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Featured researches published by Luca Marafatto.


International Journal of Astrobiology | 2015

The NIR arm of SHARK: System for coronagraphy with High-order Adaptive optics from R to K bands

Jacopo Farinato; C. Baffa; Andrea Baruffolo; Maria Bergomi; Luca Carbonaro; Alexis Carlotti; Mauro Centrone; Johanan L. Codona; Marco Dima; Simone Esposito; D. Fantinel; Giancarlo Farisato; Wolfgang Gaessler; E. Giallongo; Davide Greggio; Philip M. Hinz; Franco Lisi; Demetrio Magrin; Luca Marafatto; Fernando Pedichini; Enrico Pinna; Alfio Puglisi; Roberto Ragazzoni; Bernardo Salasnich; Marco Stangalini; Christophe Verinaud; Valentina Viotto

SHARK is a proposal aimed at investigating the technical feasibility and the scientific capabilities of high-contrast cameras to be implemented at the Large Binocular Telescope (LBT). SHARK foresees two separated channels: near-infrared (NIR) channel and visible, both providing imaging and coronagraphic modes. We describe here the SHARK instrument concept, with particular emphasis on the NIR channel at the level of a conceptual study, performed in the framework of the call for proposals for new LBT instruments. The search for giant extra-Solar planets is the main science case, as we will outline in the paper.


arXiv: Instrumentation and Methods for Astrophysics | 2018

The common path of SOXS (Son of X-Shooter)

R. U. Claudi; Matteo Aliverti; Federico Biondi; Matteo Munari; Ricardo Zánmar Sánchez; Sergio Campana; Pietro Schipani; Andrea Baruffolo; Sagi Ben-Ami; Anna Brucalassi; Giulio Capasso; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Oz Diner; Hanindyo Kuncarayakti; Adam Rubin; Salvatore Scuderi; Fabrizio Vitali; Jani Achrén; José Antonio Araiza-Durán; Iair Arcavi; Andrea Bianco; E. Cappellaro; Mirko Colapietro; Massimo Della Valle; Sergio D'Orsi; D. Fantinel; Johan Peter Uldall Fynbo; Avishay Gal-Yam

Son of X-Shooter (SOXS) will be a high-efficiency spectrograph with a mean Resolution-Slit product of 4500 (goal 5000) over the entire band capable of simultaneously observing the complete spectral range 350-2000 nm. It consists of three scientific arms (the UV-VIS Spectrograph, the NIR Spectrograph and the Acquisition Camera) connected by the Common Path system to the NTT and the Calibration Unit. The Common Path is the backbone of the instrument and the interface to the NTT Nasmyth focus flange. The light coming from the focus of the telescope is split by the common path optics into the two different optical paths in order to feed the two spectrographs and the acquisition camera. The instrument project went through the Preliminary Design Review in 2017 and is currently in Final Design Phase (with FDR in July 2018). This paper outlines the status of the Common Path system and is accompanied by a series of contributions describing the SOXS design and properties after the instrument Preliminary Design Review.


arXiv: Instrumentation and Methods for Astrophysics | 2018

The assembly integration and test activities for the new SOXS instrument at NTT

Federico Biondi; Sagi Ben-Ami; Anna Brucalassi; R. U. Claudi; Jacopo Farinato; Hanindyo Kuncarayakti; Demetrio Magrin; Roberto Ragazzoni; Marco Riva; Sergio Campana; Pietro Schipani; Matteo Aliverti; Andrea Baruffolo; Giulio Capasso; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Oz Diner; Matteo Munari; Adam Rubin; Salvatore Scuderi; Fabrizio Vitali; Jani Achrén; José Antonio Araiza-Durán; Iair Arcavi; Andrea Bianco; E. Cappellaro; Mirko Colapietro; Massimo Della Valle; Sergio D'Orsi

Son Of X-Shooter (SOXS) is the new instrument for the ESO 3.5 m New Technology Telescope (NTT) in La Silla site (Chile) devised for the spectroscopic follow-up of transient sources. SOXS is composed by two medium resolution spectrographs able to cover the 350-2000 nm interval. An Acquisition Camera will provide a light imaging capability in the visible band. We present the procedure foreseen for the Assembly, Integration and Test activities (AIT) of SOXS that will be carried out at sub-systems level at various consortium partner premises and at system level both in Europe and Chile.


arXiv: Instrumentation and Methods for Astrophysics | 2018

The mechanical design of SOXS for the NTT

Matteo Aliverti; Oz Diner; Anna Brucalassi; Hanindyo Kuncarayakti; Andrea Bianco; Sergio Campana; R. U. Claudi; Pietro Schipani; Andrea Baruffolo; Sagi Ben-Ami; Federico Biondi; Giulio Capasso; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Matteo Munari; Adam Rubin; Salvatore Scuderi; Fabrizio Vitali; Jani Achrén; José Antonio Araiza-Durán; Iair Arcavi; E. Cappellaro; Massimo Della Valle; Sergio D'Orsi; D. Fantinel; Avishay Gal-Yam; Matteo Genoni; Mika Hirvonen; J. K. Kotilainen

SOXS (Son of X-shooter) is a wide band, medium resolution spectrograph for the ESO NTT with a first light expected in early 2021. The instrument will be composed by five semi-independent subsystems: a pre-slit Common Path (CP), an Acquisition Camera (AC), a Calibration Unit (CU), the NIR spectrograph, and the UV-VIS spectrograph. In this paper, we present the mechanical design of the subsystems, the kinematic mounts developed to simplify the final integration procedure and the maintenance. The concept of the CP and NIR optomechanical mounts developed for a simple pre- alignment procedure and for the thermal compensation of reflective and refractive elements will be shown.


arXiv: Instrumentation and Methods for Astrophysics | 2018

The acquisition camera system for SOXS at NTT

Anna Brucalassi; Giuliano Pignata; José Antonio Araiza-Durán; Sergio Campana; R. U. Claudi; Pietro Schipani; Matteo Aliverti; Andrea Baruffolo; Sagi Ben-Ami; Federico Biondi; Giulio Capasso; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Oz Diner; Daniele Gardiol; Hanindyo Kuncarayakti; Matteo Munari; Adam Rubin; Salvatore Scuderi; Fabrizio Vitali; Jani Achrén; Iair Arcavi; Andrea Bianco; E. Cappellaro; Mirko Colapietro; Massimo Della Valle; Sergio D'Orsi; D. Fantinel; Johan Peter Uldall Fynbo

SOXS (Son of X-Shooter) will be the new medium resolution (R~4500 for a 1 arcsec slit), high-efficiency, wide band spectrograph for the ESO-NTT telescope on La Silla. It will be able to cover simultaneously optical and NIR bands (350-2000nm) using two different arms and a pre-slit Common Path feeding system. SOXS will provide an unique facility to follow up any kind of transient event with the best possible response time in addition to high efficiency and availability. Furthermore, a Calibration Unit and an Acquisition Camera System with all the necessary relay optics will be connected to the Common Path sub-system. The Acquisition Camera, working in optical regime, will be primarily focused on target acquisition and secondary guiding, but will also provide an imaging mode for scientific photometry. In this work we give an overview of the Acquisition Camera System for SOXS with all the different functionalities. The optical and mechanical design of the system are also presented together with the preliminary performances in terms of optical quality, throughput, magnitude limits and photometric properties.


arXiv: Instrumentation and Methods for Astrophysics | 2018

Optical design of the SOXS spectrograph for ESO NTT

Ricardo Zánmar Sánchez; Matteo Munari; Sagi Ben-Ami; Adam Rubin; Anna Brucalassi; Hanindyo Kuncarayakti; Jani Achrén; J. K. Kotilainen; Tarun Kumar; Sergio Campana; R. U. Claudi; Pietro Schipani; Matteo Aliverti; Andrea Baruffolo; Federico Biondi; Giulio Capasso; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Oz Diner; Salvatore Scuderi; Fabrizio Vitali; José Antonio Araiza-Durán; Iair Arcavi; Andrea Bianco; E. Cappellaro; Mirko Colapietro; Massimo Della Valle; Sergio D'Orsi; D. Fantinel

An overview of the optical design for the SOXS spectrograph is presented. SOXS (Son Of X-Shooter) is the new wideband, medium resolution (R>4500) spectrograph for the ESO 3.58m NTT telescope expected to start observations in 2021 at La Silla. The spectroscopic capabilities of SOXS are assured by two different arms. The UV-VIS (350-850 nm) arm is based on a novel concept that adopts the use of 4 ion-etched high efficiency transmission gratings. The NIR (800- 2000 nm) arm adopts the ‘4C’ design (Collimator Correction of Camera Chromatism) successfully applied in X-Shooter. Other optical sub-systems are the imaging Acquisition Camera, the Calibration Unit and a pre-slit Common Path. We describe the optical design of the five sub-systems and report their performance in terms of spectral format, throughput and optical quality. This work is part of a series of contributions1-9 describing the SOXS design and properties as it is about to face the Final Design Review.


arXiv: Instrumentation and Methods for Astrophysics | 2018

SOXS control electronics design

Giulio Capasso; Jani Achrén; Mirko Colapietro; Sergio D'Orsi; Sergio Campana; R. U. Claudi; Pietro Schipani; Matteo Aliverti; Andrea Baruffolo; Sagi Ben-Ami; Federico Biondi; Anna Brucalassi; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Oz Diner; Hanindyo Kuncarayakti; Matteo Munari; Adam Rubin; Salvatore Scuderi; Fabrizio Vitali; José Antonio Araiza-Durán; Iair Arcavi; Andrea Bianco; E. Cappellaro; Massimo Della Valle; D. Fantinel; Johan Peter Uldall Fynbo; Avishay Gal-Yam; Matteo Genoni

SOXS (Son Of X-Shooter) is a unique spectroscopic facility that will operate at the ESO New Technology Telescope (NTT) in La Silla from 2021 onward. The spectrograph will be able to cover simultaneously the UV-VIS and NIR bands exploiting two different arms and a Common Path feeding system. We present the design of the SOXS instrument control electronics. The electronics controls all the movements, alarms, cabinet temperatures, and electric interlocks of the instrument. We describe the main design concept. We decided to follow the ESO electronic design guidelines to minimize project time and risks and to simplify system maintenance. The design envisages Commercial Off-The-Shelf (COTS) industrial components (e.g. Beckhoff PLC and EtherCAT fieldbus modules) to obtain a modular design and to increase the overall reliability and maintainability. Preassembled industrial motorized stages are adopted allowing for high precision assembly standards and a high reliability. The electronics is kept off-board whenever possible to reduce thermal issues and instrument weight and to increase the accessibility for maintenance purpose. The instrument project went through the Preliminary Design Review in 2017 and is currently in Final Design Phase (with FDR in July 2018). This paper outlines the status of the work and is part of a series of contributions describing the SOXS design and properties after the instrument Preliminary Design Review.


Adaptive Optics Systems VI | 2018

Commissioning multi-conjugate adaptive optics with LINC-NIRVANA on LBT

T. M. Herbst; Carmelo Arcidiacono; Maria Bergomi; Thomas Bertram; Peter Bizenberger; Florian Briegel; Luca Marafatto; Richard J. Mathar; Rosalie McGurk; Roberto Ragazzoni; Kalyan Kumar Radhakrishnan Santhakumari; Valentina Viotto; Micah Klettke; Jürgen Berwein; Jacopo Farinato

This paper reports on early commissioning of LINC-NIRVANA (LN), an innovative Multi-Conjugate Adaptive Optics (MCAO) system for the Large Binocular Telescope (LBT). LN uses two, parallel MCAO systems, each of which corrects turbulence at two atmospheric layers, to deliver near diffraction-limited imagery over a two-arcminute field of view. We summarize LN’s approach to MCAO and give an update on commissioning, including the achievement of First Light in April 2018. This is followed by a discussion of challenges that arise from our particular type of MCAO and the solutions implemented. We conclude with a brief look forward to the remainder of commissioning and future upgrades.


arXiv: Instrumentation and Methods for Astrophysics | 2018

MITS: the Multi-Imaging Transient Spectrograph for SOXS

Adam Rubin; Sagi Ben-Ami; Oz Diner; M. L. Rappaport; Avishay Gal-Yam; Sergio Campana; R. U. Claudi; Pietro Schipani; Matteo Aliverti; Andrea Baruffolo; Federico Biondi; Anna Brucalassi; Giulio Capasso; Rosario Cosentino; Francesco D'Alessio; Paolo D'Avanzo; Hanindyo Kuncarayakti; Matteo Munari; Salvatore Scuderi; Fabrizio Vitali; Jani Achrén; José Antonio Araiza-Durán; Iair Arcavi; Andrea Bianco; E. Cappellaro; Mirko Colapietro; Massimo Della Valle; Sergio D'Orsi; D. Fantinel; Johan Peter Uldall Fynbo

The Son Of X-Shooter (SOXS)1 is a medium resolution spectrograph (R ~ 4500) proposed for the ESO 3.6m NTT. We present the optical design of the UV-VIS arm of SOXS which employs high efficiency ion-etched gratings used in first order (m = 1) as the main dispersers. The spectral band is split into four channels which are directed to individual gratings, and imaged simultaneously by a single three-element catadioptric camera. The expected throughput of our design is > 60% including contingency. The SOXS collaboration expects first light in early 2021. This paper is one of several papers presented in these proceedings2-10 describing the full SOXS instrument.


arXiv: Instrumentation and Methods for Astrophysics | 2018

Architecture of the SOXS instrument control software

Anna Brucalassi; Oz Diner; Hanindyo Kuncarayakti; Adam Rubin; José Antonio Araiza-Durán; Andrea Bianco; Mirko Colapietro; Sergio D'Orsi; Johan Peter Uldall Fynbo; Matteo Genoni; Marco Landoni; Gianluca Li Causi; Luca Marafatto; Giorgio Pariani; M. L. Rappaport; Massimo Turatto; Ricardo Zánmar Sánchez; Davide Ricci; Andrea Baruffolo; Bernardo Salasnich; D. Fantinel; Josefina Urrutia; Sergio Campana; Pietro Schipani; R. U. Claudi; Paolo D'Avanzo; Matteo Munari; Marco Riva; Giulio Capasso; Matteo Aliverti

SOXS (Son Of X-Shooter) is a new spectrograph for the ESO NTT telescope, currently in the final design phase. The main instrument goal is to allow the characterization of transient sources based on alerts. It will cover from near-infrared to visible bands with a spectral resolution of R ∼ 4500 using two separate, wavelength-optimized spectrographs. A visible camera, primarily intended for target acquisition and secondary guiding, will also provide a scientific “light” imaging mode. In this paper we present the current status of the design of the SOXS instrument control software, which is in charge of controlling all instrument functions and detectors, coordinating the execution of exposures, and implementing all observation, calibration and maintenance procedures. Given the extensive experience of the SOXS consortium in the development of instruments for the VLT, we decided to base the design of the Control System on the same standards, both for hardware and software control. We illustrate the control network, the instrument functions and detectors to be controlled, the overall design of SOXS Instrument Software (INS) and its main components. Then, we provide details about the control software for the most SOXS-specific features: control of the COTS-based imaging camera, the flexures compensation system and secondary guiding.

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