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ANT worker drone holding station beside a metallic near-Earth asteroid

Layton, Utah · Founded 2026

Work with space.
Don’t fight it.

Dellingr Dynamics builds a modular small-spacecraft bus for work that cannot land: standoff extraction, on-orbit servicing, and cislunar logistics.

01

Never anchor

Small bodies have negligible gravity and, as Bennu showed, a near-zero-cohesion subsurface. A machine that pushes against that surface will not get purchase. Every Hive subsystem is built around standoff.

02

One coupling, many vehicles

The ANT is not a single spacecraft. It is a bus: identical mechanical, power, data, and propellant faces so a miner, a servicer, and a tanker are section swaps — not three programs.

03

Assay before committing

Median PGM grade in iron meteorites is 40.8 ppm, not the 300–700 ppm of popular lore. The first product is verified composition. Extraction follows only for enriched, confirmed targets.

The platform

A parts inventory, not a list of bespoke vehicles.

Most asteroid-mining concepts fail the same way: they treat a rubble pile as a terrestrial worksite. Project Hive inverts that. Worker drones hold geometry, apply energy from a distance, and capture ejecta. A Queen hub docks, inspects, recharges, and reissues them. A hauler is the same bus with a different nose and tail.

That coupling standard is the load-bearing idea. Front, power core, propulsion ring, and aft section terminate on one face — latch, power, data, propellant — whether the section is a sensor pod or a tanker. Mining is the hardest application of that platform. It is not the whole of it.

Micro
Colony

Coverage by numbers

ANT-scale
Bus

The coupling standard

Queen
Hub

Service and command

Architecture

Three classes. One geometry.

ANT worker drone with stacked spheres and hollow toroidal thruster ring

Worker

ANT

300–500 kg class free-flyer. Top optical sphere, protected mid-body power core, hollow toroidal thruster ring for omnidirectional authority. Burst-mode laser on the Miner configuration; other noses take tools, grapples, tanks, or sensors.

Queen command ship with docking bays and deployable solar arrays

Service hub

Queen

Command, recharge, optics cleaning, spare sections, and swarm scheduling. Five ANT docking bays and a central repair arm. Individual failure is a maintenance event, not a mission event.

Hauler configuration towing a sealed capture bag of extracted material

Tow configuration

Hauler

The same ANT bus with the laser traded for tow structure, tension sensing, and payload damping. A damaged Miner becomes a Hauler by swapping two sections at the Queen.

Project Hive schematic: ANT worker cutaway, Queen command ship, hauler variant, and five-step mission architecture
Schematic preview — ANT worker, Queen hub, hauler configuration, and the five-phase sequence: survey, standoff extraction, bag capture, hauler transfer, cislunar staging.

Project Hive

Mining is the proving ground. Servicing is the near-term wedge.

NASA and NSF can be pitched the ISRU problem directly. Dual-use customers — SpaceWERX, contested logistics, on-orbit servicing — get the same bus without the mining headline. ANT-S is the configuration that can be funded first: stationary tool work on a dual-ring, ESPA-class airframe.

Burst laser work is specified at about 5 kW optical from ~14 kW electrical, ~11.5% duty cycle, phase-change heat storage. A 2 kW solar bus cannot run that load continuously. The swarm schedule is the thermal solution.

  • MinerStandoff laser extraction — the fully sized baseline
  • ANT-SDual-ring servicer: weld, clean, tool-change in place
  • HaulerTow configuration on the same coupling faces
  • ANT-GDebris tug — net and grapple, not magnets
  • ANT-C / JFluid tanker and dry cargo, reordered layout
  • ANT-RAssay scout: radar, VNIR/SWIR, thermal-IR, LIBS

Claim boundaries

The concept lives or dies on three tests.

Hive is a conceptual engineering architecture and a research roadmap. It is not a flight design and it is not a near-term PGM prospectus. A negative result on any test below changes the baseline. That is the point.

01

Fe-Ni extraction

Published laser-spallation data is on silicates. Metallic iron-nickel is expected to melt and splash, not spall. Vacuum analog tests are the first gate. Until they close, production rates are not claimed.

02

Capture envelope

Removing material is not the mission. Keeping it — hot fragments, velocity spread, electrostatic dust — is. Capture geometry is designed only after the ejecta field is measured.

03

Thermal closure

Continuous rejection of ~10 kW waste heat will not fit a sub-500 kg craft. Burst storage plus staggered firing has to close inside the mass envelope, with margin, or the worker class changes.

The company

A Utah LLC built for non-dilutive deep-tech work.

Dellingr Dynamics LLC was organized on 22 July 2026 as a domestic limited liability company in the State of Utah. The purpose is lawful technical work: research, design, prototyping, software, autonomy, robotics, aerospace, and defense systems.

Funding path is SBIR/STTR first — NSF, NASA, and Department of War / SpaceWERX — run in parallel with STTR faculty collaboration. We are looking for research partners in extreme-environment materials, radiation-tolerant electronics, and multi-agent autonomy.

Entity
Dellingr Dynamics LLC
Status
Active, Utah
Office
Layton, Utah
Domain
dellingrdynamics.com

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