Interstellar shocks:! The contribution of SOFIA/GREAT!

Similar documents
Far-IR cooling in massive star-forming regions: a case study of G

arxiv: v1 [astro-ph.ga] 23 Mar 2015

SOFIA observations of far-infrared hydroxyl emission toward classical ultracompact HII/OH maser regions

arxiv: v1 [astro-ph.ga] 30 Nov 2015

The Effect of FUV Radiation and Grain Surface Chemistry on Hydride Emission from Dense Shocks

The Interstellar Medium

arxiv: v2 [astro-ph.ga] 24 Aug 2016

The Excited and Exciting ISM in Galaxies: PDRs, XDRs and Shocks as Probes and Triggers

Sounding the diffuse ISM with Herschel/HIFI

MOLECULES IN THE CIRCUMNUCLEAR DISK OF THE GALACTIC CENTER

Sunbathing around low-mass protostars: new insights from hydrides

The Physics of the Interstellar Medium

Origin of the stellar Initial Mass Function (IMF) in the W43-MM1 ridge

Absorption spectroscopy with Herschel/HIFI and IRAM-PdBI : Promises for ALMA

The dynamics of photon-dominated regions (PDRs)

Frédérique Motte (AIM Paris-Saclay)

Interstellar Medium and Star Birth

Cosmic Rays in the Interstellar Medium. Nick Indriolo University of Illinois at Urbana- Champaign

The Unbearable Lightness of Chemistry

Maria Cunningham, UNSW. CO, CS or other molecules?

AGN-driven turbulence revealed by extreme [CII]158µm line cooling in radio-galaxies

C+ and Methylidyne CH+ Mapping with HIFI

Interstellar Medium and Plasmas (IMP; pole 2)

A shocking group! Turbulent dissipation and star formation in Stephan s Quintet

NEARBY GALAXIES AND ALMA

Water in the diffuse interstellar medium

Astrophysical Quantities

The O budget in lowmass protostars:

R. D. Gehrz a E. E. Becklin b, and Göran Sandell b

Astrochemistry the summary

Radio spectroscopy. Annoying question at a NSF Science and Technology Center Review

SOFIA/GREAT [CII] observations in nearby clouds near the lines of

Probing the embedded phase of star formation with JWST spectroscopy

Photodissociation Regions Radiative Transfer. Dr. Thomas G. Bisbas

Galaxy Ecosystems Adam Leroy (OSU), Eric Murphy (NRAO/IPAC) on behalf of ngvla Working Group 2

SOFIA follow-ups of high-mass clumps from the ATLASGAL galactic plane survey

New Observational Views on the Chemistry of Diffuse Interstellar Clouds

Galaxies of Many Colours: Star Formation Across Cosmic Time. z=0, t= /-0.037x10 9 years (Now)

Radio Continuum: Cosmic Rays & Magnetic Fields. Rainer Beck MPIfR Bonn

Challenges for the Study of Hot Cores with ALMA: NGC 6334I

Supernova Remnants and Cosmic. Rays

Probing the Chemistry of Luminous IR Galaxies

Detection of cyanopolyynes in the protostellar shock L1157-B1

Warm Molecular Hydrogen at high redshift with JWST

Midterm Results. The Milky Way in the Infrared. The Milk Way from Above (artist conception) 3/2/10

Lecture 18 - Photon Dominated Regions

Discovery of Terahertz Water Masers with SOFIA/GREAT

Gas 1: Molecular clouds

SCIENTIFIC CASES FOR RECEIVERS UNDER DEVELOPMENT (OR UNDER EVALUATION)

The formation of high-mass stars: new insights from Herschel, IRAM, and ALMA imaging

Galactic Observations of Terahertz C+ (GOT C+): CII Detection of Hidden H2 in the ISM

Interstellar Medium. Alain Abergel. IAS, Université Paris-Sud, Orsay Cedex, France

Gamma rays from supernova remnants in clumpy environments.! Stefano Gabici APC, Paris

HerCULES. Paul van der Werf. Leiden Observatory. Lorentz Centre February 28, 2012

Nearby Universe: Rapporteur

S-PASS and Giant Magnetised outflows from the Centre of the Milky Way

Diffuse Interstellar Medium

Understanding Submillimetre Galaxies: Lessons from Low Redshifts

The Superbubble Power Problem: Overview and Recent Developments. S. Oey

The FIR-Radio Correlation & Implications for GLAST Observations of Starburst Galaxies Eliot Quataert (UC Berkeley)

Massive Star Formation in the LMC Resolved at Clump Scales

Molecular properties of (U)LIRGs: CO, HCN, HNC and HCO +

Protostellar Jets in the ngvla Era

Astrochemical Models. Eric Herbst Departments of Chemistry and Astronomy University of Virginia

Chapter 11 The Formation and Structure of Stars

Published in: LOW-METALLICITY STAR FORMATION: FROM THE FIRST STARS TO DWARF GALAXIES

The Interstellar Medium in Galaxies: SOFIA Science

Today in Milky Way. Clicker on deductions about Milky Way s s stars. Why spiral arms? ASTR 1040 Accel Astro: Stars & Galaxies

Pulsar Wind Nebulae: A Multiwavelength Perspective

A Radio Jet Drives a Molecular & Atomic Gas Outflow in Multiple Regions within 1 kpc 2 of the Nucleus of IC5063

Astrofysikaliska Dynamiska Processer

Methyl Formate as a probe of temperature and structure of Orion-KL

The formation of super-stellar clusters

Possible Extra Credit Option

The Ṁass- loss of Red Supergiants

Magnetic field structure from Planck polarization observations of the diffuse Galactic ISM

Understanding the chemistry of AGB circumstellar envelopes through the study of IRC

Setting the stage for solar system formation

arxiv: v1 [astro-ph.co] 5 Oct 2010

arxiv: v1 [astro-ph.ga] 15 Sep 2014

EXCESS OF VHE COSMIC RAYS IN THE CENTRAL 100 PC OF THE MILKY WAY. Léa Jouvin, A. Lemière and R. Terrier

Physical Processes in Astrophysics

High energy radiation from molecular clouds (illuminated by a supernova remnant

Spatially resolved physical conditions of molecular gas: a zoom-in from circumnuclear region of M83 to Carina nebula

The influence of cosmic rays on the chemistry in Sagittarius B2(N)

arxiv: v1 [astro-ph.ga] 12 Nov 2013

Stellar evolution Part I of III Star formation

arxiv:astro-ph/ v1 15 Mar 2007

INITIAL CONDITIONS. Paola Caselli. School of Physics and Astronomy FACULTY OF MATHEMATICS & PHYSICAL SCIENCES. Protoplanetary disks

ACTIVE GALACTIC NUCLEI: FROM THE CENTRAL BLACK HOLE TO THE GALACTIC ENVIRONMENT

Chemical Diagnostics of Star Forming Regions

Astrophysics of Gaseous Nebulae

First detection of a THz water maser in NGC7538-IRS1

Lecture 23 Internal Structure of Molecular Clouds

Models of FUV Illuminated Shocks:

within entire molecular cloud complexes

Astr 2310 Thurs. March 23, 2017 Today s Topics

An Introduction to Radio Astronomy

On Today s s Radar. Reading and Events SECOND MID-TERM EXAM. ASTR 1040 Accel Astro: Stars & Galaxies. Another useful experience (we hope)

Radiative Processes in Astrophysics

Transcription:

1! Interstellar shocks:! The contribution of SOFIA/GREAT! Antoine Gusdorf,!!!!!! LERMA, Paris, France! Claudio Codella,!!!!!!!!!!INAF Firenze, Italy! Rolf Güsten,!!!!!!!!! MPIfR, Bonn, Germany! Sibylle Anderl,!!!!!!!!!! IPAG, Grenoble, France! Maryvonne Gerin,!!!!!!!!! LERMA, Paris, France! Bertrand Lefloch,!!!!!!!!! IPAG, Grenoble, France! Pierre Lesaffre,!!!!!!!!!! LERMA, Paris, France! Silvia Leurini,!!!!!!!!! MPIfR, Bonn, Germany! Alexandre Marcowith,!!!!!!! LUPM, Montpellier, France! Frédérique Motte,!!!!!!!!! IPAG, Grenoble, France! 25/11/15! 1! SOFIA community tele-talk series!

Outline! 2! The importance of shocks in the interstellar medium of galaxies! From low-mass star formation! To higher-mass star formation! Filaments and ridges! Supernova remnants! 25/11/15! 2! SOFIA community tele-talk series!

The importance of shocks in the ISM of galaxies! 3! BHR71! 0.1 pc! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 4! BHR71! 0.1 pc! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 5! BHR71! 0.1 pc! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 6! BHR71! 0.1 pc! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 7! BHR71! 0.1 pc! CO (3-2)! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 8! BHR71! 0.1 pc! CO (3-2)! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 9! BHR71! 0.1 pc! physical processes! chemical! enrichment! CO (3-2)! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

The importance of shocks in the ISM of galaxies! 10! BHR71! 0.1 pc! physical processes! chemical! enrichment! energetic impacts! star formation:!! scenarios!! triggered! cosmic rays! CO (3-2)! archive image! Spitzer/IRAC 8 "m! adapted from! Gusdorf et al. 2015!

11! From low-mass star formation! 25/11/15! 11! SOFIA community tele-talk series!

Low-mass star formation: the BHR71 example! 12! BHR71! CO (3-2)! CO (6-5)! SiO (5-4)! H 2! 0-0 S(5)!

Low-mass star formation: the BHR71 example! 13! BHR71! H 2 : Giannini et al. 2010! SiO : Gusdorf et al. 2011! CO : Gusdorf et al. 2015!

1D shock models! 14! n H = 10 4 cm -3 ; v s = 30 km/s! J shock (Jump) ;! B = 10 "G! v s > v critical! impulse heating ;! single fluid! pré-choc! post-choc!

1D shock models! 15! n H = 10 4 cm -3 ; v s = 30 km/s! J shock (Jump) ;! B = 10 "G! v s > v critical! impulse heating ;! single fluid! pré-choc! post-choc!

1D shock models! 16! n H = 10 4 cm -3 ; v s = 30 km/s! J shock (Jump) ;! B = 10 "G! v s > v critical! impulse heating ;! single fluid! C shock (Continuous) ;! B = 100 "G! pré-choc! post-choc! v s < v critical! ion-neutral friction ;! multi-fluid!

1D shock models! 17! n H = 10 4 cm -3 ; v s = 30 km/s! J shock (Jump) ;! B = 10 "G! v s > v critical! impulse heating ;! single fluid! C shock (Continuous) ;! B = 100 "G! pré-choc! post-choc! v s < v critical! ion-neutral friction ;! multi-fluid!

1D shock models! 18! n H = 10 4 cm -3! v s = 30 km/s! âge 2000 ans! CJ shock! pré-choc! post-choc!

Tracing the propagation of shocks: SiO emission! 19! pre-shock medium:! Si **! cores! SiO *! mantles!

Tracing the propagation of shocks: SiO emission! 20! pre-shock medium:! Si **! cores! SiO *! mantles! Grain charge! (Flower & Pineau des Forêts 2003)!

Tracing the propagation of shocks: SiO emission! 21! pre-shock medium:! Si **! cores! SiO *! mantles! Grain charge! (Flower & Pineau des Forêts 2003)! mantle sputtering (Flower & Pineau des Forêts 1994, semi-classical prescriptions) :! SiO * + (H, He, H 2 ) " SiO + (H, He, H 2 )! core erosion (May et al. 2000, Monte-Carlo simulations) :! Si ** + (He, C, N, O, H 2 O, N 2, CO, O 2 ) " Si + (He, C, N, O, H 2 O, N 2, CO, O 2 )!

Tracing the propagation of shocks: SiO emission! 22! pre-shock medium:! Si **! cores! SiO *! mantles! grain charge! core erosion! mantles sputtering! SiO formation in the gas phase, from grain-core silicium:! Si + O 2 " SiO + O! (Le Picard et al. 2001, CRESU experiment)! Si + OH " SiO + H! (Rivero-Santamaria, Dayou et al. 2014, quantum calculations)!

Tracing the propagation of shocks: SiO emission! 23! pre-shock medium:! Si **! cores! SiO *! mantles! grain charge! core erosion! mantles sputtering! gas phase formation! gas phase, chemical destruction of SiO:! SiO + OH " SiO 2 + H! (prescription E. Herbst)! adsorption (freeze-out) on to grains :! SiO + grain " SiO * + grain!

Tracing the propagation of shocks: SiO emission! 24! pre-shock medium:! grain charge! core erosion! mantles sputtering! gas phase formation! gas phase destruction! adsorption! Si **! cores! SiO *! mantles! level populations and transition emissivities calculations:!! statistical equilibrium equations!! Large Velocity Gradient (LVG) assumption!! collisional excitation rate coefficients of SiO by H 2, H, He! (calculated by Dayou & Balança 2006)!

Comparing observations with models! 25! H 2 observations! SiO observations! CO observations!

Comparing observations with models! 26! H 2 observations! SiO observations! CO observations! CJ model, n H = 10 4 cm -3, v s = 22 km/s, B = 150 "G ; 1% of Si! SiO * (pre-shock)!! physical conditions are constrained! (shock age, magnetic field strength)!! silicon chemistry constrained (initial distribution, processes)!! ejection rate (precise) measure: 7. 10-6 M " /an!! pure shock diagnosis! Gusdorf et al. 2015a!

Comparing observations with models! 27! H 2 observations! SiO observations! CO observations! CJ model, n H = 10 4 cm -3, v s = 22 km/s, B = 150 "G ; 1% of Si! SiO * (pre-shock)!! physical conditions are constrained! (shock age, magnetic field strength)!! silicon chemistry constrained (initial distribution, processes)!! ejection rate (precise) measure: 7. 10-6 M " /an!! pure shock diagnosis! Gusdorf et al. 2015a!

BHR71: the latest news! 28! H 2 observations! CO observations! SiO observations! New PACS & HIFI observations of CO, OH and OI lines! CJ model, n H = 10 4 cm -3, v s = 22 km/s, B = 150 "G ; 1% of Si! SiO * (pre-shock)!

BHR71: the latest news! 29! H 2 observations! CO observations! SiO observations! New PACS & HIFI observations of CO, OH and OI lines! CJ model, n H = 10 4 cm -3, v s = 22 km/s, B = 150 "G ; 1% of Si! SiO * (pre-shock)! OI observations! OI: models ~1% of observations! # we are missing something! # irradiated shocks! # some kind of jet component?! Benedettini et al., in prep.!

BHR71: the latest news! 30! Gusdorf et al., in prep.!

BHR71: the latest news! 31! Gusdorf et al., in prep.!

BHR71: the latest news! 32! Gusdorf et al., in prep.!

BHR71: the latest news! 33! Gusdorf et al., in prep.!

34! To higher-mass star formation! 25/11/15! 34! SOFIA community tele-talk series!

Intermediate-mass star formation: Cepheus E! 35! 0.07 pc! The Cep E outflow at 4.5 "m by Spitzer/IRAC!

Intermediate-mass star formation: Cepheus E! 36! 0.07 pc! IRAM-30m! CO (2-1)! SOFIA! CO (12-11)! SOFIA! CO (13-12)! The Cep E outflow at 4.5 "m by Spitzer/IRAC! Gomez-Ruiz et al. 2012!

Intermediate-mass star formation: Cepheus E! 37! 0.07 pc! The Cep E outflow at 4.5 "m by Spitzer/IRAC! Lefloch et al. 2015!

Intermediate-mass star formation: Cepheus E! 38! The Cep E outflow in CO (2-1) by the PdBI! Lefloch et al. 2015!

Intermediate-mass star formation: Cepheus E! 39! Jet, cavity, HH 377:! LVG analysis of CO emission! => (N, T kin ) estimates! Southern lobe:!! jet mass: 0.02 M ", 1.7 M " km/s!! outflow cavity mass: 0.32 M ",! 2.8 M " km/s! => molecular jet driven bowshock! (Non-irradiated) shock models of! the jet hot component! => perspectives: chemistry (SO, SiO,! HCO +, IRAM-30m and PdBI,! Lefloch et al. in prep, I, II, later H 2 O)!

Massive star formation: G5.89-0.39! 40! 0.03 pc! Hunter et al. 2008! Su et al. 2012! The Harvey & Forveille 1988 outflow :!! one massive O-type (imaged) star (Feld s star);!! one UC HII region surrounded by a PDR-like cocoon, 5 continuum sources;!! one Br# outflow, 3 molecular outflows (seen in H 2, CO, SiO and HCO + );!! a collection of OH, H 2 O, CH 3 OH, and NH 3 maser spots!

Massive star formation: G5.89-0.39! 41! APEX and Herschel (HIFI and PACS) observations of 12 CO and 13 CO! Analysis of CO emission:!! warm component (275 K, 10 7 cm -3 ) or (1200 K, 10 5 cm -3 ); N~3. 10 17 cm -2!! colder component thanks to APEX observations of 13 CO (3-2), (6-5):! (75 K, 6. 10 18 cm -2 )! Gusdorf et al., accepted by A&A!

Massive star formation: G5.89-0.39! 42! CI 3 P 1 3 P 0! CI 3 P 2 3 P 1! CI optically thin and in LTE conditions! T ex ~ 70 +/- 20 K,! N blue ~ N red ~ 3. 10 17 cm -2! => associated to CO cold component! Also observed: SiO, CH +!

Massive star formation: G5.89-0.39! 43! CI 3 P 1 3 P 0! CI 3 P 2 3 P 1! C + 2 P 3/2 2 P 1/2! CO (16 15)! CI optically thin and in LTE conditions! CII LTE assumption! T ex ~ 70 +/- 20 K,! N blue ~ N red ~ 3. 10 17 cm -2! => associated to CO cold component! Also observed: SiO, CH +! similarity of profile with CO (16-15)! => associated to CO warm component! T ex ~ 250 K,! N blue ~ 5. 10 17 cm -2 > N (CO)! Gusdorf et al., accepted by A&A!

Massive star formation: G5.89-0.39! 44! H 2 O, Herschel! Leurini et al., in press!

Massive star formation: G5.89-0.39! 45! OH, SOFIA/GREAT! H 2 O, Herschel! OI 3 P 1 3 P 2! at 63 "m! SOFIA/GREAT! Leurini et al., in press!

Massive star formation: G5.89-0.39! 46! OH, SOFIA/GREAT! H 2 O, Herschel! OI 3 P 1 3 P 2! at 63 "m! SOFIA/GREAT! Leurini et al., in press!

Massive star formation: Cep A! 47! Gusdorf et al. 2015b!

Filaments and ridges! 48!

Filaments and ridges! 49! Schneider et al. 2010!

Filaments and ridges! 50! Schneider et al. 2010! Hennemann et al. 2012!

The W43-MM1 ridge! 51! The W43MM1 filament in SiO (2-1), Louvet et al. 2014! Nguyen-Luong et al. 2013, Motte et al. 2014! DEC. (J2000) 1 pc! 12 9 11 7 1 2 10 3 5 6 4 8 R.A. (J2000)

The W43-MM1 ridge! 52! The W43MM1 filament in SiO (2-1), Louvet et al. 2014! Nguyen-Luong et al. 2013, Motte et al. 2014! DEC. (J2000) local bipolar outflows! 1 pc! 1 pc! 12 9 11 7 1 2 10 3 5 6 4 1 pc! 8 R.A. (J2000) Louvet et al., in prep.!

The W43-MM1 ridge! 53! The W43MM1 filament in SiO (2-1), Louvet et al. 2014! Nguyen-Luong et al. 2013, Motte et al. 2014! 1 pc! DEC. (J2000) R.A. (J2000)

The W43-MM1 ridge! 54! Models are ready (Louvet et al., in prep.):!! two scenarios: 10% pre-shock Si in the gas phase (Sig) or in the mantle (Sim)!! two values of interstellar radiation field tested: G 0 = 0, 1!

The W43-MM1 ridge! 55! APEX! SOFIA! Gusdorf et al., in prep.!

The W43-MM1 ridge! 56! APEX! SOFIA! ALMA Cycle 2, 2500 AU, 0.4, preliminary!! PI$: F. Motte! Gusdorf et al., in prep.!

The extra-galactic perspective! 57! CO ladders observations from external galaxies! Large scale effects from PDR, XDR, and shock contributions! NGC 253 Hailey-Dunsheath et al. 2008 ; M82 Panuzzo et al. 2010 ; NGC 891 Nikola et al. 2011 ; NGC 6240 Meijerink et al. 2013! Herschel/PACS observations of NGC1068, Hailey-Dunsheath et al. 2012! Schinnerer et al. 2000, CO (1-0)!

The extra-galactic perspective! 58!

The extra-galactic perspective! 59! Kamenetzky et al. 2014!

60! Supernova remnants! 25/11/15! 60! SOFIA community tele-talk series!

W28! 61! 5 pc! W28! Emission at 327 MHz, by Claussen et al. 1997!

W28! 62! 5 pc! CO (6-5) & (3-2)! W28F! Gusdorf et al. 2012! Emission at 327 MHz, by Claussen et al. 1997!

W28! 63! 5 pc! CO (6-5) & (3-2)! W28F! Gusdorf et al. 2012! (3-2)! (4-3)! (6-5)! (7-6)! (11-10)!

W28! 64! W28! 5 pc CO (6-5) & (3-2)! W28F! 327 MHz emission, Claussen et al. 1997! Gusdorf et al. 2012! CO H 2

W28! 65! W28! 5 pc CO (6-5) & (3-2)! W28F! 327 MHz emission, Claussen et al. 1997! Gusdorf et al. 2012! CO H 2

W28! 66! 2 C-shocks, n H = 10 4 cm -3, v s = 20-25 km/s, B = 45-100 "G constrain:!! the momentum injected by the shock :!! 140 420 M " km s -1 per position!! the energy injected by the shock:! 6 18 10 45 erg per position!

IC 443! 67! IC443! (Gusdorf et al., in prep.)! CO (6-5)! CO (2-1)! 5 ~2.2 pc!

IC 443! 68! IC443 : CO (6-5) + H 2 0-0 S(5)! IC443G! Gusdorf et al. 2014! (proceedings IAU 296)!

IC 443! 69! IC443 : CO (6-5) + H 2 0-0 S(5) + YSOs! IC443G! Gusdorf et al. 2014! (proceedings IAU 296)!

IC 443! 70! IC443 : CO (6-5) + H 2 0-0 S(5) + YSOs + molecular cloud CO (1-0)! Towards the SNR s progenitor IC443G! Gusdorf et al. 2014! (proceedings IAU 296)!

IC 443! 71! IC443G! IC443G! Riquelme et al., in prep. :!! Spectral survey IC443G!! compared to hot core G31.41+0.31!! X-, #- rays,! and cosmic rays! G31.41+0.31!

IC 443! 72! IC443G! IC443G! Riquelme et al., in prep. :!! Spectral survey IC443G!! compared to hot core G31.41+0.31!! X-, #- rays,! and cosmic rays! G31.41+0.31!

IC 443! 73! protons MIS :!! % 0 decomposition!! #! leptons MIS :!! Bremsstrahlung!!! #!! Inverse Compton! #!! Synchrotron!!! #!

IC 443! 74! protons MIS :!! % 0 decomposition!! #! leptons MIS :!! Bremsstrahlung!!! #!! Inverse Compton! #!! Synchrotron!!! #! Contribution to RCs studies! through ISM studies:! W28F, 3C391! (Gusdorf et al. 2012, Neufeld et al. 2014)! W44E&F (Anderl, Gusdorf & Güsten 2014)! G349.7+0.2 (Rho et al., in press)! Meyer et al, 2015# H 2 0-0 S(5) CO (6-5)

IC 443! 75! protons MIS :!! % 0 decomposition!! #! leptons MIS :!! Bremsstrahlung!!! #!! Inverse Compton! #!! Synchrotron!!! #! Contribution to RCs studies! through ISM studies:! W28F, 3C391! (Gusdorf et al. 2012, Neufeld et al. 2014)! W44E&F (Anderl, Gusdorf & Güsten 2014)! G349.7+0.2 (Rho et al., in press)! Meyer et al, 2015# HESS! H 2 0-0 S(5) CO (6-5)

IC 443! 76!.

IC 443! 77! HESS! IC443! (Gusdorf et al., in prep.)! CTA! CO (6-5)! CO (2-1)! 5 ~2.2 pc! CTA!

IC 443! 78! HESS! CTA! ALMA! CO (6-5)! CO (2-1)! 5 ~2.2 pc! CTA!

79! Perspectives! 25/11/15! 79! SOFIA community tele-talk series!

Perspectives! 80! Importance of studying various environments! All objectives are intricated! Extend shock studies:!! whole objects!! 2-, 3-D geometry (line profiles fitting)!! processes (UV field influence, X-rays, #-rays, cosmic rays)!! chemistry (SiO, H 2 O, tracers, COMs: spectral surveys)!! methods ( big data )! Extend the context!! link with extra-galactic!! link with CRs! 25/11/15! 80! SOFIA community tele-talk series!

81! Thanks for your attention!! 25/11/15! 81! SOFIA community tele-talk series!