Major fragmentation of Atlas 5 Centaur upper stage B (SSN #40209)

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Transcription:

Major fragmentation of Atlas 5 Centaur upper stage 2014 055B (SSN #40209) Vladimir Agapov IAA Space Debris Committee meeting Bremen, 29 Sep 2018

Outline Atlas 5 Centaur overview 30 Aug 2018 anomaly in orbital motion of the Centaur (2014 055B) Detection of new debris and their association with the 2014 055B Characterization of detected debris associated with the fragmentation of the 2014 055B Conclusion 2

Atlas 5 Centaur 2014-055B Launch on Sep 17, 2014 0010 UTC to place CLIO (USA 257) satellite in GTO, the launch declared as successful Atlas V (AV 049) in configuration V401 was used No official orbital information for Centaur upper stage was provided to the date at SpaceTrack Centaur with a single RL-10A-4-2 engine Length 12.68 m Diameter 3.05 m Dry mass 2243 kg 3

2014-055B routine observations Performed by telescopes of ASPOS OKP, Astronomical Scientific Center and ISON on a regular basis (nearly every night) in a follow up mode Last observation prior to the detection of an anomaly in orbital motion Aug 30 at 2020 UT OD fit span which included the last observation was equal to 59.8 days, 950 measured positions from 31 telescopes were used for the OD Orbital parameters derived from the OD (J2000 frame, WGS84 ellipsoid): nodal period 779.91 min inclination 22.24 RAAN 47.836 argument of perigee 54.637 apogee 35180.7 km perigee 8202.7 km 4

2014-055B orbital motion anomaly detection First observation that lead to the detection an anomaly in orbital motion Aug 30 at 2346 UT (i.e. 3 hours 26 min after the prior observation) Large residuals of new measurements with respect to the propagated orbit from the last OD revealed: 392 arcsec along track (equivalent to 14.2 sec of time) compare to expected 0.3 arcsec calculated from the last OD covariance 221 arcsec cross track Additional observations were used to determine new orbit and estimate time when anomaly in the orbital motion have occurred 5

2014-055B orbital motion anomaly assessment Following estimations obtained for the equivalent impulse: Time: Aug 30, 2018 at 22:03:49 UT Place: latitude 8.504 E, longitude 22.189 S, altitude 29017 km dv: 9.3 m/s with components dvr +5.7 m/s, dvt 6.1 m/s, dvz 4.0 m/s Following estimations obtained for orbital parameters changes: Semimajor axis: 89.93 km Inclination: 0.0002 (due to argument of latitude was equal 270.3 deg!) RAAN: +0.231 Argument of perigee: +0.174 Apogee radius: 100.8 km Perigee radius: 71.9 km 6

Search for possible fragments of 2014-055B Numerous bright (of 15 th magnitude or brighter) fragments were detected on tracks similar to the 2014 055B during the routine observations of Centaur at 2346 UTC on Aug 30, 2018 Dedicated search scenario was developed immediately Two dozens of new debris like objects were detected on the pass at 0118 0121 UTC on Aug 31 Starting Aug 31 dedicated surveys were performed by different sensors 7

Detected debris of fragmentation of 2014-055B As of Sep 25, 2018 there were 440 fragments with well established orbits in the ASPOS OKP database 51 additional fragments in the analyst category requires additional observations to be collected in order to declare their orbits as well established All determined trajectories propagated back to the estimated event time interval If to define GTO as a class of orbits having T 300 min, ecc 0.25 and incl 35 then 491 detected fragments of 2014 055B will correspond to 25% instantaneous increase of population of objects tracked at GTO! 8

Characterization of the 2014-055B fragments 262 of 491 the identified fragmentation debris have average area tomass ratio less or equal to 1 sq.m/kg, all others more than 1 sq.m/kg (largest value is 69 sq.m/kg) Standard magnitude (observed visual magnitude adjusted to 40000 km range and 0 deg phase angle for the diffuse sphere model) is dispersed between 12.3 and 19.3 Surprisingly there are many quite large objects 36 with average reflecting surface area more than 1 sq.m and 135 with estimated mass of more 1 kg (diffuse sphere model and albedo 0.15 assumed) 9

Standard magnitude distribution for identified fragments of the 2014-055B 10

Area-to-mass distribution for identified fragments of 2014-055B 11

Characterization of the 2014-055B fragments Orbital period of the identified debris dispersed between 700 and 1047 min Inclination at the moment of fragmentation was dispersed between 22.23 and 22.37 deg (due to argument of latitude at the moment of fragmentation was equal to 270.3!) RAAN at the moment of fragmentation was dispersed between 37 and 62 deg 12

Gabbard diagram based on orbits propagated at 22:03:49 UT on Aug 30, 2018 13

dv distribution (in-track cross-track) 14

dv distribution (radial cross-track) 15

dv distribution (radial in-track) 16

Evolution of the fragmentation cloud (projected for 48 hours with the 0.1 days step) 17

Conclusion Centaur 2014 055B in GTO have experienced major fragmentation on Aug 30, 2018 This is the first known fragmentation of the Atlas V Centaur upper stages 491 fragmentation debris were detected and tracked > 25% increase of population of tracked objects in GTO! Majority of discovered debris are quite faint and pretty fast simultaneously therefore larger aperture telescopes (preferably 0.5 0.7 m and more) are required for their regular observation and detection/follow up of new objects associated with this event Identified debris of the fragmentation dispersed in HEO orbits with perigees altitudes in range 5270 17850 km and apogee heights in range 32825 43240 km thus crossing operational altitudes of all GNSS (will start crossing GEO operational altitude within 2 years) The event requires more detailed study (space debris models reviewing, associated collision risks assessment etc.) > topic for special attention of the IADC? 18

Thank you for your attention! 19