METNET Mission for Mars. MetNet. Atmospheric science network for Mars

Similar documents
CONVENTIONAL ROCKET PROPULSION NON-CONVENTIONAL PROPULSION SOLAR SAILS TETHERS ELECTRIC SAILS

Preliminary Cost Analysis MARYLAND. Cost Sources Vehicle-level Costing Heuristics Applications Learning Curves Program-Level Analysis

CubeSat Balloon Drag Devices: Meeting the 25-Year De-Orbit Requirement

Robotic On-Orbit Satellite Servicing: One Size Does Not Fit All

The Mars Science Laboratory Flight Software A Platform for Science and Mobility

Loads, Structures, and Mechanisms. Team C5 Matthew Marcus Chris O'Hare Alex Slafkosky Scott Wingate

Flight Testing of a Low Cost De-Orbiting Device for Small Satellites

Assessing Compliance with United States Government Orbital Debris Mitigation Guidelines

IAC-06-D4.1.2 CORRELATIONS BETWEEN CEV AND PLANETARY SURFACE SYSTEMS ARCHITECTURE PLANNING Larry Bell

First Experimental investigations on Wheel- Walking for improving Triple-Bogie rover locomotion performances

Solar Sails for Exploration of the Interstellar Medium January 2015

Call for Ideas for Balloon Experiments within the HEMERA project

College of Engineering

NanoRacks/Quad-M Rideshare Overview. Michael D. Johnson 10/12/2016

ESAIL D45.1 Final Report of Remote Unit Gas Thruster

Cansat 2016 Environmental Testing Requirements

Venus Aerial Pla<orm Technology

Proof of concept of a Bio-Containment System for Mars Sample Return Mission

Test Flights of the Revised ULDB Design

RocketSat V: AirCore. 4/18/09 Symposium Jessica (JB) Brown Mackenzie Miller Emily Logan Steven Ramm. Colorado Space Grant Consortium RocketSat V 1

Status report on the current and future satellite systems by CMA. Presented to CGMS45-CMA-WP-01, Plenary session, agenda item D.1

2017 LOCKHEED MARTIN CORPORATION. ALL RIGHTS RESERVED

Next Generation Life Support (NGLS): Variable Oxygen Regulator Element

CHAPTER 1 INTRODUCTION

Crew Systems Project ENAE 483 Fall Team A2: Douglas Astler Stephanie Bilyk Kevin Lee Grant McLaughlin Rajesh Yalamanchili

Flight Systems Verification & Validation Mars 2020 Entry, Descent, and Landing

HUMOR 20. High-precision Humidity Calibrator HUMOR 20. Operation

USA Space Debris Environment, Operations, and Policy Updates

Crew Systems Design Project Group A8. Chrissy Doeren Kip Hart Kiran Patel Alex Slafkosky

Load Responsive Multilayer Insulation Performance Testing

INSTRUCTIONS TO CANDIDATES This insert contains the article required to answer the questions in Section C.

Planetary Balloon Missions Revisited

Agilent 1220 Infinity II LC Mobile Upgrade Kit

Entry Descent and Landing Tools

Igniting Solutions for a Safer Future

5.0 Neutral Buoyancy Test

The Wave Glider: A Mobile Buoy Concept for Ocean Science. 009 Liquid Robotics Inc.

Flow in a shock tube

Altair Constellation Returns Humans to the Moon

Roger D. Launius National Air and Space Museum Smithsonian Institution Washington, D.C.

Presentation Contents

The Quarter Pounder A Vehicle to Launch Quarter Pound Payloads to Low Earth Orbit

How well do CMIP5 climate models reproduce Southern Ocean bottom temperature? Model climatology

PyroCouple Series Operators Guide

From Sail to Soil Getting Sailcraft Out of the Harbour on a Visit to One of Earth s Nearest Neighbours

Adaptation and Optimization of the RIT-µX miniaturized Ion Propulsion System for Small Satellites

Acoustic Emission Testing of The Shell 0f Electromagnetic Valve

Up Up and Away on Beautiful Balloons: Scaling up from Party Favors to Scientific Payloads

SIMULATION OF ENVIRONMENTAL FLIGHT CONDITIONS

Pressure Measurement Single-range transmitters for general applications

Feasibility of Developing a Refrigerant-Based Propulsion System for Small Spacecraft

Team Members. Surrey Space Centre (SSC): Study lead, payloads, ADCS (with Prof. Bong Wie), SK platform, sail technologies

BACKGROUND TO STUDY CASE

SPIRIT III Radiometer Saturation Effect

Orbiter* Architecting Software Across International Partnerships. Jason LaPointe December 10 th, 2010

SUBSONIC PARACHUTES FOR FUTURE MARS MISSIONS

A Low Power Approach to Small Satellite Propulsion

Satellite Observations of Equatorial Planetary Boundary Layer Wind Shear

Canadian Advanced Nanospace experiment 7 (CanX-7) Mission Analysis, Payload Design and Testing. Barbara Shmuel

(a) Calculate the speed of the sphere as it passes through the lowest point of its path.

E. MENDOZA, C. KEMPEN, Y. ESTERKIN, S. SUN, K. SUSKO and J. GOGLIA

1. Determine his speed when he reaches the photo radar car.

PL&HA Precision Landing and Hazard Avoidance

Figure 1 Schematic of opposing air bearing concept

WARM GAS PROPULSION FOR SMALL SATELLITES. J. R. French Propulsion Development Associates, Inc. ~1AlN HOUSING CATALY5THOUSP.\G C AT.

LAUNCH IT. DESIGN CHALLENGE Design and build an air-powered rocket that can hit a target at least 5 feet away.

Profile LFR-43 HELENA ITALY. Italian National Agency for New Technologies, Energy and Sustainable Economic Development, C.R. ENEA Brasimone, Italy

EMISSION CHAMBERS. Bulk and Surface Emission Detection for the RAD7 User Manual

Weather Balloons and Accessories

The Air-Sea Interaction. Masanori Konda Kyoto University

CHAPTER 10 SATELLITE DESIGN REQUIREMENTS

IDL01. Battery Powered Precision Digital Gauge for Leak Testing. Stainless Steel Sensor. class 0.05

PTB Ex PT Scheme. Procedure Instruction of program Explosion Pressure - Test Round 2017

Studies of Polar Caps by HEND

Chapter 13 Fluids. Copyright 2009 Pearson Education, Inc.

Technical Data Sheet TI-F50 Locking Units series KFH

Fluids. James H Dann, Ph.D. Say Thanks to the Authors Click (No sign in required)

Figure 1. The distance the train travels between A and B is not the same as the displacement of the train.

Development of the Deep Argo Program

Artificial Intelligence for the EChO Mission Scheduler

PHYSICS. Mr Rishi Gopie HYDROSTATICS

High Ping Rate Profile Water Mode 12

Training for Proofmaster M/S/Automat. Functional principle for airtightness testing

Current mooring observations in the area of the South Kuril Islands

Objective: To launch a soda bottle rocket, achieve maximum time of flight, and safely land a payload (tennis ball).

Avionics System Project. Team D3 Dylan Carter, Jesse Cummings, Kenneth Murphy, Rajesh Yalamanchili

Active Propellant Management

Temperature, salinity, density, and the oceanic pressure field

RECTIFICATION OF THE MADDEN-JULIAN OSCILLATION INTO THE ENSO CYCLE

Wind-Induced Oscillations Parametric Wind Tunnel Test

Tropical temperature variance and wave-mean flow interactions derived from GPS radio occultation data

CANSAT IRELAND COMPETITION 2018

1 Overview. Pressure Measurement Single-range transmitters for general applications. 1/22 Siemens FI US Edition

FUEL CELL DIVER PROPULSION VEHICLE

1 THE TEST FACILITY DISCO-C

Abrupt marine boundary layer changes revealed by airborne in situ and lidar measurements

Windar Photonics Wind Sensor. Great at Control

HUMOR 20 HUMOR 20. High-precision Humidity Calibrator. Water T, p1

Vestas Cold Climate Solutions and next stepsclimate Offerings

Local Winds. Please read Ahrens Chapter 10

Transcription:

MetNet Atmospheric science network for Mars A.-M. Harri (1), R. Pellinen (1), V. Linkin (2), K. Pichkadze (3), M. Uspensky (1), T. Siili (1), A. Lipatov (2), H. Savijärvi (4), V. Vorontsov (3), J.Semenov (4) (1), Helsinki, Finland (2) Russian Space Research, Moscow, Russia (3) Babakin Space center, Moscow, Russia (4) University of Helsinki, Finland A.-M Harri et et al., al., Sputnik 50-year Jubilee, M oscow, Oct-2007 Page 1 // 38 38

Mission Concept MetNet microlanders A.-M Harri et et al., al., Sputnik 50-year Jubilee, M oscow, Oct-2007 Page 2 // 38 38

Goal: wide-spread surface observations network around Mars to investigate atmospheric structure, physics, meteorology. Secondary goal: Landing safety Protype development performed in 2001-2004 Entry, descent and landing system qualified for Mars (2003-2005) Re-entry system will be tested for dynamical stability by a suborbital flight (2008) Precursor mission and a series of missions likely to start in 2011 and to extend over several subsequent launch windows. The METNET mission concept Successor of the Netlander Mission s atmospheric leg. Mission lead : FMI Systems lead : BSC Payload lead : FMI / Other collaborators will be invited to join the mission efforts A.-M Harri et et al., al., Sputnik 50-year Jubilee, M oscow, Oct-2007 Page 3 // 38 38

Additional IBD deployment Main IBD deployment Entry Braking by means of additional IBD Separation of main IBD Landing event Science mission on-surface operations Penetration A.-M Harri et et al., al., Sputnik 50-year Jubilee, M oscow, Oct-2007 Page 4 // 38 38

MetNet Scientific Objectives * Atmosphere Surface to Atmosphere interactions & the Planetary Boundary Layer (PBL) Atmospheric dynamics and circulation Cycles of CO 2, H 2 O and dust. Dust raising mechanisms A D C * The evolution of Martian climate subsolar latitude E Pressure (hpa) 10.0 9.5 9.0 8.5 8.0 7.5 7.0 0 400 800 1200 1600 Sols after VL-1 landing VL-1 VL-2 2000 Schematic of the major general circulation patterns occurring in the Martian atmosphere (adapted from Fig. 5 of Pollack, 1990a). A: (solstitial) Hadley circulation, B: baroclinic eddies, C: stationary eddies resulting from flow over topography, D: CO 2 sublimation flow, E: thermal tides (the Kelvin or normal modes not incl) A.-M Harri et et al., al., Sputnik 50-year Jubilee, M oscow, Oct-2007 Page 5 // 38 38

Landing site candidates A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 6 // 38 38

Strawman payload Wind Sensor MET- Boom Descent phase instr. Package P, T, Acc Surface phase instruments: Pancam Wind vel. Pressure Atm. temperature Soil temperature Humidity Optical depth Option for competitively selected payload exists Soil Probe Temperature, Humidity Thermocouples Humidity Imager & opt. sens. 100 cm A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 7 // 38 38

BACKGROUND TECHNOLOGIES: MARS-96 SPACECRAFT SMALL STATION Small station in launch configuration Surface module of the small sta tion Mass before entry 86 kg Surface module mass.31 kg Payload mass.. 11.5 kg Soft landing system. air bags Landing velocity...20 m/s Operation lifetime.1 year A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 8 // 38 38

BACKGROUND TECHNOLOGIES: MARS-96 SPACECRAFT PENETRATOR Inflatable braking device (IBD) Solid rocket motor IBD cover Instrumentation compartment Tail part Balloon drop test of the penetrator (penetrator with inflatable braking device) MARS-96 spacecraft Penetrator general view Penetrated part Mass before entry..110 kg Inflatable braking device (IBD) mass 29 kg Main IBD diameter. 2.3 m Additional IBD diameter 3.8 m Scientific package mass... 5 kg Impact velocity... 80 m/s Maximal g-load.. < 500 Depth of penetration.0.5-3 m Operation lifetime..1 year A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 9 // 38 38

Stowed configuration CHOSEN CONCEPT (5 candidates) Inflatable heat shield Inflatable aerobrake A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 10 10 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 11 11 // 38 38

MetNet Team & Test Prototype Inflatable aerobrake Penetrator body FMI Team inspecting MetNet prototype H/W in the BSC in Moscow A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 12 12 // 38 38

Equipment module, 4 kg (P/L 2.5 kg) P/L Bay A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 13 13 // 38 38

Mass Budget System: kg kg Entry, Descent and 7,9 Landing System Lander body 4,9 Equipment module 4 Landing module 8,9 Total Entry Mass 16,8 A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 14 14 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 15 15 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 16 16 // 38 38

Thermal protection system tests A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 17 17 // 38 38

Inflatable heat shield tested using Volna launcher for suborbital flight A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 18 18 // 38 38

MetNets piggy-backed with the Phobos Sample Return Mission Subjects of research: Laboratory examination of Fobos substance, delivered to Earth; Research of Fobos and monitoring of Mars from landing module; Research of Fobos and its surrounding space from orbital module. MAIN FACTS: Launch Vehicle (LV)...Soyuz-2/1b Launch site...baikonur Cosmodrome Launch date....october, 2009 Interplanetary Earth Mars cruise time.....10 11.5 months Launch from Phobos..July August, 2011 Interplanetary Mars Earth cruise time...10.5 11.5 months Return to Earth.....June July, 2012 Mission total time... ~ 33-34 months SC mass....8120 kg Scientific equipment mass..50 kg Phobos soil samples mass.....0.2 kg A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 19 19 // 38 38

Low Cost Mars Mission A single MetNet µ-lander could be sent to Mars using SLBM LV Acceleration from LEO by electric propulsion engine (used for more than decade) Small interplanetary cruise stage (heritage from earlier missions) Low cost Requires communications satellite around Mars (MEX, NASAs orbiters, special comsat) MetNet µ -lander SLBM launch vehicle Volna IP-cruising stage A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 20 20 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 21 21 // 38 38

Kosmos 3M launcher A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 22 22 // 38 38

Payload Prototyping Performed With Flight Dimensions A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 23 23 // 38 38

Equipment module, 4 kg (P/L 2.5 kg) P/L Bay A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 24 24 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 25 25 // 38 38

LIDAR Proto A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 26 26 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 27 27 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 28 28 // 38 38

T.C. / s HUMIDITY TIME LAG OF H-HUMICAP 1000 100 10 THIN 1 POLYMER MORE POROSITY 0.1 BASIC VERSION -60-10 40 T E M P E R A T U R E / C A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 29 29 // 38 38

Dust filter 0.22 µm PTFE membrane Mounting bracket Faraday shield Humicap humidity sensors Transducer circuitry FR4 PCB Flight configuration. EQM- and VM- models will be manufactured in Oct. -06 Dimensions 35 mm x Ø16, mass ~15 g A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 30 30 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 31 31 // 38 38

Flight test A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 32 32 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 33 33 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 34 34 // 38 38

Two MetNet Probes Fabricated to Flight Spec (w/o flight payload) A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 35 35 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 36 36 // 38 38

A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 37 37 // 38 38

IP-cruising stage MetNet µ -lander SLBM launch vehicle Volna A.-M Harri et et al., Sputnik 50-year Jubilee, Moscow, Oct-2007 Page 38 38 // 38 38