← Intent to Real World

Intent to Real World / Research

RealWorldAtlas

Mapping the problems intelligence must solve before it can operate in the physical world.

Research.Systems.Machines.People.Unsolved problems.

Atlas status // active

Last updated // 2026-08-19

Research origin // Milan, Italy

Enter the map ↓

We study where intelligence breaks when it meets reality.

AI has become extraordinarily good at understanding information. The physical world is different.

  • It moves.
  • It fails.
  • It changes.
  • It requires permission.
  • It involves humans.
  • It involves money.
  • It contains uncertainty.
  • Outcomes must happen.

Real World Atlas maps the research, systems, companies and unresolved problems defining this transition — from digital intelligence to physical agency.

Real World Atlas

Milan / Italy

Research status // active

// Field note 041
The physical worlddoes not returnclean API responses.

Milan · 45.4642° N, 9.1900° E

Atlas // problem map

The real world problem map.

Twelve stages sit between a human intent and a verified physical outcome. Around them, the research domains working on each stage. Filter by stage, category and research maturity — every view has its own shareable address.

Stage

Category

Maturity

View // unfiltered

https://intenttorealworld.com/atlas#map
ROBOT LEARNINGHUMANOIDSAUTONOMOUS MOBILITYROBOT MANIPULATIONDEXTERITYHOME ROBOTICSHOSPITALITY ROBOTICSDELIVERY ROBOTICSEMBODIED AIWORLD MODELSSIMULATIONVISION-LANGUAGE-ACTION MODELSHUMAN-ROBOT INTERACTIONHUMAN-IN-THE-LOOPAGENTIC COMMERCEREAL-WORLD SERVICESPHYSICAL AI INFRASTRUCTURESENSING & TELEMETRYPERCEPTIONHUMAN INTENTWORLD UNDERSTANDINGPLANNINGIDENTITYPERMISSIONSPAYMENTSORCHESTRATIONPHYSICAL EXECUTIONFAILURE RECOVERYVERIFICATIONLEARNING

Map // no filter applied

Select a stage on the spine — or a category and maturity level — to filter the domains, open problems and research attached to it.

Domains 18

Categories 12

Open problems 19

Dossiers 07

Published notes 00

Connected research domains

  • ROBOT LEARNING
  • HUMANOIDS
  • AUTONOMOUS MOBILITY
  • ROBOT MANIPULATION
  • DEXTERITY
  • HOME ROBOTICS
  • HOSPITALITY ROBOTICS
  • DELIVERY ROBOTICS
  • EMBODIED AI
  • WORLD MODELS
  • SIMULATION
  • VISION-LANGUAGE-ACTION MODELS
  • HUMAN-ROBOT INTERACTION
  • HUMAN-IN-THE-LOOP
  • AGENTIC COMMERCE
  • REAL-WORLD SERVICES
  • PHYSICAL AI INFRASTRUCTURE
  • SENSING & TELEMETRY

Atlas categories

  • 01 / HUMAN INTENT
  • 02 / EMBODIED INTELLIGENCE
  • 03 / MANIPULATION & DEXTERITY
  • 04 / WORLD MODELS
  • 05 / LONG-HORIZON EXECUTION
  • 06 / AUTONOMOUS MOBILITY
  • 07 / HUMAN ↔ MACHINE
  • 08 / REAL-WORLD ORCHESTRATION
  • 09 / FAILURE & RECOVERY
  • 10 / VERIFICATION
  • 11 / ROBOTICS ECONOMICS
  • 12 / PHYSICAL AI INFRASTRUCTURE

Open problems

  • How does a machine know what a human really means?
  • How much of a scene must be understood before acting is safe?
  • How does a plan stay valid in an environment that keeps moving?
  • Why is contact-rich manipulation still harder than language?
  • How do autonomous systems handle the long tail of physical space?
  • Who is an agent, legally and technically, when it acts for someone?
  • Who gives an autonomous agent permission to spend money?
  • How does a machine purchase a real-world service end to end?
  • What are the limits of delegated authority for a physical action?
  • When should execution move from machine to human?
  • How do machines coordinate with humans who do not behave deterministically?
  • How should robots interact with businesses that have no machine-readable interface?
  • How does an autonomous system operate where APIs do not exist?
  • How does physical AI recover when reality diverges from the plan?
  • What does a retry mean when the first attempt changed the world?
  • How does a system verify that a physical outcome occurred?
  • Which cost curve makes physical execution economically inevitable?
  • How do physical agents establish trust with people and businesses?
  • How does an agent choose between human and machine execution?

Published research notes

STATUS // AWAITING VERIFIED SOURCES

Open in knowledge graph →

Execution spine

  • PERCEPTION

    Reading a physical scene accurately enough to act inside it.

  • HUMAN INTENT

    Recovering what a person actually wants from ambiguous, underspecified natural language.

  • WORLD UNDERSTANDING

    Holding a representation of an environment that keeps changing.

  • PLANNING

    Turning a goal into an ordered sequence of physically possible steps.

  • IDENTITY

    Who an agent is when it acts on someone else's behalf in the world.

  • PERMISSIONS

    What an autonomous system is allowed to do, and who authorised it.

  • PAYMENTS

    How a machine pays for a real-world service under a mandate and a limit.

  • ORCHESTRATION

    Coordinating humans, providers, APIs and machines toward one outcome.

  • PHYSICAL EXECUTION

    The moment intelligence touches matter: motion, contact, transport.

  • FAILURE RECOVERY

    What happens when reality diverges from the plan mid-execution.

  • VERIFICATION

    Proving the intended physical outcome actually occurred.

  • LEARNING

    Feeding real-world outcomes back into the system that caused them.

Connected research domains

  • ROBOT LEARNING

    Policies learned from data, demonstration and interaction.

  • HUMANOIDS

    General-purpose embodiment in human environments.

  • AUTONOMOUS MOBILITY

    Moving people, objects and machines through physical space.

  • ROBOT MANIPULATION

    Grasping, placing and acting on objects.

  • DEXTERITY

    Fine contact-rich control; hands as the hardest interface.

  • HOME ROBOTICS

    Unstructured private environments with no schema.

  • HOSPITALITY ROBOTICS

    Service execution where guests, staff and machines share a floor.

  • DELIVERY ROBOTICS

    Last-metre handover between machines and people.

  • EMBODIED AI

    Intelligence that reasons from inside a body in an environment.

  • WORLD MODELS

    Learned predictive representations of physical dynamics.

  • SIMULATION

    Synthetic environments, and the gap back to reality.

  • VISION-LANGUAGE-ACTION MODELS

    Language and vision mapped directly onto action.

  • HUMAN-ROBOT INTERACTION

    Legibility, trust and handover between people and machines.

  • HUMAN-IN-THE-LOOP

    When execution should escalate from machine to person.

  • AGENTIC COMMERCE

    Identity, mandate and payment for autonomous buyers.

  • REAL-WORLD SERVICES

    Providers, availability and businesses without machine interfaces.

  • PHYSICAL AI INFRASTRUCTURE

    The layer underneath intelligence that operates in the world.

  • SENSING & TELEMETRY

    The instruments that report physical state back.

Industrial robotic arm in a dark laboratory, chrome and steel under directional light

Motion is not the hard part.

Knowing it happened is.

Physical execution plate

Robotic manipulation · illustrative reference, third-party hardware

Atlas // taxonomy

Twelve domains under observation.

Atlas // research dossiers

The first seven frontiers.

Seven questions, opened in order. Each dossier holds its research areas, its Atlas nodes, its open problems and our thesis — and stays empty of findings until a primary source has been read and attributed.

Atlas // research chain

  1. VERIFICATION

The dossiers are not isolated articles. Each one inherits the failure of the stage before it.

// System observation 052
Reality isthe hardest API.

Atlas // latest signals

Latest signals.

Atom feed →

Signal queue // status: reading

No research note is published until its primary sources have been read and attributed. The Atlas structure, taxonomy, map and open-problem layer are live; notes enter the index one verified source at a time.

Source first. Claim second. Interpretation third.

Source hierarchy

  • LEVEL 01 Peer-reviewed research, arXiv from credible groups, university labs, conference proceedings
  • LEVEL 02 Official technical research from serious robotics / AI organisations
  • LEVEL 03 Technical interviews with researchers, engineers and founders
  • LEVEL 04 High-quality analysis from respected research institutions or investors

Institutions appear as research sources only. Never as partners.

Research maturity system

  • 01 / THEORY
  • 02 / SIMULATION
  • 03 / LAB
  • 04 / CONTROLLED REAL WORLD
  • 05 / FIELD DEPLOYMENT
  • 06 / COMMERCIAL
  • 07 / SCALE

Insufficient evidence // status: unverified

Atlas // unsolved

What still doesn't work.

Most technology pages celebrate progress. The Atlas maps failure. Each item below is an open problem, not a product claim, and none of them are presented as solved.

Open problems in physical AI →
// Open problem 071
Who gives a machinepermission to act?

Research note // 001

Who gives AI permission to act in the real world?

Identity, delegated authority, agent payments, permissions and verified real-world execution.

Read the research note →

Research note // 002

If atoms become bits, what becomes the operating system?

Physical compute, real-world scheduling and the missing layer between human intent and the physical world.

Read the research note →

Research note // 003

Reality doesn't throw exceptions.

Failure recovery, replanning, closed-loop execution, executor substitution and verified outcomes in Physical AI.

Read the research note →

Atlas // thesis

Intelligence is accelerating.Reality is not.

Model capability↑↑↑
Real-world execution

The execution gap

  • Identity
  • Payments
  • Permissions
  • Providers
  • Physical access
  • Human coordination
  • Failure recovery
  • Verification

We do not claim these layers are solved. We are mapping them, and building inside them.

This is where we are looking.

Autonomous vehicle sensor array at night, monochrome documentary framing

Autonomy moves matter.

Infrastructure decides whether it counts.

Autonomous mobility plate

Autonomous mobility · illustrative reference, third-party hardware

// Reality 084
A robot can failwithout throwingan exception.

We don't study robotics to predict robots. We study it to understand what the world will require.

Every breakthrough changes what machines can do.

Every new capability creates new infrastructure requirements.

  • Perception created data infrastructure.
  • Reasoning created agent infrastructure.
  • Physical action will create real-world execution infrastructure.

We are mapping that transition.

// Thesis 091
The last mileof intelligenceis reality.

Atlas // origin

Why we built this.

We operate in the real world.

That means we care less about what AI can demonstrate and more about what intelligence can reliably cause to happen.

Real World Atlas is our attempt to understand the systems, breakthroughs and unsolved problems shaping the transition from digital intelligence to physical agency.

We study the frontier because we are building toward it.

Built quietly in Milan

Intent to Real World

/ Research

Building something that touches the real world?

We should probably talk.

Continue // technical record

// Milan, Italy

// Real World Atlas

// Observation continues