THE NEWEST HUNGARIAN COSMIC RADIATION MEASUREMENT RESULTS IN THE STRATOSPHERE USING STRATOSPHERIC BALLOONS AND SOUNDING ROCKETS

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THE NEWEST HUNGARIAN COSMIC RADIATION MEASUREMENT RESULTS IN THE STRATOSPHERE USING STRATOSPHERIC BALLOONS AND SOUNDING ROCKETS Balázs Zábori Centre for Energy Research, Hungarian Academy of Sciences zabori.balazs@energia.mta.hu United Nations Meeting Wien, Austria 17.02.2016.

Cosmic ray research in Hungary, in the Centre for Energy Research

Hungarian measurement systems» Pille» TRITEL» Track detectors Historical background of cosmic ray research in Hungary Measurements on board» Salyut-6, -7» Mir Space Station» Space Shuttle (NASA)» ISS Columbus (ESA)» ISS Russian Segment» Satellite missions B. Farkas Hungarian astronaut with the Pille Sally Ride NASA astronaut with the Pille The International Space Station The Mir Space Station 3/22

Recent cosmic ray research missions 2016- Planned Satellite Experiments ~ 600 km, polar orbit advanced silicon detector 2012-2013 ISS Experiments ~ 350-400 km TRITEL silicon detector Columbus module Russian Segment 2015 Sounding Rocket Experiment 88 km apogee Geiger-Müller (GM) counters 2011-2012 Stratospheric Balloon Experiments ~30 km floating altitude TRITEL silicon detector GM counters Passive detectors Source : http://www.nasa.gov 4/22

Source : http://www.nasa.gov Space weather research in the stratosphere

Space weather general overview Space weather research is a key issue nowadays» solar-terrestial environmental conditions influencing the Solar System» the main source is the Sun with an overall 11-year cycling behaviour» several interconnecting physical mechanism: - solar activity and solar cosmic radiation, megnetosphere, atmosphere, galactic cosmic radiation» the main indicators of the space weather are the cosmic radiation and the magnetospheric conditions» the cosmic radiation environment influencing the human spaceflight future plans and capabilities (such as human Mars expedition) Space weather influences on Earth» space weather can influence our daily life mainly through our technology dependence» space weather and Earth climate connections are not fully understood: - space weather climate influencing capability can be significant since the main energy source of every climate process on Earth is the Sun 6/22

Space weather research in the stratosphere Cosmic ray research in the stratosphere» the space age and the technology based civilisation opened the gateway to the new frontiers» direct space weather effect to our daily life: technology and climate» dynamic radiation environment (influenced by the magnetosphere, atmosphere, solar activity)» needs to better understand for reliable future forecast possibilities Secondary particle production in the stratosphere (McAulay et al., 1996) 7/22

Source : http://www.nasa.gov Recent years cosmic ray research results in the stratosphere connections with the space weather

Stratospheric balloon flights BEXUS launch at ESRANGE Space Center Source: SSC BEXUS balloon system Floating altitude range Mission time Nominal vertical velocity Maximum load weight 25-30 km 4 8 hours 5 m/s ~ 200 kg 9/22

Experiment instrumentation on balloons What we have already TRITEL 3-dimensional silicon detector telescope system Pille TL crystal bulb Solid State TL Dosimetry System Solid State Nuclear Track Detector 10/22

Experiment design on balloons Experiment 3D design model Experiment in reality 11/22

Highlighted key scientific results from the balloon flights Measured absorbed dose rates in water by TRITEL as a function of the altitude. The dose rate caused by the cosmic radiation at around 25 km is almost the same what can be expected at the ISS. The dose rate caused by the cosmic radiation at the altitude range of the aircrafts is thirty times higher than on the ground. 12/22

Highlighted key scientific results from the balloon flights 21.5 ± 0.3 km 22.4 ± 0.3 km Measured radiation profiles using ZP1210 type GMtubes. 13/22

Sounding rocket flight Improved Orion rocket (REXUS system configuration) Source: SSC REXUS-17 sounding rocket before the launch 14/22

Experiment instrumentation on the rocket GM-tube type ZP1200 ZP1210 Supplier Centronic Centronic Number of GM-tubes 2 4 Sensitive cross-area (cm 2 ) ~ 6 32 Gamma dose rate (mgy/h) 10-3 10 2 3x10-4 10 1 Operating voltage (V) 500 500 Photon sensitivity ratio (ZP1200/ZP1210) 0.25 GM tube internal structure in general 15/22

Experiment design on rocket Experiment design and location on-board the rocket 16/22

Experiment design on rocket Experiment design and the launch Source: SSC 17/22

Highlighted key scientific results from the rocket flight ~ 60 s -1 ~ 43 s -1 23.6 ± 1.0 km 18/22

Highlighted key scientific results from the rocket flight ~ 23 km ~ 45-50 km 25 km 19/22

Summary, future outlook

Looking into the future Space weather research in the Near-Earth region» space weather significantly can influence our daily life» we have to understand the effects of the space weather in the Near-Earth Region to provide reliable forecast in case of any kind of solar events» the cosmic radiation environment and the magnetic field of the Earth has to be measured in more detail from the ground up to the lower orbiting spacecraft s altitudes or even more» our recent experiments in the stratosphere have been shown that the bahaviour of the radiation field is not well studied and need to be understand in more detail» we are developing in the next few years an advanced, silicon detector based cosmic radiation and magnetic field measurement experiment for future missions to study the effects of the space weather REXUS 17 rocket before the launch

Picture from an altitude of about 25 km. Thank you for your attention! Contact: zabori.balazs@energia.mta.hu