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https://ntrs.nasa.gov/search.jsp?R=20170005576 2020-01-11T19:29:36+00:00Z

PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

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Page 1: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

https://ntrs.nasa.gov/search.jsp?R=20170005576 2020-01-11T19:29:36+00:00Z

Page 2: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 3: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 4: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Simulated Moon Hazard Field

Page 5: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

aerial view

Page 6: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Granular Mechanics and Regolith Operations

Development of technologies for working with regolith (surface material) on other bodies in space and studying their basic physics and geology.

Applied Chemistry

Chemical solutions for in situ resource utilization, leak detection, precision cleaning, oxygen recovery, environmental remediation, and more.

Electrostatics and Surface Physics

Investigation of electrostatics and surface physics with applications for spaceflight and planetary exploration. Detecting and preventing electrostatic discharge.

Advanced Materials and Systems

Polymer science, materials chemistry, and novel composite systems for space applications. Technologies include, among others, aerogel composites, smart thermal materials, chemochromatic gas sensing materials, and carbon nanotube and conductive polymers.

Applied Physics

Development of instrumentation, sensors, and tools for spaceport ground processing on Earth and for in situ space resource utilization on the moon and Mars.

Corrosion Technology

Applied research and testing for all areas of corrosion, including material performance and degradation in various environments, and new corrosion detection and control technologies.

Page 7: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

1.2.

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Page 8: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Design

Build

Test

Credit: Astronaut Mike Gernhardt, NASA JSC

Functional Requirements

Expanded Functional

Requirements

Preliminary Design

Requirements

Flight Design Requirements

Gen I Gen II Gen III Flight

Begin with a clear

vision of what the

technology will do

and won’t do

By the Preliminary Design

Review (PDR), we will know

exactly what we want, how

we’re going to build it, and how

we’re going to operate it

Design-build-test conducted iteratively with increasing knowledge of the operating

environment will result in an end product that optimizes safety and performance.

Page 9: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 10: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Image Credit: NASA/Dmitri Gerondidakis Image Credit: NASA/Dmitri Gerondidakis

www.nasa.gov/centers/kennedy/about/sustainability/trashtogas.html

Page 11: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 12: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

”http://spectrum.ieee.org/automaton/robotics/military-robots/nasa-training-swarmie-robots-for-space-mining

Page 13: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 14: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Regolith is the surface layer of loose material that sits on top

of bedrock. It includes all the rocks, gravel, and dust – from

large boulders to tiny particles. It exists on Earth, other

planets, moons, and asteroids.

Swamp Works is exploring ways to exploit the regolith for

as many uses as possible. We take one of two approaches:

1. Extracting resources out of the regolith, usually with

chemical processes

2. Using the regolith as a raw material for building

structures

Page 15: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

RESOLVE payload on the rover Artemis. Image Credit: NASA/Joe Bibby

Page 16: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

RESOLVE payload on JSC rover during RP-15. Image Credit: NASA

RESOLVE payload on JSC rover during RP-15. Image Credit: NASA

The RP rover team installs the drill on the RP-

15 Ground Test Unit. Image Credit: NASA

Page 17: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

ALTIP concept

Artist concept of ALTIP in Martian lava tube

ALTIP on gimbal for gravity offload testing

Permanently shadowed lunar crater region

Page 18: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

https://www.researchgate.net/profile/Anthony_Muscatello/publication/280091306_Atmospheric_Processing_Module_for_Mars_Propellant_Production

Photos of MARCO POLO Modules at KSC and JSC

(Image Credit: NASA KSC)

KSC: Mockup Lander w/Hopper, Mock

Oven, and APM Simulator in Regolith Bin

KSC: Common Bulkhead Cryotank

KSC: RASSOR 2.0 Excavator

Rover

JSC: Water Processing

Module (Electrolyzer)

KSC/JSC: Water Cleanup

Module

KSC: Atmospheric Processing ModuleJSC: Soil

Processing Module

Page 19: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 20: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Drive 100 meters to

excavation site

Excavate 80 kg of regolith

Drive back to processing

plant

Dump regolith in processing

plant

Remove tailings from processing

plant

Page 21: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,
Page 22: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Artist concept of heat shield fabrication. NASA/KSC

Page 23: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Clockwise from top left: Regolith-derived heat shield sample undergoing flame testing; regolith samples post-test;

artist concept. Image Credit: NASA/KSC

Page 24: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

JPL ATHLETE Robot

KSC Print Head & Regolith Feed

System

Solar Power Concentrators

Page 25: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Image credit: Contour Crafting

Page 26: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,

Computer model of robotic arm

Mixing a batch of BP-1 (simulated lunar regolith) with polyethylene

Prototype blocks

Flexural strength testing

Page 27: PowerPoint Presentation - ntrs.nasa.gov · chemochromatic gas sensing materials, and carbon nanotube and conductive polymers. Applied Physics Development of instrumentation, sensors,