CARMENES. IV: instrument control software

被引:1
|
作者
Guardia, Josep [1 ]
Colome, Josep [1 ]
Ribas, Ignasi [1 ]
Hagen, Hans-Juergen [2 ]
Morales, Rafael [3 ]
Abril, Miguel [3 ]
Galadi-Enriquez, David [4 ]
Seifert, Walter [5 ]
Sanchez Carrasco, Miguel A. [5 ]
Quirrenbach, Andreas [5 ]
Amado, Pedro J. [3 ,5 ]
Caballero, Jose A. [6 ]
Mandel, Holger [5 ]
机构
[1] Inst Ciencies Espai IEEC CSIC, Fac Ciencies, Campus UAB,Torre C5 Parell,2A Pl, E-08193 Bellaterra, Spain
[2] HS, D-21029 Hamburg, Germany
[3] CSIC, Inst Astrofis Andalucia, E-18008 Granada, Spain
[4] Calar Alto Observ, CAHA, E-04004 Almeria, Spain
[5] Landessternwarte ZAH, D-69117 Heidelberg, Germany
[6] Ctr Astrobiol, CSIC, INTA, ESAC, E-28691 Madrid, Spain
关键词
CARMENES; spectrograph; instrument operation; control system; software; Internet Communications Engine; EPICS;
D O I
10.1117/12.926981
中图分类号
P1 [天文学];
学科分类号
0704 ;
摘要
The overall purpose of the CARMENES instrument is to perform high-precision measurements of radial velocities of late-type stars with long-term stability. CARMENES will be installed in 2014 at the 3.5 m telescope in the German-Spanish Astronomical Center at Calar Alto observatory (CAHA, Spain) and will be equipped with two spectrographs in the near-infrared and visible windows. The technology involved in such instrument represents a challenge at all levels. The instrument coordination and management is handled by the Instrument Control System (ICS), which is responsible of carrying out the operations of the different subsystems and providing a tool to operate the instrument from low to high user interaction level. The main goal of the ICS and the CARMENES control layer architecture is to maximize the instrument efficiency by reducing time overheads and by operating it in an integrated manner. The ICS implements the CARMENES operational design. A description of the ICS architecture and the application programming interfaces for low-and high-level communication is given. Internet Communications Engine is the technology selected to implement most of the interface protocols.
引用
收藏
页数:8
相关论文
共 50 条
  • [21] LINC-NIRVANA instrument control software
    Kittmann, Frank
    Gaessler, Wolfgang
    Briegel, Florian
    Berwein, Juergen
    ASTRONOMICAL DATA ANALYSIS SOFTWARE AND SYSTEMS XVI, 2007, 376 : 661 - +
  • [22] The SOXS Instrument Control Software approaching the PAE
    Ricci, Davide
    Salasnich, Bernardo
    Baruffolo, Andrea
    Achren, Jani
    Aliverti, Matteo
    Araiza-Duran, Jose A.
    Arcavi, Iair
    Asquini, Laura
    Battaini, Federico
    Ben-Ami, Sagi
    Bichkovsky, Alex
    Brucalassi, Anna
    Bruch, Rachel
    Cabona, Lorenzo
    Campana, Sergio
    Capasso, Giulio
    Cappellaro, Enrico
    Claudi, Riccardo
    Colapietro, Mirko
    Cosentino, Rosario
    D'Alessio, Francesco
    D'Avanzo, Paolo
    D'Orsi, Sergio
    Della Valle, Massimo
    Di Benedetto, Rosario
    Di Filippo, Simone
    Gal-Yams, Avishay
    Genoni, Matteo
    Diaz, Marcos Hernandez
    Hershko, Ofir
    Kotilaineni, Jan
    Kuncarayakti, Hanindyo
    Landoni, Marco
    Li Causi, Gianluca
    Marty, Laurent
    Mattila, Seppo
    Munari, Matteo
    Oggioni, Luca
    Ventura, Hector Perez
    Pariani, Giorgio
    Pignata, Giuliano
    Radhakrishnan, Kalyan
    Smartt, Stephen
    Rappaport, Michael
    Riva, Marco
    Rubin, Adam
    Savaresec, Salvatore
    Schipani, Pietro
    Scuderi, Salvatore
    Stritzinger, Maximilian
    SOFTWARE AND CYBERINFRASTRUCTURE FOR ASTRONOMY VIII, 2024, 13101
  • [23] MORFEO: instrument control software continuous integration and software quality assurance
    Costa, Elia
    Balestra, Andrea
    Salasnich, Bernardo
    Laudisio, Fulvio
    Sordo, Rosanna
    Ciliegi, Paolo
    SOFTWARE AND CYBERINFRASTRUCTURE FOR ASTRONOMY VIII, 2024, 13101
  • [24] Modeling of basic instrument unit control for software development tool of green instrument
    Wang, JL
    Yang, L
    ISTM/2003: 5TH INTERNATIONAL SYMPOSIUM ON TEST AND MEASUREMENT, VOLS 1-6, CONFERENCE PROCEEDINGS, 2003, : 1415 - 1418
  • [25] The Java']Java based control software of the LUCIFER instrument
    Juette, Marcus
    Polsterer, Kai
    Knierim, Volker
    Luks, Thomas
    Advanced Software and Control for Astronomy, 2006, 6274 : H2741 - H2741
  • [26] A study on the flexible and efficient instrument control software generation
    Shim, M
    Park, S
    Yoo, DS
    Kim, JH
    Yi, M
    KORUS 2003: 7TH KOREA-RUSSIA INTERNATIONAL SYMPOSIUM ON SCIENCE AND TECHNOLOGY, VOL 2, PROCEEDINGS: ELECTRICAL ENGINEERING AND INFORMATION TECHNOLOGY, 2003, : 447 - 452
  • [27] A SOA developer framework for astronomical instrument control software
    Berwein, Juergen
    Briegel, Florian
    Gaessler, Wolfgang
    Kittmann, Frank
    Pavlov, Alexey
    ADVANCED SOFTWARE AND CONTROL FOR ASTRONOMY II, PTS 1 & 2, 2008, 7019
  • [28] Instrument-control software promises "universal" interface
    Strassberg, D
    EDN, 2001, 46 (04) : 28 - 28
  • [29] ESPRESSO instrument control software and electronics: commissioning in Paranal
    Calderone, Giorgio
    Baldini, Veronica
    Cirami, Robero
    Coretti, Igor
    Cristiani, Stefano
    Di Marcantonio, Paolo
    Megevand, Denis
    SOFTWARE AND CYBERINFRASTRUCTURE FOR ASTRONOMY V, 2018, 10707
  • [30] Instrument control and data processing Software for ARIEL ICU
    Di Giorgio, Anna M.
    Galli, Emanuele
    Farina, Maria
    Russi, Andrea
    Giusi, Giovanni
    Liu, Scige J.
    De Angelis, Fabrizio
    Tofani, Silvia
    Focardi, Mauro
    Pace, Emanuele
    SPACE TELESCOPES AND INSTRUMENTATION 2022: OPTICAL, INFRARED, AND MILLIMETER WAVE, 2022, 12180