Industrial-and-Research Lunar Base

Similar documents
LUNAR INDUSTRIAL RESEARCH BASE. Yuzhnoye SDO proprietary

FEDERAL SPACE AGENCY OF RUSSIAN FEDERATION LAVOCHKIN ASSOCIATION PROGRAM OF THE MOON EXPLORATION BY AUTOMATIC SPACE COMPLEXES

Adrestia. A mission for humanity, designed in Delft. Challenge the future

Next Steps in Human Exploration: Cislunar Systems and Architectures

European Lunar Lander: System Engineering Approach

MARS-OZ: A Design for a Simulated Mars Base in the Arkaroola Region

OMOTENASHI. (Outstanding MOon exploration TEchnologies demonstrated by NAno Semi-Hard Impactor)

Lunar Architecture and LRO

A LEO Propellant Depot System Concept for Outgoing Exploration

Notes: GENERAL DYNAMICS EARLY LUNAR ACCESS [1993]

The European Lunar Lander Mission

Human Exploration of the Lunar Surface

An Overview of CSA s s Space Robotics Activities

Lunette: A Global Network of Small Lunar Landers

LUNAR DAYLIGHT EXPLORATION Cost Constrained Human and Robotic Exploration Brand Norman Griffin 1 A.M., ASCE

Lunar Cargo Capability with VASIMR Propulsion

Solar Electric Propulsion Benefits for NASA and On-Orbit Satellite Servicing

Travel: Detailed Flight Plan

Massachusetts Space Grant Consortium

ENERGIA 1. IDENTIFICATION. 1.1 Name. 1.2 Classification Family : K Series : K-1/SL-17 Version : 4 strap-ons

Martin J. L. Turner. Expedition Mars. Published in association with. Chichester, UK

NEXT Exploration Science and Technology Mission. Relevance for Lunar Exploration

Moon Exploration Lunar Polar Sample Return ESA Thematic information day BELSPO, 3 July 2012

EPIC Gap analysis and results

CALL FOR IDEAS FOR THE RE-USE OF THE MARS EXPRESS PLATFORM PLATFORM CAPABILITIES. D. McCoy

Planetary Surface Transportation and Site Development

From MARS To MOON. V. Giorgio Director of Italian Programs. Sorrento, October, All rights reserved, 2007, Thales Alenia Space

THE FALCON I LAUNCH VEHICLE Making Access to Space More Affordable, Reliable and Pleasant

lights on, down 2 ½ 40 feet, down 2 ½ Kickin up some dust 30 feet, 2 ½ down faint shadow

Name: Space Exploration PBL

SDO YUZHNOYE S CAPABILITIES IN SPACE DOMAIN

On Orbit Refueling: Supporting a Robust Cislunar Space Economy

Cooperative EVA/Telerobotic Surface Operations in Support of Exploration Science

NASA Glenn Research Center Intelligent Power System Control Development for Deep Space Exploration

TOWARDS A HEAVY LAUNCHER - PROPULSION SOLUTIONS - A. Souchier - C. Rothmund Snecma Moteurs, Direction Grosse Propulsion à Liquides

Development of a Low Cost Suborbital Rocket for Small Satellite Testing and In-Space Experiments

CHAPTER 2 GENERAL DESCRIPTION TO LM-3C

Future NASA Power Technologies for Space and Aero Propulsion Applications. Presented to. Workshop on Reforming Electrical Energy Systems Curriculum

Fly Me To The Moon On An SLS Block II

RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit) June 2001

Gravity Control Technologies Phase I - Unmanned Prototype

Landing Targets and Technical Subjects for SELENE-2

SPACE STATIONS USING THE SKYLON LAUNCH SYSTEM

RIMRES: A project summary

Access to Space. ISRO s Current Launch. & Commercial Opportunities. S Somanath Project Director, GSLV Mk III VSSC, ISRO

Systems Engineering. Chris Hall AOE 4065 Fall 2005

Mars Surface Mobility Proposal

Blue Origin Achievements and plans for the future

Lunar Science and Infrastructure with the Future Lunar Lander

SPACE LAUNCH SYSTEM. Steve Creech Manager Spacecraft/Payload Integration & Evolution August 29, 2017 A NEW CAPABILITY FOR DISCOVERY

VEGA SATELLITE LAUNCHER

Analysis of Power Storage Media for the Exploration of the Moon

WhirliGig Transfer Vehicle for motor-driven, restartable A.G. Tom Sullivan June, 2002

NASA s Choice to Resupply the Space Station

CHAPTER 1 INTRODUCTION

Space Architecture. Master s Thesis Project Jain, Abhishek Dec. 2 nd, 2013

John Klaus Robert Cooper Thilina Fernando Zoe Morozko

USA FALCON 1. Fax: (310) Telephone: (310) Fax: (310) Telephone: (310) Fax: (310)

Performance Evaluation of a Side Mounted Shuttle Derived Heavy Lift Launch Vehicle for Lunar Exploration

Lunar Missions by Year - All Countries. Mission count dropped as we transitioned from politically driven missions to science driven missions

AIRCRAFT MEANS APPLICATION FOR SUBORBITAL TOURIST FLIGHTS AND COMMERCIAL SATELLITES LAUNCHING INTO AN ORBIT

Station for Exploratory Analysis and Research Center for Humanity (SEARCH)

NASA Perspectives on the Importance of Reform in Electric Energy Systems Education

Rocket 101. IPSL Space Policy & Law Course. Andrew Ratcliffe. Head of Launch Systems Chief Engineers Team

Pre-Launch Procedures

The Role of Electric Propulsion in a Flexible Architecture for Space Exploration

Initial Concept Review Team Alpha ALUM Rover (Astronaut Lunar Utility Mobile Rover) Friday, October 30, GMT

The GHOST of a Chance for SmallSat s (GH2 Orbital Space Transfer) Vehicle

Lunar and Mars Mission Analysis and Design Using Commercial Launch Systems and the International Space Station

SpaceLoft XL Sub-Orbital Launch Vehicle

July 28, ULA Rideshare Capabilities

Brief overview of lunar surface environment Examples of rover types and designs Steering systems Static and dynamic stability

Soviet Lunokhod 1 and 2 missions and things around

Lunar Robotics. Dr. Rob Ambrose, NASA JSC December Dr. Robert O. Ambrose

Exploration Architecture Update

PAYLOAD USER S GUIDE

GK L A U N C H SER VICES MOSCOW 2017

ELECTRIC PROPULSION MISSION TO GEO USING SOYUZ/FREGAT LAUNCH VEHICLE M.S. Konstantinov *, G.G. Fedotov *, V.G. Petukhov ±, G.A.

THE 21 ST CENTURY SPACE SHUTTLE

HYDROS Development of a CubeSat Water Electrolysis Propulsion System

SOYUZ-IKAR-FREGAT 1. IDENTIFICATION. 1.1 Name. 1.2 Classification Family : SOYUZ Series : SOYUZ Version : SOYUZ-IKAR SOYUZ-FREGAT

VSS V1.5. This Document Contains No ITAR Restricted Information But Is Not Cleared for General Public Distribution

High Power Solar Electric Propulsion for Human Space Exploration Architectures

Lunar Surface Access from Earth-Moon L1/L2 A novel lander design and study of alternative solutions

Cygnus Payload Accommodations: Supporting ISS Utilization

Test Facility for Sampler Drills and Distribution Tools

Cal Poly CubeSat Workshop 2014

Upper Stage Evolution

Two Related Primary Challenges for Successful Renewed Lunar Exploration

ASTRIUM. Lunar Lander Concept for LIFE. Hansjürgen Günther TOB 11. Bremen, 23/

SmallSats mission opportunities for the Vega launch system: the Small Spacecraft Mission Service 7 th August, 2016

Capabilities Summary and Approach to Rideshare for 20 th Annual Small Payload Rideshare Symposium NASA Ames Research Center June 12-14, 2018

Suitability of reusability for a Lunar re-supply system

Atlas V Launches the Orbital Test Vehicle-1 Mission Overview. Atlas V 501 Cape Canaveral Air Force Station, FL Space Launch Complex 41

AIR LAUNCH AEROSPACE INTERNATIONAL PROJECT

Fuel Saving by Gradual Climb Procedure. Ryota Mori (Electronic Navigation Research Institute)

Seminar 12! The Future of Space Flight! Spacecraft Power & Thermal Control!

Extending NASA s Exploration Systems Architecture towards Longterm Crewed Moon and Mars Operations

SURVEYOR-H. Technical Data. Max speed 120 km/h. Engine power 7.2 hp. Powerplant Modified Zenoah G29E. Fuel tank volume 3.6 l

Power Team Mission Day Instructions

Transcription:

Industrial-and-Research Lunar Base

STRATEGY OF LUNAR BASE CREATION Phase 1 Preparatory: creation of international cooperation, investigation of the Moon by unmanned spacecraft, creation of space transport systems and Lunar Base components. Phase 2 Base of Minimal Configuration: delivery of the first base s modules and preparation of take-off and landing area. Phase 3 Base Expansion: Lunar Base equipping, investigation of the Moon surface. Phase 4 Transfer to Production: creation of closed life support system, production base and observatory. Phase 5 Permanent Base: ensuring permanent stay and life activity of humans on the Moon. PHASES OF CREATION 2020 2030 2040 2050 2060 Phase 1 Preparatory Phase 2 Base of Minimal Configuration Phase 3 Base Expansion Phase 4 Transfer to Production Phase 5 Permanent Base 2

SPACE TRANSPORT SYSTEM Krypton ILV ensures payload injection into reference Earth orbit. Krypton ILV Maximal lift-off mass, t 2374 Propellants Number of stages kerosene + liquid oxygen 2 + 4 liquid boosters Lift-off thrust of engines, tf 3770 Length, m up to 78 Diameter of stage case/plf, m 3.9 / 6.2 Payload mass into LEO, t 91.5 Payload mass into lunar trajectory, t Payload mass to lunar surface, t landing mass, t payload mass, t 30.5 (с РБ) 10-10.5 8 8.5 Krypton ILV is created on the basis of Mayak- С3.9 ILV using Yuzhnoye-developed engines. RD815 first stage engine RD835 second stage engine 3

SPACE TRANSPORT SYSTEM Booster stage ensures transport system acceleration to velocity of reaching the Moon. Total mass without payload, t 60 Propellants liquid oxygen + kerosene Engine thrust, tf 50 Length, m 9.6 Diameter, m 3.9 PL mass in trajectory to the Moon, t 30.5 Circumlunar space tug ensures circumlunar manoeuvers and corrections. Total mass without payload, t 9.55 Propellants NТ+UDMH Engine thrust, tf 7.916 Length, m 2.24 Diameter, m 3.9 PL mass in circumlunar orbit, t 20.9 4

SPACE TRANSPORT SYSTEM Manned space vehicle ensures delivery of crew of 4 people to lunar surface and their subsequent return to the Earth. Lunar orbital station is intended to ensure remote investigations of surface, control tasks solution, conducting experiments, unloading of cargo-andpassenger traffic flows. Earth Moon propulsion system, t 72.6 Lunar vehicle equipment bay, t 3.2 Lunar vehicle cab, t 2 Landing platform, t 5.9 Take-off module, t 2.7 Moon Earth propulsion system, t 4.6 Total, t 91 Orbit altitude, km 100-5500 Orbit inclination, deg ~ 87 Electric power supply system power, kw up to 22 Crew, persons 2-4 Base module, t 10 Emergency rescue module, t 8.2 Total, t 18.2 5

SPACE TRANSPORT SYSTEM Landing platform is intended to deliver lunar base components from lunar circular orbit to lunar surface (configuration for unmanned missions) and to deliver lunar cab (configuration for manned missions) ensuring their soft landing. Propulsion system, t 0.3 Control, measurement, power supply, navigation, communication, thermal control, landing systems, t 0.4 Structure, t 0.7 Configuration for manned missions Configuration for unmanned missions Propellant, t 8.6 Total, t 10 Propulsion system, t 0.2 Control, measurement, power supply, navigation, communication, thermal control, landing systems, t 0.5 Structure, t 0.2 Propellant, t 5 Total, t 5.9 6

LUNAR MODULES TYPE DESIGN When creating the Lunar Base, it is planned to use sealed cylindrical modules of two basic types: vertical and horizontal. The basic type module design is meant to be load-bearing structure of cylindrical type with type internal volume. of Type Module Horizontal orientation Mass, t 2.9 Length, m 6 Diameter, m 3 Vertical orientation Mass, t 4.8 Height, m 6 Diameter, m 5 Modules are equipped with protection from micro meteorites Damage monitoring and breakage registration system Scenario of lunar expedition crew exposure to space radiation conditions SCR solar cosmic rays GCR galactic cosmic rays Accommodation module is equipped with additional anti-radiation protection. It is used by crew as shelter in case of solar burst. 7

LUNAR BASE MODULES Airlock module serves for communication of Lunar Base internal rooms to lunar surface ensuring passage of personnel and transfer of different cargos (equipment). Special spacesuit One of the main elements of entire Lunar Base equipment is spacesuit for walking out and operation on lunar surface. The spacesuit is an integral part of airlock module purpose designed equipment. 8

LUNAR BASE MODULES Accommodation module is intended to provide for leisure activity, rest, and to satisfy required everyday sanitation needs of crew members. Interaction of life support system, autonomous power plant, and thermal control system Vivarium module is intended for gradual transfer of Lunar Base to self-provision with own resources in respect of life support systems. 9

LUNAR BASE MODULES Production-and repair module module for crew to perform repair operations and maintenance of lunar equipment. Command module of vertical orientation module to control operation of all other modules and communication with the Earth. On the first floor, the crew s community room is located, on the second floor workplaces. Besides, on the basis of type lunar module design, the following has been developed: storage module; research-and-experimental module 10

LUNAR VEHICLES Lunar vehicle consists of one and more base modules which ensure vehicle s required carrying capacity depending on number of modules. Vehicle s design provides for its equipping with attached implements. Scientific research rover is intended to support research expeditions on lunar surface by crew of 2-4 persons with cruising range of up to 500 km. General view of base vehicle Wheel arrangem ent Unladen mass, t Total mass, t Carrying capacity, t Swivel wheels 3х2 1.2 3.2 2 Front axle Total mass, kg up to 8000 Research equipment mass, kg up to 1000 4х4 2 6 4 Front axle Wheel arrangement 6х6 6х6 3 9.6 (8.4) 6.6 (5.4) 8х8 4 12 (9.6) 8 (5.6) 10х10 5 15.6 (13) 10.6 (7) Front axle (front and rear axles) Front and rear axles ( all axles) Front and rear axles ( all axles) Electric power supply system power, kw up to 27 Average velocity, km/hr up to 20 Roadway slope angle (design), deg 25 Period of one mission conditioned by LSS, days 14-7 11

LUNAR ORBITAL SC Remote Sensing Spacecraft SC with radar payload SC with optical payload Total mass, kg ~ 600 Payload mass, kg ~ 160 Circular orbit parameters: Total mass Payload mass Circular orbit parameters: ~ 600 kg ~ 200 kg altitude, km 250 ± 4 km Inclination, deg 90 ± 0.3 altitude 100 ± 4 km inclination 90 ± 0.03 Active lifetime minimum 2 years Communication Spacecraft Active lifetime minimum 2 years Navigation Spacecraft Total mass, kg ~400 Payload mass, kg ~65 Circular orbit parameters: altitude, km ~1000 inclination, deg ~70 Active lifetime, years minimum 2 Total mass, kg ~ 345 Payload mass, kg ~ 65 Circular orbit parameters: altitude, km ~5500 inclination, deg ~70 Active lifetime, years minimum 2 12

POWER PLANT Solar Power Plant is intended to provide Lunar Base with electric power. It is a source of energy generated due to direct conversion of solar energy. SPP Parameters Power plant output power, kw: type mode (lunar day ); standby mode (lunar night ); adaptive mode (lunar sunsets and dawns ) Solar arrays (oriented to the Sun) : area, m 2 ; mass, kg Mass of electrochemical generator including mass of fuel (60 kg hydrogen and 540 kg oxygen) to generate 1 kw/hr, kg 10 1-2 1-10 100 480 2000 Mass of chemical batteries (reserve electric power source), kg 820 SPP total mass, kg 4110 13

LUNAR BASE INTERNATIONAL COOPERATION towards common global goal contributing to mitigation of conflicts on the Earth and establishment of piece. COORDINATED STRATEGY will help the nations having minor scope of work in space projects to participate in global projects which will allow maximizing return on their investments. KEY TO REDUCING COSTS OF INTERPLANETARY EXPEDITIONS. PLATFORM FOR DEVELOPMENT TESTING OF SPACE HARDWARE AND TECHNOLOGIES. IMPETUS FOR DEVELOPMENT OF NEW TECHNOLOGIES main mover of present-day world economies. 14

CONTACT DETAILS 3, Kryvorizka Street Dnipro, 49008, UKRAINE Phone: +380 56 792 49 79 Fax: +380 56 790 01 20 E-mail: info@yuzhnoye.com Website: www.yuzhnoye.com 15