical or dangerous to capture in the real world.

Remote Teleops

A teleoperation interface enabling contributors to control robotic arms remotely and record high-fidelity physical manipulation data, earning $VADER per validated submission. Direct human-in-the-loop control produces some of the richest training signal available for dexterous manipulation tasks.


Layer 02

Model Infrastructure Layer

The model infrastructure layer allows partners to train physical AI models using data sourced through the protocol: their own contributed data, data accessed through staking, or a combination of both.

Vader's model infrastructure is designed to support training workflows for World Action Models, Vision Language Action Models, and task-specific policy networks. The layer connects protocol-sourced physical AI data with the tooling required to train and evaluate models for embodied tasks.

As the infrastructure matures, the scope of supported training workflows, evaluation tooling, and model development pipelines may expand.

WAM
World Action Model

World Action Models learn general-purpose representations of physical action in the real world. Trained on large, diverse datasets of human and robot behavior, WAMs develop a broad understanding of how actions unfold in physical environments, making them the foundation for generalist robotic systems. Partners training on Vader's data layer gain access to one of the most diverse multimodal physical datasets available outside closed institutional environments.

VLA
Vision Language Action Model

Vision Language Action Models bridge visual perception and natural language understanding to produce action-conditioned outputs. VLAs allow robotic systems to interpret scene context, respond to language instructions, and execute physically grounded behaviors. Training a competitive VLA requires both high-quality visual data and precise action labels, both of which are available through the Vader data layer.

TSP
Task-Specific Policy Models

Narrow, high-performance models trained for defined manipulation or locomotion tasks. Unlike generalist architectures, policy models are optimized for precision in constrained domains, making them the preferred approach for production deployment in industrial, research, and commercial robotics contexts. Partners can select specific data subsets from the protocol to train task-specific policies with the highest possible data relevance.


Layer 03

Deployment Layer

The deployment layer provides access to robots deployed in controlled lab environments for real-world model validation. Partners can validate trained models on physical humanoid hardware without owning, operating, or maintaining the hardware.

This closes a critical gap in the physical AI development pipeline: the ability to validate a trained model on real hardware without owning that hardware. Vader coordinates access to lab validation environments, not hardware ownership.

End-to-end physical AI development, from raw data to trained model to hardware validation, becomes available through a single protocol stack.


Economics

The $VADER Flywheel

The protocol's economic design creates a self-reinforcing loop between two distinct participant groups.

Supply Side
Users — Data Contributors

Individuals who contribute physical AI training data through EgoPlay, SimPlay, or Remote Teleops. Contributors can participate directly. $VADER rewards are evaluated and allocated per validated submission through the protocol's evaluation system, subject to applicable service rules.

Demand Side
Partners — Data & Model Consumers

Developers, research teams, and organizations accessing the protocol's data and model training infrastructure. Access is gated by staking: partners stake $VADER to unlock the data and model infra layers.

Users contribute data
Partners stake for access
Partners stake $VADER
Protocol rewards users
Users earn $VADER
More users contribute
More data produced
Partners gain more value

As the deployment layer matures, it extends the protocol from data contribution and model training into real-world validation, creating a direct path from collected datasets to physical testing.


Token

$VADER

$VADER is the native token of the Vader protocol. Its utility is direct and functional: earned through productive contribution and consumed through access.

Contract address: 0x731814e491571A2e9eE3c5b1F7f3b962eE8f4870
Network: Base Network
Function
Mechanism
Data contribution rewards
Distributed per validated submission
Data layer access
Staked by partners
Model infrastructure access
Staked by partners

The token design prioritizes clarity. There are no complex derivative mechanisms, governance layers, or staking reward structures to navigate.


Physical AI development today is gated by access to data, training infrastructure, and hardware. Vader removes those gates.

Through a token-coordinated protocol spanning data collection, model training, and robot deployment, Vader creates the conditions for a broader, more competitive physical AI ecosystem. Contributors are rewarded for producing the data that matters. Partners gain access to the data and infrastructure they need. The protocol grows as participation grows.

$VADER · vaderai.ai

Important Notices

Informational purposes only. This document is provided for informational purposes only. It does not constitute a prospectus, an offer to sell, a solicitation of an offer to buy, or a recommendation to purchase any security, investment, financial instrument, or asset of any kind in any jurisdiction. Nothing in this document should be relied upon as the basis for any investment or financial decision.

Not a securities offering. $VADER is a functional utility token designed for use within the Vader protocol. It is intended solely to provide access to protocol services and to reward productive contributions to the protocol. $VADER is not offered or intended to function as a security, equity interest, debt instrument, investment contract, profit-sharing arrangement, or store of value. Vader makes no representation that $VADER will increase in value, retain value, or generate any return. Purchasers and holders of $VADER should not expect profits derived from the efforts of Vader or any third party.

Not financial or investment advice. Nothing in this document constitutes financial, investment, tax, legal, regulatory, or other professional advice. You should consult your own advisors before making any decision relating to $VADER or the Vader protocol.

Forward-looking statements. This document contains forward-looking statements, including statements about the protocol's design, intended functionality, economic model, roadmap, and expected outcomes. These statements reflect current expectations and assumptions and are subject to significant risks, uncertainties, and changes. Actual results, features, and timelines may differ materially from those described. Vader undertakes no obligation to update any forward-looking statement.

Risk disclosures. Participating in the Vader protocol, holding $VADER, or contributing data involves significant risks, including but not limited to:

  • Token value risk. $VADER may have no market value, highly volatile value, or may become illiquid or worthless. Past performance of any token is not indicative of future results.
  • Reward risk. Rewards are not guaranteed. Eligibility, amounts, timing, and availability of $VADER rewards are subject to protocol rules, which may change at any time. Vader reserves the right to withhold, modify, or discontinue rewards.
  • Regulatory risk. The legal and regulatory status of blockchain tokens, digital assets, and decentralized protocols is uncertain and evolving across jurisdictions. Changes in law or regulation could adversely affect the protocol, the utility of $VADER, or your ability to participate.
  • Protocol risk. The Vader protocol is in active development. Smart contracts, infrastructure, and service features may contain errors, be subject to exploits, or change significantly. Vader does not guarantee uninterrupted availability, functionality, or performance.
  • Data and model risk. Contribution Data submitted through the protocol may not be accepted, rewarded, or used. Datasets and model outputs may not meet your expectations or be suitable for your intended purpose.
  • Third-party risk. The protocol relies on third-party infrastructure, blockchain networks, and service providers outside Vader's control. Failures by third parties may affect the protocol.

Jurisdiction. This document is not directed at persons in jurisdictions where participation in token protocols, digital asset transactions, or related activities is prohibited or restricted. It is your responsibility to ensure that your participation in the Vader protocol complies with the laws of your jurisdiction.

No guarantee. Nothing in this document creates any obligation, guarantee, warranty, or commitment on the part of Vader Fun Corporation, its affiliates, directors, employees, or contractors.