Complete
Complete robots delivering a battery cabinet and commissioning an open module beside modern battery storage blocks

The complete approach to infrastructure

Infrastructure.From theground up.

From the first site survey to everyday operations, we bring land, power, and project delivery together. Our approach combines AI and robotics with experienced engineers and operators to make the work more efficient and reliable.

See our process
See what we build

Modular energy storage.
Autonomous infrastructure concept

Explore what we buildOne connected approach.

Every part of the project.
One continuous process.

Connect the whole project. Land, power, capital, permits, and delivery all shape what can be built. Complete brings these responsibilities together, from the first site decision to everyday operations.

Plan for autonomy from the outset. We’re developing modular infrastructure designed for robotic installation and maintenance. Engineers and operators decide where automation helps and where their judgment is needed.

Project development, construction, and operations.

Built for what
comes next.

Starting with data centers. Extending the approach to energy generation, battery storage, and automated laboratories.

Vera Rubin–style AI racks with exposed modular trays, liquid-cooling infrastructure, and two Complete robots in a modern data-center hall
Vera Rubin–style modular AI data-center concept
Our starting point

Capacity that can grow.

Modular data centers designed around dense AI workloads. Plan liquid cooling, power, and connectivity together, then add compute capacity in phases as demand grows.

  • FocusStarting with 0.5–10 MW projects
  • DeliverySite and power through commissioning
  • OperationsDCIM, inspection, and maintenance
Discuss your capacity
Energy generation

Solar and wind.
Part of the project.

Plan generation around the site, grid connection, and demand it serves. We’re developing robotic installation workflows for solar and wind projects, from placing photovoltaic modules to fastening turbine components.

Explore an energy project
A tracked robot positions a solar panel on mounting rails beside a carrier with secured photovoltaic modules
Solar installationModule transport and placement on mounting rails · Concept
A connection robot fastens a wind-turbine base flange, with a tooling carrier and completed turbines in the background
Wind installationComponent handling and turbine-base fastening · Concept

Generation, storage, and grid access are planned together. Engineers define the installation sequence and verify the work.

Original Complete modular battery cabinets with level roofs, a matching cabinet on a transporter, and a robot working inside an open service bay
Complete modular BESS concept · Technology reference (June 2026)
Battery energy storage

Power is part of the plan.

Modular battery energy storage systems (BESS), integrated with grid access and generation around the facility they serve. Size storage in stages, with battery modules, conversion, and controls designed to work together.

  • SystemsBattery modules, conversion, and distribution
  • IntegrationGrid connection and facility demand
  • RoboticsModule handling, connection, and testing
Bring a power opportunity
An automated pipetting station, a compact robot loading a microplate into a reader, vertical plate storage, and a scientist reviewing results in a modern wetlab
Modern automated wetlab concept
Part of the longer-term vision

More room for discovery.

Modular wetlabs built around automated liquid handling, incubation, and measurement. Software connects instruments, sample records, and results; AI supports experiment planning and analysis. Scientists validate methods, review outcomes, and manage exceptions.

  • InstrumentsLiquid handlers, incubators, and plate readers
  • WorkflowsRobotic plate transfer and sample tracking
  • People & AIAssisted planning and scientific review
Explore the laboratory vision

From open ground.
To operating capacity.

Follow a data-center project through the complete lifecycle. Commercial, technical, and physical work, connected at every stage.

Find the right ground.

A good project starts where land, power, access, and demand meet. Site screening and feasibility connect the commercial opportunity to the conditions on the ground.

Project work
Site selection · Power availability · Access and connectivity · Geotechnical conditions
The robotic role
Mapping drones and survey rovers provide measurements of terrain, boundaries, and ground conditions for surveyors to review.
Open ground beside an access road and electrical substation, before site work begins
Land, access, and grid context · Concept

Give the project a sound footing.

Create and manage the special purpose vehicle (SPV) that holds the project. Bring site rights, capital, contracts, budgets, and reporting into one accountable structure.

Project work
SPV management · Site control · Capital planning · Contracts and reporting
The robotic role
Survey and geotechnical fleets provide physical evidence for feasibility and diligence. People retain project and capital approvals.
Survey rovers and a geotechnical rig gathering site evidence on the same undeveloped parcel
Survey evidence for project diligence · Concept

Resolve the details before delivery.

Coordinate modular facility design, utility requirements, permits, and procurement around a buildable plan. Resolve module interfaces and service access before construction starts.

Project work
Design coordination · Permits · Utility interfaces · Procurement and sequencing
The robotic role
Layout rovers and site scans tie the digital plan to real ground, giving subsequent machines a shared reference.
Proposed building footprint, access routes, and utility zones drawn over the same unbuilt site
Proposed layout, before construction · Concept

Turn a plan into a place.

Coordinate civil works, foundations, structural assembly, and the building envelope. Connect suppliers and material flows to the sequence of work on site.

Project work
Earthworks · Foundations · Structure · Envelope · Supplier coordination
The robotic role
Excavators, concrete systems, cranes, and connection robots each need a defined task, supported loads, and clear working space. AI helps coordinate their sequence of work.
Cranes and positioning robots assembling a steel frame on the surveyed site, with the same road and substation
Foundations and structural assembly · Concept

Bring the whole power system together.

Integrate grid supply, storage, distribution, and cooling. Coordinate utility interfaces and testing so the facility is ready for commissioning.

Project work
Grid connection · BESS · Switchgear and transformers · Mechanical systems
The robotic role
Module transporters, cable-installation robots, and inspection rovers support placement, connection, and verification.
The enclosed facility with modular battery blocks, transformers and cooling connected beside the same grid infrastructure
Power, storage, and cooling integrated · Concept

Make readiness measurable.

Receive and install equipment, verify module interfaces, and test the facility as a system. Keep commissioning evidence and handover records with the project.

Project work
Equipment installation · Acceptance testing · Systems verification · Handover
The robotic role
Dedicated transport, connection, and test robots support repeatable installation and checks. Engineers review the results before handover.
Equipment arriving at the completed facility while a rover checks the installed energy systems
Equipment receiving and system checks · Concept

Keep the facility ready for tomorrow.

Connect data center infrastructure management (DCIM) with asset records, power and cooling visibility, maintenance planning, and incident response.

Project work
DCIM · Asset and capacity management · Maintenance · Performance and expansion
The robotic role
Service robots carry out routine inspections and maintenance. AI helps teams spot changes in operating data, while operators investigate problems and decide what work is needed.
The same completed facility at dusk, with clear service roads, installed battery systems and an inspection rover
The completed facility in operation · Concept

Robots with
real work to do.

We’re developing physical AI for jobs such as surveying sites, moving materials, connecting equipment, and inspecting installations. Engineers and operators help define the tasks, the equipment needed, and the conditions in which a robot can work reliably.

Four dedicated indoor machines: a server transporter, supported insertion lift, rack cabling robot, and inspection and service robot
Transport → Install → Connect → MaintainComplete indoor fleet concept

Designed around the job.

Each machine needs the right tools, enough space to work, and a clearly defined task. We design around those practical requirements.

Part of the whole project.

Survey results should inform the design, and installation records should be useful to the team running the facility. AI helps keep that information connected as the project develops.

People remain responsible.

Engineers and operators set standards, review results, and decide how to handle problems. Their experience also helps us improve the automation.

Concept imagery illustrates our autonomous infrastructure vision. Our current work focuses on data-center development and operations automation.

In development

Teleoperation for
HVAC systems.

A technician uses a joystick and live camera views to guide a compact inspection robot beside an air-handling unit at a separate site
A remote technician guiding HVAC inspection · Concept

We’re developing teleoperation for heating, ventilation, and air conditioning (HVAC). Experienced technicians guide the work remotely, using live video and equipment readings.

Inspect the equipment.
Position cameras and probes around air handlers, ductwork, valves, and cooling equipment for a closer view of conditions on site.
Support commissioning.
Guide functional checks, compare readings with the expected response, and keep observations with the commissioning record.
Guide routine service.
Assess filters, dampers, and valves, then direct supported tasks. The technician chooses the tools, guides movement, and verifies the result.

Remote guidance. On-site support. The operator guides the task; the site team prepares the equipment and handles work that needs a person on location.

Discuss an HVAC workflow

Ambitious about the future.
Grounded in the work.

Complete develops infrastructure, starting with data centers and operations automation. We’re working on how AI and robotics can help experienced teams deliver projects and keep facilities running. Over time, we plan to apply the same approach to solar and wind generation, battery storage, and laboratories.

Complete Robot Inc. · San Francisco
Starting scale
0.5–10 MW data-center projectsInitial projects with site and power origination, modular delivery, and operations planned together.
Building from
HF0 · Summer 2026Part of the Summer 2026 batch, working on infrastructure deployment and operations-automation workflows.
The direction
Integrated AI factoriesCompute, power, operations, and physical automation, developed as one connected system.

Something worth
building together.

Looking for compute capacity, bringing a site or power opportunity, or interested in the work?
Choose a starting point below and tell us what you have in mind.

Compute customers

Bring your capacity, location, power density, and timing requirements.

Discuss capacity

Infrastructure investors

Explore a project’s structure, delivery plan, risks, and economics.

Talk infrastructure

Site & energy partners

Have land, grid access, generation, or storage? Let’s connect the pieces.

Bring an opportunity

Builders & operators

We’re looking for people with experience in engineering, construction, AI, robotics, and operations.

Build with us

Tell us what
you have in mind.

Share a little about yourself and what you’re working on. We’ll take it from there.

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