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Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Artist’s render courtesy of TU Dortmund
PhD Committee
TESSERAE:
Tessellated
Electromagnetic
Space Structures for the
Exploration of
Reconfigurable
Adaptive
Environments
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
I M A G E C R E D I T : E S A
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
KILOBOTS
R U B E N S T E I N , M I C H A E L , A L E J A N D R O
C O R N E J O , A N D R A D H I K A N A G P A L .
" P R O G R A M M A B L E S E L F - A S S E M B L Y I N A
T H O U S A N D - R O B O T S W A R M . " S C I E N C E 3 4 5 ,
N O . 6 1 9 8 ( 2 0 1 4 ) : 7 9 5 - 7 9 9 .
PEBBLES
G I L P I N , K Y L E , A R A K N A I A N , A N D
D A N I E L A R U S . " R O B O T P E B B L E S :
O N E C E N T I M E T E R M O D U L E S F O R
P R O G R A M M A B L E M A T T E R
T H R O U G H S E L F - D I S A S S E M B L Y . " I N
R O B O T I C S A N D A U T O M A T I O N
( I C R A ) , 2 0 1 0 I E E E I N T E R N A T I O N A L
C O N F E R E N C E O N , P P . 2 4 8 5 - 2 4 9 2 .
I E E E , 2 0 1 0 .
LILY ROBOT
H A G H I G H A T , B A H A R , E T A L . " L I L Y : A
M I N I A T U R E F L O A T I N G R O B O T I C P L A T F O R M
F O R P R O G R A M M A B L E S T O C H A S T I C S E L F -
A S S E M B L Y . " I N R O B O T I C S A N D
A U T O M A T I O N ( I C R A ) , 2 0 1 5 I E E E
I N T E R N A T I O N A L C O N F E R E N C E O N , P P .
1 9 4 1 - 1 9 4 8 . I E E E , 2 0 1 5 .
Aerospace Docking +
Reconfigurability
Saenz-Otero, Alvar, and David W. Miller. "SPHERES: a platform for formation-flight research." In UV/Optical/IR Space Telescopes: Innovative
Technologies and Concepts II, vol. 5899, p. 58990O. International Society for Optics and Photonics, 2005.
Howard, N. and Nguyen, H.D., National Aeronautics and Space Administration (NASA), 2010. Magnetic capture docking mechanism. U.S. Patent
7,815,149.
Nisser, Martin, Dario Izzo, and Andreas Borggraefe. "An electromagnetically actuated, self-reconfigurable space structure." Transactions of the
Japan Society for aeronautical and space sciences 14 (2017): 1-9.
Underwood, Craig, Sergio Pellegrino, Ben Taylor, Savan Chhaniyara, and Nadjim Horri. "Autonomous Assembly of a Reconfigurable Space
Telescope (AAReST)-Rendezvous and docking on a 2D test-bed." In 9th IAA Symposium on Small Satellites for Earth Observation, IAA-B9-0508.
2013.
m scale
TESSERAE: Deployment Scale
Bonding Edge Length
5ft
Containment Bounding Area
X < 2*TESSERAE diameter
Inner Diameter
28ft
TESSERAE Module Volume
6910ft3
TESSERAE: Packing for Launch
MAP OF TESSERAE TECHNICAL PROGRESSION
Hardware
&
Control Software
Flight Test Simulation, At-Scale Analysis, and Autonomy/Robotics Integration
1st Gen
2st Gen
3rd Gen
Self-Assembly Experimental Parameters
Testing Parameters:
- Circulation
- Containment
- Seeding
- Kinetic Disturbance
- Redundant tiles
Tests
Circulation?
Tests
Containment?
Tests
Seeding?
Tests Kinetic
Disturbance?
Tests
Redundant
Tiles?
Gen 1
(parabolic
flight)
YES YES NO NO NO
Gen 2
(Suborbital
flight)
YES YES YES NO NO
Gen 3
(ISS)
YES YES YES YES NO
Simulation
Model
YES YES YES YES YES
Controllable, custom EPMs
Rigid-Flex PCB for on
demand neighbor
interaction sensing and self-
assembly control code
SuperCap for EPM
repulsion pulse
Lid and base
TESSERAE Tile – ISS platform
30 day mission
SCALE BAR: 9.5cm
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
TESSERAE Shell: Simulation Modelling
Incorporates:
- Rigid body physics collisions
- Force due to magnetic attraction /
magnetostatics
- Earth’s magnetic field (toggled)
- Control code logic implemented for
error handling
- 18 input parameters for variable
performance sweep
- Informed by results from microgravity
tests
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
TESSERAE :
Deployment Flow
Selected for AIAA Space Architecture Technical
Committee Best Professional Paper 2019/2020
Ekblaw, Ariel, Anastasia Prosina, Dava Newman,
and Joseph Paradiso. "Space Habitat
Reconfigurability: TESSERAE platform for self-
aware assembly." IAC, 2019.
Assembly Tasks
Finalization Tasks
Orbital Operation
Reconfigurability,
Re-purposing for
alternative missions
(orbit and surface)
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
TESSERAE: EXTENSIBILITY TO OTHER GEOMETRIES
I N D I V I D U A L U N I T S C R Y S T A L L I N E P A C K I N G
THANK YOU!
aekblaw@mit.edu
Explore-space.media.mit.edu
@Ariel_Ekblaw
@ExploreSpace_ML
Reconfigurable Space Structures
using Electromagnets
ElectroVoxels
Martin Nisser, MIT CSAIL
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Motivation
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Building the ISS (NASA)
Long-distance missions
Earth-Mars example
Communication delay: 10-40 mins round trip
Resupply delay: ~9 months (Hohmann, every 2 years)
Plan locking: 80% of ISS planned in 90s was orbited
Hardware permanence: Hardware inside can be baked in or irremovable
Modularity &
Reconfigurabilty
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Literature
Pebbles
Distributed Robotics Lab
MIT, 2010
M-Blocks
Distributed Robotics Lab
MIT, 2013
ATRON
Modular Robotics Lab
USD, 2006
Roombots
Biorobotics Laboratory
EPFL, 2014
Reconfigurable Robotics
Tesserae
Ekblaw et al. (2018)
Free flight & EM docking
Underwood et al. (2015)
Self-assembly via magnetic flux
pinning
Shoer and Peck (2007)
Equilibrium Shaping
Izzo et al. (2007)
Space Architecture - Assembly
Concept Overview
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Pivot (π) Traversal (π/2)
Reconfiguration Primitives
Build modules,
demo maneuvers
Hardware
Module
Array
CAD / Components
Simulation
Pivoting (π /-π)
Reconfiguration Demos
Airtable Experiments
Pivoting (π /-π)
Continuous pivot (π)
Traversal (π/2)
Microgravity Demo
Pivoting (π)
Simulated
Reconfigurations
Pivoting (π /-π)
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures
Version iteration
Reconfigurable Structures
using Electromagnets
ElectroVoxels

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Electromagnetically Actuated Systems for Modular, Self-Assembling and Self-Reconfigurable Space Structures

  • 1. ESA ACT Science Coffee MARCH 2022
  • 3. SPACE EXPLORATION INITIATIVE COMMUNITY 5 0 + G R A D U A T E S T U D E N T S , S T A F F , A N D F A C U L T Y S E A N A U F F I N G E R M I S S I O N I N T E G R A T O R X I N L I U A R T S C U R A T O R M A G G I E C O B L E N T Z S P A C E G A S T R O N O M Y S A N D S F I S H S T A F F D E S I G N E R E L I S E O ’ H A R A A D M I N I S T R A T I O N S A N A S H A R M A S T A F F D E S I G N E R J A M I E M I L L I K E N S T A F F E N G I N E E R J O E P A R A D I S O M E D I A L A B A D V I S O R M A R I A Z U B E R M I T V P F O R R E S E A R C H D A V A N E W M A N M E D I A L A B D I R E C T O R A R I E L E K B L A W F O U N D E R & D I R E C T O R A L B E R T A N T O S C A P R O G R A M M A N A G E R C I A R R A O R T I Z S P A C E S U I T I N T E R N N A D I A K A H N L U N A R P O L I C Y L E A D
  • 4. SPACE SUITS & MOBILITY SELF-ASSEMBLY ZERO-G 3D PRINTING MUSIC VR & AR MUSIC SPACE SILK ZERO- G SELF ASSEMBLY MICRO-G EXERCISE SOFT ROBOTICS SWARM ROBOTS SPACE SUITS
  • 5. SPACE ARCHITECTURE SPACE SUITS & MOBILITY ROBOTICS & AI SPACE FOOD MUSIC VR & AR ASTRONAUT BIO- SENSORS PERSONAL HOLODECK MICRO-G EXERCISE MUSIC & THE ARTS
  • 7. OUR LAUNCH PIPELINE A D L U N A A D A S T R A
  • 9. Artist’s render courtesy of TU Dortmund PhD Committee TESSERAE: Tessellated Electromagnetic Space Structures for the Exploration of Reconfigurable Adaptive Environments
  • 11. I M A G E C R E D I T : E S A
  • 14. KILOBOTS R U B E N S T E I N , M I C H A E L , A L E J A N D R O C O R N E J O , A N D R A D H I K A N A G P A L . " P R O G R A M M A B L E S E L F - A S S E M B L Y I N A T H O U S A N D - R O B O T S W A R M . " S C I E N C E 3 4 5 , N O . 6 1 9 8 ( 2 0 1 4 ) : 7 9 5 - 7 9 9 . PEBBLES G I L P I N , K Y L E , A R A K N A I A N , A N D D A N I E L A R U S . " R O B O T P E B B L E S : O N E C E N T I M E T E R M O D U L E S F O R P R O G R A M M A B L E M A T T E R T H R O U G H S E L F - D I S A S S E M B L Y . " I N R O B O T I C S A N D A U T O M A T I O N ( I C R A ) , 2 0 1 0 I E E E I N T E R N A T I O N A L C O N F E R E N C E O N , P P . 2 4 8 5 - 2 4 9 2 . I E E E , 2 0 1 0 . LILY ROBOT H A G H I G H A T , B A H A R , E T A L . " L I L Y : A M I N I A T U R E F L O A T I N G R O B O T I C P L A T F O R M F O R P R O G R A M M A B L E S T O C H A S T I C S E L F - A S S E M B L Y . " I N R O B O T I C S A N D A U T O M A T I O N ( I C R A ) , 2 0 1 5 I E E E I N T E R N A T I O N A L C O N F E R E N C E O N , P P . 1 9 4 1 - 1 9 4 8 . I E E E , 2 0 1 5 .
  • 15. Aerospace Docking + Reconfigurability Saenz-Otero, Alvar, and David W. Miller. "SPHERES: a platform for formation-flight research." In UV/Optical/IR Space Telescopes: Innovative Technologies and Concepts II, vol. 5899, p. 58990O. International Society for Optics and Photonics, 2005. Howard, N. and Nguyen, H.D., National Aeronautics and Space Administration (NASA), 2010. Magnetic capture docking mechanism. U.S. Patent 7,815,149. Nisser, Martin, Dario Izzo, and Andreas Borggraefe. "An electromagnetically actuated, self-reconfigurable space structure." Transactions of the Japan Society for aeronautical and space sciences 14 (2017): 1-9. Underwood, Craig, Sergio Pellegrino, Ben Taylor, Savan Chhaniyara, and Nadjim Horri. "Autonomous Assembly of a Reconfigurable Space Telescope (AAReST)-Rendezvous and docking on a 2D test-bed." In 9th IAA Symposium on Small Satellites for Earth Observation, IAA-B9-0508. 2013. m scale
  • 16. TESSERAE: Deployment Scale Bonding Edge Length 5ft Containment Bounding Area X < 2*TESSERAE diameter Inner Diameter 28ft TESSERAE Module Volume 6910ft3
  • 18. MAP OF TESSERAE TECHNICAL PROGRESSION Hardware & Control Software Flight Test Simulation, At-Scale Analysis, and Autonomy/Robotics Integration 1st Gen 2st Gen 3rd Gen
  • 19. Self-Assembly Experimental Parameters Testing Parameters: - Circulation - Containment - Seeding - Kinetic Disturbance - Redundant tiles Tests Circulation? Tests Containment? Tests Seeding? Tests Kinetic Disturbance? Tests Redundant Tiles? Gen 1 (parabolic flight) YES YES NO NO NO Gen 2 (Suborbital flight) YES YES YES NO NO Gen 3 (ISS) YES YES YES YES NO Simulation Model YES YES YES YES YES
  • 20. Controllable, custom EPMs Rigid-Flex PCB for on demand neighbor interaction sensing and self- assembly control code SuperCap for EPM repulsion pulse Lid and base TESSERAE Tile – ISS platform 30 day mission SCALE BAR: 9.5cm
  • 22. TESSERAE Shell: Simulation Modelling Incorporates: - Rigid body physics collisions - Force due to magnetic attraction / magnetostatics - Earth’s magnetic field (toggled) - Control code logic implemented for error handling - 18 input parameters for variable performance sweep - Informed by results from microgravity tests
  • 24. TESSERAE : Deployment Flow Selected for AIAA Space Architecture Technical Committee Best Professional Paper 2019/2020 Ekblaw, Ariel, Anastasia Prosina, Dava Newman, and Joseph Paradiso. "Space Habitat Reconfigurability: TESSERAE platform for self- aware assembly." IAC, 2019. Assembly Tasks Finalization Tasks Orbital Operation Reconfigurability, Re-purposing for alternative missions (orbit and surface)
  • 26. TESSERAE: EXTENSIBILITY TO OTHER GEOMETRIES I N D I V I D U A L U N I T S C R Y S T A L L I N E P A C K I N G
  • 28. Reconfigurable Space Structures using Electromagnets ElectroVoxels Martin Nisser, MIT CSAIL
  • 36. Long-distance missions Earth-Mars example Communication delay: 10-40 mins round trip Resupply delay: ~9 months (Hohmann, every 2 years) Plan locking: 80% of ISS planned in 90s was orbited Hardware permanence: Hardware inside can be baked in or irremovable
  • 40. Pebbles Distributed Robotics Lab MIT, 2010 M-Blocks Distributed Robotics Lab MIT, 2013 ATRON Modular Robotics Lab USD, 2006 Roombots Biorobotics Laboratory EPFL, 2014 Reconfigurable Robotics
  • 41. Tesserae Ekblaw et al. (2018) Free flight & EM docking Underwood et al. (2015) Self-assembly via magnetic flux pinning Shoer and Peck (2007) Equilibrium Shaping Izzo et al. (2007) Space Architecture - Assembly
  • 46. Pivot (π) Traversal (π/2) Reconfiguration Primitives
  • 50. Array