How To Understand The History Of Space Exploration



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Modeling the Space Debris Environment with MASTER-2009 and ORDEM2010 Flegel S., Gelhaus J., Wiedemann C., Möckel M., Vörsmann P. (1) Krisko P., Xu Y.-L., Horstman M.F., Opiela J.N. (2), Matney M. (3), Krag H., Klinkrad H. (4) (1) Institute of Aerospace Systems, TU-Braunschweig, Braunschweig, Germany (2) ESCG, NASA Orbital Debris Program Office, Houston, TX, USA (3) NASA Orbital Debris Program Office, Houston, TX, USA (4) Space Debris Office, ESA/ESOC, Darmstadt, Germany

Outline ESA MASTER-2009 Population Generation (Meteoroid and Space Debris Terrestrial Environment Reference) NASA ORDEM2010 Population Generation (Orbital Debris Engineering Model) (Software Feature Comparison) 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 2

MASTER-2009 Population Generation Process Object Data Acquisition & Processing Data for tracked objects is collected from multiple sources & brought into unified format Object Data Acquisition & Processing Simulation & Data Fusion All debris sources are simulated Simulation results are fused with data for tracked objects Simulation & Data Fusion Population Validation Large objects > ~10 cm: comparison of real and simulated measurement campaigns (PROOF) Small objects < ~1 mm: comparison of real and simulated impact craters (MASTER) Population Validation Final Population 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 3

MASTER-2009 Object Data Acquisition & Processing Acquisition of object bulk: Input: Two-Line Elements (USSTRATCOM) Acquired data: single mean orbit parameters Output: Quarterly orbit snapshots between 1957 and 2009 Additional objects: Input: Satellite Catalog (Jonathan McDowell) Acquired data: Objects not included with TLE data Output: Extended quarterly orbit snapshots Object properties: Input: Database and Information System Characterising Objects in Space (ESA: DISCOS) & Satellite Situation Report (USSTRATCOM) Acquired data: Object size, mass and mass-to-area ratio Output: Quarterly population snapshots subdivided into fragments & launchand mission related objects (payloads, rocket bodies and mission debris) 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 4

MASTER-2009 Simulation & Data Fusion POEM (Program for Orbital Debris Environment Modeling) Compendium of individual debris models for each source List based debris sources: Individual events are simulated List data includes e.g.: event epoch, orbit location, event magnitude Continuous debris sources: All LMRO are analysed wrt. paint flakes, delaminated MLI and ejecta which they would have produced Validation 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 5

MASTER-2009 Large Object Validation Detection campaigns offer information on the number of objects, RCS or magnitude and orbit properties PROOF (ESA Program for Radar and Optical Observation Forecasting) applies filters for: geometry (e.g. field of view, viewing direction) performance (e.g. radar: wavelength, power; optical: CCD type, integration time) Validation of amount of debris Large object validation schematic Validation of orbit distribution Real population Simulated population Real Observation campaign Simulated Observation campaign Comparison 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 6

MASTER-2009 Small Object Validation Impact craters offer information on the impactor size/impact velocity, impact direction and total number of objects MASTER applies filters for e.g.: target orbit evolution/maneuvers rotation of target orbit line of apsides and line of nodes target surface orientation damage equations Small object validation schematic Simulating mission parameters Validation of impact fluence Real population Simulated population Real Impact craters Comparison Simulated Impact craters 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 7

ORDEM2010 The Orbital Debris Engineering Model, ORDEM2010, includes, High-fidelity population file structure of the yearly debris populations from 1995-2035 Sizes 10 µm - 1 m (LEO - GTO) ; sizes 10 cm - 1 m (GEO) Stable orbital elements (i.e., those that do not randomize on a sub-year timescale) LEO GTO Hp, Ecc, Inc ; GEO MM, ECC, Inc, RAAN Debris material density High-fidelity spacecraft analysis program compares the populations with a spacecraft-encompassing igloo to achieve a 3-D output of flux on the spacecraft Advanced graphical user interface (GUI) allows visualization of spacecraft flux in 2-D and 1-D Parameter ORDEM2010 Spacecraft and Telescope/Radar analysis modes YES Time range 1995 to 2035 Altitude range with minimum debris size 200 to 34,000 km (>10 µm)* ; 34,000 to 38,000 km (>10 cm) Model population breakdown Population material density breakdown Population cumulative size thresholds Population storage Population extension Model S/C flux analysis method Model T/R flux analysis method Intacts, Low-density fragments ; Medium-density fragments and degradation/ejecta ; High-density fragments and degradation/ejecta ; RORSAT NaK coolant droplets Low-density (<2 g/cc) ; Medium-density (2-6 g/cc) High-density (>6 g/cc) ; RORSAT NaK coolant (0.9 g/cc) 10 µm, 31.6 µm, 100 µm, 316 µm, 1 mm, 3.16 mm, 1 cm, 3.16 cm, 10 cm, 31.6 cm, 1 m LEO-to-GTO bins - Hp, Ecc, Inc, GEO bins - MM, Ecc, Inc, RAAN Bayesian statistics with ODPO models Igloo surrounding S/C Segments along line-of-sight 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 8

ORDEM2010 Population Generation Process Bayesian statistical approach to debris population analysis Ten additional years of data including, Catalog datasets SSN Statistical datasets Haystack, HAX radars Individual event datasets FY-1C anti-satellite test, Iridium 33/Cosmos 2251 from SSN radar observation NASA Orbital debris Program Office (ODPO) models used as prior conditions LEGEND 3-D debris long-term environment model replaces the 1-D EVOLVE NaK Module for RORSAT sodium potassium droplets Degradation/Ejecta (D/E) for sub-millimeter particles Model Usage Corroborative Data LEGEND LEO Fragments > 1mm ; GEO Fragments > 10cm Haystack, HAX, SSN ; MODEST NaKModule NaK droplets > 1 mm Haystack Degradation/ejecta model 1mm > Degradation/ejecta > 10µm STS windows & radiators 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 9

ORDEM2010 Population Validation (1) Large object (>1mm) validation is ongoing. Small object (<1mm) validation A degradation/ejecta source model is constructed to provide the desired reference populations for the micro-debris population derivations. Catalog (>10 cm) objects are taken as parent bodies of the small micron-sized particles. Number of micro-debris objects created by a surface degradation process is proportional to the surface area of a parent body. Micro-debris objects created in a surface degradation process share the same orbit with its parent body at the creation time. Every orbit of the degradation/ejecta particles is propagated independently under the influence of solar radiation pressure and atmospheric drag, in addition to gravitational perturbations. The production rates of micro-debris are honed to be compatible with data. 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 10

ORDEM2010 Population Validation (2) Window and radiator impact data from 38 STS missions. Window data is identified by the metric crater depth, radiator data by metric tape-hole diameter. Impactor are identified by material density when available. MD = medium density (aluminum, paint). HD = high density (steel) 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 11

ORDEM2010 Population Validation (3) Degradation/ejecta model medium density population is adjusted to both window data and radiator data simultaneously. Detailed presentation, Simulation of Micron-Sized Debris Populations in Low Earth Orbit will be given later at this conference, by Dr. Yu-Lin Xu. 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 12

ORDEM2010 Spacecraft Analysis Program ORDEM2010 spacecraft encounters debris flux via a spacecraft-encompassing 3-D igloo Population flux is tested for each igloo element in an igloo coordinate system of debris size, velocity, azimuth, and elevation with respect to spacecraft ram direction Flux is summed within an element, all element fluxes are summed together for the total yearly spacecraft encounter Highest fidelity igloo presently in ORDEM2010 is 10 ⁰ x10 ⁰ x1km/s (Az x EL x Vel) equal-area spacecraft-encompassing igloo 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 13

ORDEM2010 Graphical User Interface (GUI) This directional debris flux calculation is supported by an updated graphical user interface (GUI) package designed for ORDEM2010 that includes a 2-D directional flux chart (a.k.a. Mollweide projection, pseudo-cylindrical equal-area map projection used for global or sky maps) Spacecraft velocity vector (ram direction) is defined by the azimuth, elevation coordinates (0 ⁰,0 ⁰ ) Anti-ram is defined where (180 ⁰,0 ⁰ ) and (-180 ⁰,0 ⁰ ) meet Zenith is defined at (0 ⁰,90 ⁰ ), and nadir at (0 ⁰,-90 ⁰ ). equal-area spacecraft-encompassing igloo 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 14

ORDEM2010 GUI Example ISS ORDEM2010 GUI Outputs for Debris larger than 10 µm (Inc=51.63 ⁰, Hp=Ha= 400 km, yr=2010) 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 15

Summary Spacecraft analysis using ORDEM2010 uses a high-fidelity population model to compute risk to on-orbit assets The ORDEM2010 GUI allows visualization of spacecraft flux in 2-D and 1-D The population was produced using a Bayesian statistical approach with measured and modeled environment data Validation of sizes < 1mm were performed using Shuttle window and radiator impact measurements Validation of sizes > 1mm is on-going 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 16

Summary Backup Slide 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 17

MASTER-2009 Population Generation Process Simulated Campaign Population POEM User Interface FLUX BROWSER Validation of LARGE Objects TLE Validation of small objects Deterministic Probabilistic PROOF PROBDENS 19 July 2010 Referent Kurztitel der Präsentation (bitte über die Kopf- und Fußzeile einfügen) Slide 18