πŸŒŒπŸŒ– Habitats in unhabitable enviroments

I saw many ideas about the Moon/Mars habitats due to ARTEMIS mission, but you needΒ  something like Tokra building system alpha 1.0. Why?Β 

  • Because you need to eliminated/mitiged theΒ  unhabitableΒ  enviroment, which means extra hot and extra cold,Β  radiation etc.
  • You need a easely repair and craft/building system for new habitat and to using a Moon/Mars material/elements for that.Β 

Due to this system you can to getΒ  easely any material for research.

That means you need space mining tools and crafts version 1.0 (upgradeable version) for teraforming any surface in the Universe, which :

  • lasers 1 / 2 / anotherΒ  technology steps
  • “minig mole” for tunnels
  • printing tools
  • robots
  • etc.

You will to need

  • Power/Charge Station
  • Water/Oxygen etc. Production Station
  • Sci laboratores
  • Low/Microgravity lab
  • Hospital Station/lab
  • Gravity /Artificial gravity simulators,
  • Food Garden
  • Observation Station
  • Docking Station, Sleeping room, Toalet room, Hospital, Healt Care Station, garages, Sure Resting Station / “Funny room” too, Hotels for all first turist, investors and visionaries, etc.
Anyway in my mind is something like a huge starstation/starship platform, which can be upgraded for nonlimited time, which can be prepared to eplore our solar system, which will be sustainable for nonlimite life time and will be in the future to prepared explore a deep space.
Β 
This vision is for me very important, because this platform can to survive “anything” and that will only depends at our modern of technology, which can be upgradable.

very well, something like that and much more

NASA Human Research Program

Waxing crescent moon symbol

If you want tu survive and keep human race alive, you need to settle universe, that means the higher probabilty to be alive due to any phenomenas in the universe.

We need a new commercial space station / space craft, a huge platform, where you can to live for nonlimited time, which can also toΒ  explore the solar system due to ion etc. engine systems.

Β 

SBIR/STTR Research Topics by

Focus Area

+ Expand 1 In-Space Propulsion TechnologiesFocus Area 1 In-Space Propulsion Technologies

+ Expand 2 Power Energy and StorageFocus Area 2 Power Energy and Storage
+ Expand 3 Autonomous Systems for Space ExplorationFocus Area 3 Autonomous Systems for Space Exploration
+ Expand 4 Robotic Systems for Space ExplorationFocus Area 4 Robotic Systems for Space Exploration
+ Expand 5 Communications and NavigationFocus Area 5 Communications and Navigation
+ Expand 6 Life Support and Habitation SystemsFocus Area 6 Life Support and Habitation Systems
+ Expand 7 Human Research and Health MaintenanceFocus Area 7 Human Research and Health Maintenance
+ Expand 8 In-Situ Resource UtilizationFocus Area 8 In-Situ Resource Utilization
+ Expand 9 Sensors, Detectors and InstrumentsFocus Area 9 Sensors, Detectors and Instruments
+ Expand 10 Advanced Telescope TechnologiesFocus Area 10 Advanced Telescope Technologies
+ Expand 11 Spacecraft and Platform SubsystemsFocus Area 11 Spacecraft and Platform Subsystems
+ Expand 12 Entry, Descent, and Landing SystemsFocus Area 12 Entry, Descent, and Landing Systems
+ Expand 13 Information Technologies for Science DataFocus Area 13 Information Technologies for Science Data
+ Expand 14 On-orbit Servicing, Assembly, and Manufacturing (OSAM)Focus Area 14 On-orbit Servicing, Assembly, and Manufacturing (OSAM)
+ Expand 15 Materials, Materials Research, Structures, and AssemblyFocus Area 15 Materials, Materials Research, Structures, and Assembly
+ Expand 16 Ground & Launch ProcessingFocus Area 16 Ground & Launch Processing
+ Expand 17 Thermal Management SystemsFocus Area 17 Thermal Management Systems
+ Expand 18 Air Vehicle TechnologyFocus Area 18 Air Vehicle Technology
+ Expand 19 Integrated Flight SystemsFocus Area 19 Integrated Flight Systems
+ Expand 20 Airspace Operations and SafetyFocus Area 20 Airspace Operations and Safety
+ Expand 21 Small Spacecraft TechnologiesFocus Area 21 Small Spacecraft Technologies
+ Expand 22 Low Earth Orbit Platform Utilization and Microgravity ResearchFocus Area 22 Low Earth Orbit Platform Utilization and Microgravity Research
+ Expand 23 Digital Transformation for AerospaceFocus Area 23 Digital Transformation for Aerospace
+ Expand 24 Dust MitigationFocus Area 24 Dust Mitigation

+ 25

Β 

NASA GeneLab

Open Science for Life in Space

the first comprehensive space-related omics database; users can upload, download, share, store, and analyze spaceflight and spaceflight-relevant data from experiments using model organisms.

πŸ§¬πŸŒŒπŸ§‘β€πŸ”¬πŸ‘©β€πŸ”¬

Chce-li človΔ›k osΓ­dlit nekonečnΓ½ vesmΓ­r, nevystačí si jen s populačnΓ­m rΕ―stem, jeΕΎ je nutnΓ½ pro vΕ‘echny interakce a tak robotizace urychlΓ½ teraformaci planet a obΕΎivu v jakΓ©mkoli prostΕ™edΓ­ i na Zemi a tΓ­m i nΓ‘slednΓ½ populačnΓ­ rΕ―st.

If humans want to settle the infinite universe, the high population grow will not the only one important thing for that and another one is the robotization, whichΒ  will to unlocking the faster planet teraformation, livelihood etc. and after due to this the population in any enviroment can to grow more faster..

Waxing crescent moon symbol

NASA 3D Models – 3D printable Β 

the Laser Zentrum Hannover e.V. (LZH) and the Institute of Space Systems (IRAS) of the Technical University of Braunschweig / Bringing 3D-printing to the moon – Melting moon dust with the laser

NASA Kennedy to Develop Tech to Melt Moon Dust, Extract Oxygen GaLORE

Lunar Dust Management Technology for Spacecraft Atmospheres and Spacesuits (SBIR)

Humans needs to setle the universe due to high populatiton if you want to keep biodiversity. Space hasn’t limit.

Humans need a lot of research to find new technologies how to survival in any enviroment, which is important for survival the species homo sapiens sapiens in their universe and the way how to keep any biodiversities alive.

“Earth is the cradle of humanity, but one cannot remain in the cradle forever.” Konstantin E. Tsiolkovsky

Planning a Mission to the

Lunar South Pole

: how to mitigate a debris/particles from mining – to use them

: I see many projects, but important is habitatΒ Β 

:Β  also important point and theΒ  big challenge to keep healty population anywhere on Mars/Moon/Orbit etc., is, how to simulate gravity, how to use microgravity for treatment etc.*

there is diferend biomechanism due to gravity. Any species is afected by gravity, which means their blood, bones, preasure etc.

All rocket engines, Earth spacecraft depends on gravity

Moon base is the big opportunity for the new spacecraft base systems.

However, one of the biggest challenge is the research how to mitigate gravity or how to change gravity pool in a specific place / local trase, anywhereΒ 

Status of Gravity Control

*artificial simulation gravity / gravity control are both diferent terminology
Β 
Β anyway, critical challenge at first will be how easely to getΒ a water / oxygen – atmosphere/ food production systems anywhere in any condition.Β 

Β 

Twins StudyΒ 

Human Research Programm

  • || huge circle solar sail
  • || high temperature melting system
  • || diging system under surface
  • v

Permanent Shadows on the Moon

Why Moon base at first?

Moon is the testing field for a new technologies in unhabitable enviroments.

+ near by EarthΒ 

+ low gravity

+ perfect observe place (ready for ATLAS base,, etc.)

Β 

South Pole–Aitken basin

Β 

The Solar Wind

Across Our Solar System

Β 

First surface radiation

measurements

2:05 6/17/2021 we need just to create small geomagnetic field about, I don’t know, 1015+- diameters? and then more to the next level?
Β 

NASA Spacecraft Helps Identify

Solar Radiation Patterns That

Expose the Moon

Timeline Break the Ice Challenge “Melting Ice”

Β 
1

NOVEMBER 18, 2020

Phase 1 opens

2

DECEMBER 2020 – JANUARY 2021

– Webinars to support registered Teams and potential Teams in developing their system architectures
– Promotional activities and/or other support for registered Teams
– Judging Panel Summit (virtual) to brief judges on roles/responsibilities and Challenge rules

3

JUNE 18, 2021

Deadline for registration and for Teams to submit their system architectures

4

JUNE – JULY, 2021

– Administrative review of the system architectures to verify compliance with rules
– Judging Panel may conduct virtual interviews with Teams

5

JULY – AUGUST, 2021

– Judging Panel reviews and scores the system architectures
– Judging Panel Summit (virtual) to determine Phase 1 winners

6

AUGUST 13, 2021

Phase 1 winners announced

  • Cupola Habitat Solar Melting Diging Crater phase 3

 

  • Cupola Habitat Solar Melting Diging Crater Phase 4

  • vaporizer system

Β 

  • Cupola Habitat Solar Melting Diging Crater Phase 5

Β 

  • Cupola Habitat Solar Melting Diging Crater Phase 1

  • mole diging safety area habitat something like Boring Moon company
  • creating a glazure walls meltingΒ  by lasers during diging process

Β 

  • Moon Manhattan

Β 

Science Objective

Nearly all metal alloys are produced by cooling a liquid metal until it hardens into a solid. Similar to the process seen in a snowstorm, in metal castings the solid grows by the formation of millions of snowflake-like crystals called dendrites. The shape of these dendrites affects the strength of metal alloys.

Status

This investigation is planned to launch aboard SpaceX-21 to the International Space Station (ISS) in December 2020.

Experiment Description

The Dendrite Fragmentation and Morphology During melting and Solidification (DFM) examines the effects of temperature changes and the starting dendrite shape on how dendrites coarsen and fragment in a controlled microgravity environment. Findings are expected to have a major impact on the understanding of, and ability to produce, metals with higher strength, both in space and on Earth.dfm.jpeg
This preflight image of the Dendrite Fragmentation and Morphology during Melting and Solidification (DFM) investigation shows a small portion of an experimentally determined dendrite. The image on the right shows the same portion with the formation of a fragment and other morphological changes after a simulated temperature change. Colors show the mean curvature of the dendrite interfaces (red corresponds to high positive curvature, blue to high negative curvature, and green to zero curvature). Image courtesy ofΒ P. Voorhees, Northwestern University.

NASA 2019 STTR Program Phase II Selections – Firm List

Proposals Selected for Negotiation of Contracts

algorithm

Future is Now! There don’t must be another chance. Remember, a dinos don’t like a big flying rocks, so everything is a experience, which to bring the knowledge and humans must be smarter than dinos including to keep the population grow.

Mirios, Inc.

Company Information

Address429 W Valerio St Apt 25
Santa Barbara, CA, 93101-2982

Β 

Information

DUNS:Β 081048271

# of Employees:Β 1

Ownership Information

HUBZone Owned:Β N

Socially and Economically Disadvantaged:Β N

Woman Owned:Β N

Β 

Award Charts

Program/PhaseAward AmountAward CountBy Program and PhaseSBIR PISBIR PIISTTR PISTTR PII0240k80k160k320k00.61.21.82.4Highcharts.com
Award AmountAward CountBy Year2019060k120k180k240k300k00.511.522.5Highcharts.com
Award AmountAward CountBy AgencyDODNASA030k60k90k120k150k00.250.50.7511.25Highcharts.com

Award Listing

  1. Quantum Cascade Laser Array with Integral Wavelength Beam Combining

    Amount: $139,793.00

    Mirios Inc., in collaboration with UCSB and NRL, proposes to construct a high-brightness MWIR (~4.5-4.9 m) light source, consisting of a single silicon chip with an array of Quantum Cascade Lasers whi …

    STTRPhase I2019Department of DefenseΒ Navy

  2. Multispectral Mid-Infrared Laser

    Amount: $124,380.00

    We proposenbsp;to construct a multispectral MWIR light sourcenbsp;consisting of a single silicon chip which will generate and combine lightnbsp;from a wide MWIR spectral range. Compared to existing co …

    STTRPhase I2019National Aeronautics and Space Administration
Β 

These analogs and the hazards they study are:

:envihabΒ (gravity, environment): Located in Cologne, Germany, this analog is largely used to study the effects of microgravity on the body. Volunteers are placed on strictΒ bed restΒ in a position in which the head is tilted down at a slight angle for one to two months, to induce the effects of weightlessness on the body. The facility is also used to examine how elevated carbon dioxide exposure and artificial gravity, through centrifuge spinning, affect crews. Elevated levels of carbon dioxide may impact the health of astronauts living in a spacecraft, underscoring the need for reliable air filtration technology.

Antarctic StationsΒ (environment, isolation): Scientists study how isolation and confinement affect cognition, as well as theΒ teamwork and social relationshipsΒ of individuals working at research stations in the extreme environment of Antarctica over the winter.

NEKΒ (isolation and confinement): In Moscow, Russia,Β crewsΒ of volunteers live inside a space station-like habitat for up to 12 months while researchers study the physical and mental health, social interactions, and team dynamics of those volunteers.

Human Exploration Research AnalogΒ (isolation, distance): Located at NASA’s Johnson Space Center in Houston, this analog is a simulated exploration habitat for studying behavioral health, crew communication, medical capabilities, and how astronauts use equipment and technologies. HERAΒ simulationsΒ can also look at the crew’s ability to work autonomously. In a real mission to Mars, the crew members would experience communication delays due to the distance from Earth and would need to work together, with only sporadic input from Mission Control.

NASA Space Radiation LaboratoryΒ (radiation): NASA teamed with the U.S. Department of Energy to establish a lab at the Brookhaven National Laboratory in New York to help assess health risks associated with space radiation. The lab uses beams of ions toΒ simulateΒ cosmic rays and assess the effects on biological samples and equipment. This research helps to improve risk assessments for humans and develop techniques to reduce those risksΒ as astronauts travel beyond Earth’s protective magnetosphere.

Radiation Miniseries Education

just for explain what is exactly naturaly and the terminology “unnaturaly” is oxymoron.Β 

We need to explore how to make sustainable tunnels atfirst, because that’s easely way, how to survive in unhabitable enviroments.Β 

Anyway, we will to need all technology including on surface habitats and including under surface habitats.

Anyway in my mind is also something like a huge starstation/starship platform, which can be upgraded for nonlimited time, which can be prepared to eplore our solar system, which will be sustainable for nonlimite life time and will be in the future to prepared explore a deep space.

This vision is for me very important, because this platform can to survive “anything” and that will only depends at our modern of technology, which can be upgradable.