sglux-logo
bag-icon
Generic filters
Exact matches only
fr
  • Boutique
    • Photodiodes UV
    • TOCONs UV
      Photodiodes avec amplificateur de mesure intégré
    • Sondes de mesure UV
    • Radiomètres UV
    • Solutions personnalisées
    • Calibration UV
    • Mesure d’indice UV
    • Transducteurs de mesure pour photodiodes
  • Recherche
  • À propos
  • Contact
    • Distributeurs
    • Protection des données (en anglais)
    • Mentions légales
  • DE
  • EN
  • ES
  • FR

sglux

UV is our Business

  • DE
  • EN
  • ES
  • FR
Generic filters
Exact matches only
  • Boutique
  • Recherche
  • À propos
  • Contact

2022 – How to determine the right UV sensor for flame detection?

23. mai 2025 von sglux

Dr. Tilman Weiss, sglux GmbH, Berlin, Germany

How to determine the right UV sensor for flame detection?

Zusammenfassung
The present article informs about different approaches using UV photodetectors for the detection of a combustion flame (natural gas, hydrogen or oil).

Classé sous :Forschung, Veröffentlichungen und Berichte Balisé avec :customized, flame, general, irradiance_all

2024 – UV-Strahlung messen ohne Filter – Siliziumcarbid (SiC) – Photodioden machen’s möglich

1. février 2024 von sglux

Dr. Niklas Papathanasiou, sglux GmbH, Berlin, Germany

Sensor Magazin 2/2024 (c) Magazin Verlag

Zusammenfassung
Das Berliner Unternehmen sglux GmbH produziert seit mehr als 20 Jahren Photodioden und Sensoren zur Messung von UV-Strahlung, wie sie in vielen Bereichen der industriellen Fertigung, der Medizintechnik, der Feuerungstechnik und zur Entkeimungsüberwachung zum Einsatz kommen. Die präzise Erfassung der ultravioletten Bestrahlungsstärke ist für eine kontrollierte und effiziente Funktionsweise von hoher Bedeutung. sglux löst diese Aufgaben mit SiC-basierten Photodioden, seit 2009 aus eigener Halbleiterproduktion. Bei der Detektion von UV-Strahlung sind SiC-Photodioden aufgrund ihrer hohen Bandlücke von 3.26 eV im Vorteil, da sie gegenüber sichtbarer und nah-infraroter Strahlung blind sind. Zudem weisen SiC-Photodioden sehr niedrige Dunkelströme auf, sodass auch kleinste Strahlungsmengen nachgewiesen werden können. Im Bereich der Messung starker UV-Strahlung punktet SiC mit seiner hohen Degradationsfestigkeit.

Classé sous :Forschung, Veröffentlichungen und Berichte Balisé avec :general, irradiance_all, photodiodes, sensors

2018 – UV measurements for medical applications using SiC photodiodes

14. septembre 2018 von sglux

Dr. Niklas Papathanasiou, Gabriel Hopfenmueller, Dr. Tilman Weiss
sglux GmbH, Berlin, Germany

Presentation on IoT-SNAP2018: IoT Enabling Sensing/Network/AI and Photonics Conference at
Optics & Photonics Intenational Congress OPIC 2018, Pacifico Yokohama, Yokohama, Japan

Abstract
In this contribution we report about SiC based UV photodiodes as the core component of smart UV sensors for various medical applications. In dialysis machines the transparency of urea is monitored by a SiC UV photodiode based UV transmission measurement module. A photodiode combined with an optical filter which reproduces the erythermal action spectrum helps Lupus patients to monitor their daily dose of solar UV radiation. sglux UVC sensor “UV-Safester” is a smartphone based tool to detect harmful UV radiation at a workplace employing the ICNIRP regulation. A wireless UV sensor module monitors the UV disinfection applied by disinfection robots in operating rooms.

Classé sous :Forschung, Veröffentlichungen und Berichte Balisé avec :general, irradiance_all, medical, sinter

2017 – UV Index monitoring in Europe

10. octobre 2017 von sglux

Alois W. Schmalwieser¹, Julian Gröbner², Mario Blumthaler³, Barbara Klotz³, Hugo De Backer⁴, David Bolsée⁵, Rolf Werner⁶, Davor Tomsic⁷, Ladislav Metelka⁸, Paul Eriksen⁹, Nis Jepsen⁹, Margit Aun¹⁰, Anu Heikkilä¹¹, Thierry Duprat¹², Henner Sandmann¹³, Tilman Weiss¹⁴, Alkis Bais¹⁵, Zoltan Toth¹⁶, Anna-Maria Siani¹⁷, Luisa Vaccaro¹⁸, Henri Diémoz¹⁹, Daniele Grifoni²⁰, Gaetano Zipoli²¹, Giuseppe Lorenzetto²², Boyan H. Petkov²³, Alcide Giorgio di Sarra²⁴, Francis Massen²⁵, Charles Yousif²⁶, Alexandr A. Aculinin²⁷, Peter den Outer²⁸, Tove Svendby²⁹, Arne Dahlback³⁰, Bjørn Johnsen³¹, Julita Biszczuk-Jakubowska³², Janusz Krzyscin³³, Diamantino Henriques³⁴, Natalia Chubarova³⁵, Predrag Kolarž³⁶, Zoran Mijatovic³⁷, Drago Groselj³⁸, Anna Pribullova³⁹, Juan Ramon Moreta Gonzales⁴⁰, Julia Bilbao⁴¹, José Manuel Vilaplana Guerrero⁴², Antonio Serrano⁴³, Sandra Andersson⁴⁴, Laurent Vuilleumier⁴⁵, Ann Webb⁴⁶, and John O’Hagan⁴⁷,

¹University of Veterinary Medicine, Unit of Physiology and Biophysics, Vienna, Austria, ²PMOD/WRC, Davos Dorf, Switzerland, ³Medical Univ. Innsbruck, Innsbruck, Austria, ⁴Royal Meteorological Institute of Belgium, Observations, Brussels, Belgium, ⁵Royal Belgian Institute for Space Aeronomy, Brussels, Belgium, ⁶Bulgarian Academy of Sciences, Stara Zagora, Bulgaria, ⁷Metorological and hydrological institute of Croatia, Metorological and hydrological institute of Croati, Croatia, ⁸Czech Hydrometeorological Institute, Solar and Ozone Department, Hradec Kralove, Czech Republic, ⁹Danish Meteorological Institute, Copenhagen, Denmark, ¹⁰Tartu Observatory, Tartumaa, Estonia, ¹¹Finnish Meteorological Institute, Helsinki, Finland, ¹²Météo-France, Toulouse Cedex, France, ¹³Bundesamt fur Strahlenschutz Neuherberg, Section for Optical Radiation, Neuherberg, Germany, ¹⁴sglux GmbH, Berlin, Germany, ¹⁵Aristotle University of Thessaloniki, Greece, ¹⁶Hungarian Meteorological Service, Marczell György Main Observatory, Budapest, Hungary, ¹⁷Sapienza Universita’ di Roma, Physics Department, Rome, Italy, ¹⁸ISPRA, Physical Agents Unit, Rome, Italy, ¹⁹ARPA Valle d’Aosta loc, Saint-Christophe, Italy, ²⁰LaMMA Consortium, Institute of Biometeorology of the National Research Council, Sesto Fiorentino, Italy, ²¹CNR-IBIMET, Florence, Italy, ²²ARPA di Vicenza, Vicenza, Italy, ²³National Research Council, Institute of Atmospheric Sciences and Climate, Bologna, Italy, ²⁴ENEA, Laboratory for Observations and Analyses of the Earth and Climate, Rome, Italy, ²⁵Lycée Classique de Diekirch, Computarium and meteoLCD, Diekirch, Luxembourg, ²⁶University of Malta, Institute for Sustainable Energy, Marsaxlokk, Malta, ²⁷Institute of Applied Physics of the Academy of Sciences of Moldova, Kishinev, Moldova (the Republic of), ²⁸Dutch National Health Institute (RIVM), Netherlands, ²⁹NILU – Norwegian Institute for Air Research, Kjeller, Norway, ³⁰University of Oslo, Institute of Physics, Oslo, Norway, ³¹Statens Stralevern, Monitoring and Research, Oesteras, Norway, ³²Institute of Meteorology and Water Management, Gdynia, Poland, ³³Institute of Geophysics, Polish Academy of Sciences, Warszw, Poland, ³⁴Instituto Português do Mar e da Atmosfera, Observatório Afonso Chaves, Ponta Delgada S. Miguel, Portugal, ³⁵Moscow State University, Moscow, Russian Federation, ³⁶University of Belgrade, Zemun, Serbia, ³⁷University of Novi Sad, Novi Sad, Serbia, ³⁸Slovenian Environment Agency, Ljubljana, Slovenia, ³⁹Slovakian Academy of Sciences, Tatranska Lomnica, Slovakia, ⁴⁰Spanish Meteorological Agency, Area of Atmospheric Observation Networks, Madrid, Spain, ⁴¹University of Valladolid, Valladolid, Spain, ⁴²National Institute for Aerospace Technology, Mazagon, Spain, ⁴³University of Extremadura, Department of Physics, Badajoz, Spain, ⁴⁴SMHI, Norköpping, Sweden, ⁴⁵MeteoSwiss, Atmospheric data division, Payerne, Switzerland, ⁴⁶University of Manchester, Manchester, United Kingdom of Great Britain and Northern Ireland, ⁴⁷Public Health England Centre for Radiation Chemical and Environmental Hazards, Radiation Dosimetry, Didcot, United Kingdom of Great Britain and Northern Ireland

Journal: Photochemical & Photobiological Sciences, Publisher: The Royal Society of Chemistry.

Abstract
The UV Index was established more than 20 years ago as a tool for sun protection and health care. Shortly after its introduction, UV Index monitoring started in several countries either by newly acquired instruments or by converting measurements from existing instruments into the UV Index. The number of stations and networks has increased over the years. Currently, 160 stations in 25 European countries deliver online values to the public via the Internet. In this paper an overview of these UV Index monitoring sites in Europe is given. The overview includes instruments as well as quality assurance and quality control procedures. Furthermore, some examples are given about how UV Index values are presented to the public. Through these efforts, 57% of the European population is supplied with high quality information, enabling them to adapt behaviour. Although health care, including skin cancer prevention, is cost-effective, a proportion of the European population still doesn’t have access to UV Index information.

Classé sous :Forschung, Veröffentlichungen und Berichte Balisé avec :general, irradiance_med, UVI

Adresse

sglux GmbH
Richard-Willstätter-Str. 8
12489 Berlin, Germany
Tel: +49 (0) 30 53 01 52 11
Fax: +49 (0) 30 53 01 52 09
Mail:

sglux délivre partout dans le monde

Comme alternative, nous sommes représentés par nos partenaires de vente FARNELL et DISTRILEC, qui couvrent plus de 80 pays.

Dans votre région, la liste de spécialistes ci-dessous distribue nos produits et offrent leur assistance (presque) 24h/24 pour trouver la meilleure solution pour vos mesures UV:

Distributeurs
sglux GmbH 2024
Richard-Willstätter-Str. 8
D-12489 Berlin
Tel: +49 (0) 30 53 01 52 11
Mail: welcome@sglux.de
Mentions légales Protection des données
We do not use any cookies for tracking or analyzing of your website visit. However, technical cookies are needed to enable shop orders and to follow your language preferences.
Imprint | Privacy Policy
I accept cookies