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THE SPACE 3D MODEL LIBRARY

From a picture.
To a world of possibilities.

Seven interactive models, created with headless Mirror Direct. Rotate the hardware, explore its named components and compare the original views. Three twelve-step procedures accompany each model, ready to review for the next Genesis and EON Live exercises.

073D MODELS
631NAMED COMPONENTS

Space hardware, made explorable.
84 original reference views included.

S07 / Habitat and ISRU Operations

Lunar ISRU plant

MODEL V4
79 named components
Lunar ISRU plantINTERACTIVE 3D · V4
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Explore 79 named components +

These are the component identifiers in the exported model, ready to map to reviewed procedure steps.

  • skid
  • main_cabinet
  • foot_fl
  • foot_fr
  • foot_rl
  • foot_rr
  • access_door
  • vessel
  • feeder
  • feed_tube
  • hopper_stand_front
  • hopper_stand_rear
  • aux_cabinet
  • outlet_tube
  • radiator
  • gold_header
  • lid_to_header
  • collection_box
  • separator
  • rear_pipe
  • left_conduit
  • right_conduit
  • rear_service_cover
  • rear_branch_terminal
  • front_filter
  • lid
  • lid_seal
  • clamp_front
  • clamp_rear
  • clamp_fl
  • clamp_fr
  • hopper_front
  • hopper_rear
  • hopper_left
  • hopper_right
  • hopper_rim
  • feeder_drive
  • drive_flange
  • feed_flange_1
  • feed_flange_2
  • aux_vent
  • outlet_flange
  • radiator_core
  • rad_post_front
  • rad_post_rear
  • header_coupling
  • collection_lid
  • separator_flange
  • rear_pipe_flange
  • door_handle
  • clamp_rl
  • clamp_rr
  • collector_latch_left
  • collector_latch_right
  • hinge_upper
  • hinge_lower
  • auger_shaft
  • aux_rear_inlet
  • outlet_exchanger_flange
  • hopper_front_diagonal
  • hopper_rear_diagonal
  • feed_lower_connection
  • chamber_mount_bolts
  • filter_latch_left
  • filter_latch_right
  • rear_transverse_branch
  • rear_branch_junction
  • top_housing
  • inspection_port
  • center_port
  • short_top_housing
  • feeder_drive_end_cover
  • lid_front_port
  • lid_right_port
  • lid_small_port_left
  • lid_small_port_right
  • top_bolts
  • tall_housing_top_bolts
  • short_housing_base_bolts

THE OPERATION TO EXPLORE

Habitat and ISRU Operations

Explore future inspection, maintenance and resource operations with people and supervised robots.

Explore the use case

FROM THE MODEL TO THE WORK

Three operations to rehearse.

Explore a complete procedure for this model. Each connects named components to a sequence, a difficult decision, recovery and evidence of completion.

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ESV-S07-SOP-01 · MODEL V4 · SIMULATION PROCEDURE

Cold feeder obstruction recovery and reassembly

Rehearse recovering a simulated feeder obstruction with inert material while the plant is cold and unpowered. Isolate the affected path, expose the service area, correct the obstruction state and restore the assembly.

Before the exercise

Use the lunar-process-plant concept as a cold, unpressurised training rig. The obstruction and clearance states are exercise data, not generated regolith physics. Supply the access sequence, removable groups, parked poses and restart criteria. Do not connect the exercise to real equipment.

  1. 01

    Identify the affected process path

    Trace the feed route from feeder through tube to vessel and identify the fixed skid. Save the baseline configuration.

    Check The learner distinguishes the affected route from the outlet path.

    feederfeed_tubevesselskid
  2. 02

    Establish the cold work state

    Read the scenario record confirming cold, unpowered and unpressurised conditions. Place the feeder drive in its disabled training state.

    Check Physical appearance is not accepted as evidence of isolation.

    main_cabinetaux_cabinetfeeder_drive
  3. 03

    Confirm the obstruction finding

    Read the supplied obstruction indication and select the feed interfaces that bound the proposed service scope.

    Check The fault must be supported by the scenario indication and correct route.

    hopper_rimfeederfeed_lower_connection
  4. 04

    Resolve the wrong access instruction

    Present an instruction naming the collection lid rather than the feeder drive cover. Place a hold and correct the selected access location.

    Check Opening the unrelated collection area after the mismatch is a critical error.

    feeder_drive_end_covercollection_lidfeeder_drive
  5. 05

    Prepare the service access

    Preview the authored end-cover removal path, define its parked pose and preserve the adjacent cabinet configuration.

    Check Access is blocked until the disabled-drive state and correct cover are confirmed.

    feeder_drive_end_coverdrive_flangeaux_cabinet
  6. 06

    Remove the feeder cover

    Release the exercise cover retention and move the end cover to its parked pose without moving the drive or flange.

    Check The intended cover reaches its parked state and adjacent references remain fixed.

    feeder_drive_end_coverfeeder_drivedrive_flange
  7. 07

    Expose the auger service context

    Use the authored service view to identify the auger and tube interface. Confirm the support and withdrawal dependencies in the scenario.

    Check Hidden clearances and shaft-removal details must come from author settings.

    auger_shaftfeederfeed_tube
  8. 08

    Set the obstruction recovery state

    Move the permitted service group to its declared access pose and apply the reviewed inert-obstruction recovery action.

    Check The obstruction flag clears only after the correct access and recovery sequence.

    auger_shaftfeed_lower_connectionfeed_tube
  9. 09

    Restore the feed interface

    Return the service group and both feed-interface references to their baseline poses and authored retention states.

    Check Incorrect orientation or an incomplete interface state prevents closure.

    auger_shaftfeed_flange_1feed_flange_2
  10. 10

    Refit the drive cover

    Return the cover to its seated pose and restore its configured retention while leaving the drive disabled.

    Check The cover pose and retention state must agree before the next stage.

    feeder_drive_end_coverdrive_flangefeeder_drive
  11. 11

    Request the simulated restart check

    Request the exercise checkout result after confirming the route is restored. Keep actual energisation outside this procedure.

    Check Use the supplied result; geometry alone cannot establish feed flow or motor health.

    feeder_drivefeederfeed_tube
  12. 12

    Hand over the recovered feeder

    Submit the access correction, obstruction recovery, restored configuration and simulated checkout result for review.

    Check The end state is restored, with no unresolved hold or unsupported restart claim.

    feederauger_shaftfeeder_drive_end_coverskid

Assessment and completion

Score route identification 20, isolation and access order 25, discrepancy recovery 20, reassembly 20 and evidence 15. Unconfirmed cold state, accessing the wrong area or bypassing cover restoration is a critical stop.

Genesis authoring handoff

Keep obstruction, isolation and checkout results as explicit simulation states. Author cover and permitted service-group transforms; do not infer shaft extraction, material flow, motor torque or live restart behaviour from the mesh. Use external programme records for physical limits.

Use the exact exported model and verify its import and component bindings before generation. This specification has not yet been executed as a Genesis lesson.

For concept-model training and authoring. Real hardware work uses the programme owner’s approved procedures and engineering limits.

All seven models. All 21 procedures.
Word, HTML, TXT and JSON in one portable package.

Download the SOP library ↓

THE NEXT CHAPTER OF THE LOOP

Hardware you can explore.
Work you can rehearse.

The model library now includes 21 procedures: three per model, each with named components, decisions, recovery and assessment. The next step is a reviewed generation test with Genesis, EON Live and Field-IQ.

Bring one asset and one meaningful task ↗
  1. 01

    Images become explorable hardware

    Headless Mirror Direct turns the reference pack into a textured 3D asset with named components.

  2. 02

    Give the model a meaningful operation

    Connect several components to a reviewed procedure, decisions, a recovery path and clear evidence of completion.

  3. 03

    Rehearse, guide and keep the learning

    Develop Genesis exercises and appropriate EON Live behaviour. Carry accepted procedures into guided performance and reviewed mission memory.

About the model library

These are interactive 3D reconstructions of our Space hardware concepts, exported from Mirror Direct on 25 October 2026. Geometry and scale support demonstration and authoring; physical procedures and engineering values require programme review. The models are not flight-qualified equipment.

The reference tab contains AI-generated concept images. Its exterior orbit plays eight stills in sequence. The 3D tab loads the actual GLB and supports free rotation and zoom. New Genesis and EON Live examples will be linked as their working outputs are reviewed.