The article is a dedicated review of recommendations, methods, and tools for establishing and communicating the standard measurements of photometric, energy, and photon value units. The article considers how photometric values units are reproduced and traced through to the basic units of the International System of Units (SI), as well as how methods and tools of transposing standard measures from primary standards to measuring devices in test centres and laboratories. Modern day measurement requirements for test methods and facilities for illumination devices used in different illumination systems are also considered. 1. Gerloff T., Lindemann M., Shirokov S., Taddeo M., Pendsa S., and Sperling A. Development of a New High-Power LED Transfer Standard// Light & Engineering #2. 2013, pp.41–46.
2. Agafonov D.R., Sapritsky V.I., Stolyarevskaya R.I., and Tolstikh G.N. Luminous Intensity LED Working Gage// Light & Engineering, V.8, 2000, #2, pp.74–80.
3. Sildoja M. et al. Predictable Quantum Efficient Detector I. Photodiodes and predicted responsivity//Metrologia, 2013, V. 50, pp. 385–394.
4. Muller I. et al. Predictable Quantum Efficient Detector II. Characterization Results// Metrologia, 2013, 50, V.50, pp. 395–401.
5. Krueger, U. 2001. Technological aspect of the spectral correction adjustment of space-resolved radiation detectors. Light & Engineering, V.9; No.3, pp.61–71.
6. Wei?haar Jurgen P. Next Generation Goniophotometry// Light & Engineering, 2015, V.23, #4, pp.75–80.
7. URL: http://www.instrumentsystems.com. (дата обращения 24.01.2017)
8. Zwinkels J.C., Ikonen E., Fox N.P., Ulm G., and Rastello M.L., Photometry, radiometry and “the candela”: evolution in the classical and quantum world, Metrologia, 2010, 47, № 5, R15-R32.
9. Petsky B.W. The Atomic Units, the Kilogram and the Other Proposed Changes to the SI//, Metrologia, 2007, V44, #1, pp.69–72.
10. Mills Ian M., Mohr Peter J., Quinn Terry J., Taylor Barry N., and Williams Edwin R. Redefinition of the Kilogram, Ampere, Kelvin and Mole: A Proposed Approach to Implementing CIPM Recommendation 1 (CI-2005), Metrologia, 2006, V. 43, N3, pp.227–246.
11. Mills Ian M., Mohr Peter J., Quinn Terry J., Taylor Barry N., and Williams Edwin R. Redefinition of the Kilogram: A Decision Whose Time Has Come// Metrologia, 2005, V. 42, #2, pp.71–80.
12. BIPM SI Brochure, Appendix 2. “Mise en pratique for the definition of the candela and associated derived units for photometric and radiometric quantities in the International System of Units (SI)”, CCPR (BIPM), 2015.
13. BIPM SI Brochure: The International System of Units (SI), 8th edition, 2006; updated in 2014, Bureau International des Poids et Mesures, F-92310 Sevres, France.
14. CIE TN004:2016 The Use of Terms and Units in Photometry – Implementation of the CIE System for Mesopic Photometry.
15. CIE TN “ Interim Recommendation for Practical Application of the CIE System for Mesopic Photometry in Outdoor Lighting “. Enquiry Draft, 2017.
16. Kuzmin V.N. and Nikolaev S.E. Methods and Devices for Quick Evaluation of Optical Radiation Energy Efficiency// Light & Engineering. –2016. #4, pp. 103–104.
17. Khan T.K., Shpentyes N., Yeltse T. Proposals on evaluation of radiation being physiologically active for plants// Svetotekhnika.-2003. #1. – P. 40–41.
18. Fox N.P. Radiometry with cryogenic radiometers and semiconductor photodiodes. Metrologia, 1995, V.32, #6, pp. 535–544.
19. Gardner J.L. A Four-element Transmission Trap Detector// Metrologia, 1995, V.32, #6, pp. 411–418.
20. Sapritsky V.I. Black-body Radiometry. Metrologia, 19995, V.32, #6, pp.411–418.
21. Sapritsky V.I. and Stolyarevskaya R.I. Realization of the Lumen on the Basis of a Large-aperture High Temperature Black Body// Metrologia, 1995, V.32, #6, pp.455–458.
22. Klein R. Validation of the Probability Concentration Function for the Calculated Radiant Power of Synchrotron Radiation According to the Schwinger Formalism// Metrologia, 2016, V.53, #3, pp. 927–932.
23. Anevsky S.I., Zolotarevsky Yu. M., Krutikov V.N., Minayeva O.A., Minayev R.V., Senin D.S.. Development of spectroradiometry unit reproduction and transmission methods using synchrotron radiation // Measuring engineering, 2015, #3, p. 31–33.
24. Castelletto S., Godone A., Novero C. and Rastello M.L. Biphoton Fields for Quantum-efficiency Measurements// Metrologia, V. 32, #6, pp.501–504.
25. Gavrilov V.R., Dunayev A. Yu., Morozova S.P., Otryaskin D.A., Sapritsky V.I., Hlevnoi B.B.. State primary standard of absolute spectral sensitivity in wave length µinterval from 0.25 to 14.00 µ// Measuring engineering, 2015, #11, рp. 15–17.
26. CIE210: 2014 Photometry Using V(?)-corrected Detectors as Standard and Transfer Standards.
27. “Solid State Lighting Annex 2013 Interlaboratory Comparison Final Report”. 10.09.2014 //http://ssl.iea-4e.org/files/otherfiles/0000/0067/IC2013_Final_ Report_final_10.09.2014 a.pdf.
28. Bartsev A.A., Belyaev R.I., and Stolyarevskaya R.I. International Interlaboratory Comparison IC2013 Experience and Participation Results of the VNISI Testing Centre// Light & Engineering, 2015, V.23, #3, pp.55–64.
29. CIE S025/E:2015: Test Method for LED Lamps, LED Luminaires and LED Modules.
30. CIE S009 / E:2002 / IEC62471:2006 Photobiological Safety of Lamps and Lamp Systems.
31. Bartsev Alexei A, Belyaev Roman I., and Stolyarevskaya Raisa I. Methodology of LED Luminaire BLH Radiance Measurements// Light&Engineering, 2013, #1, pp.53–59.
32. CIE202:2011 Spectral Responsivity Measurement of Detectors, Radiometers, and Photometers.
33. ISO/CIE19476:2011(E) Characterisation of the Performance of Illuminance Meters and Luminance Meters.
34. CIE198:2011 Determination of Measurement Uncertainties in Photometry.
35. GOST P 8.332–78 SSEUM, Light measurements. Values of relative spectral luminous efficiency of monochromatic radiation for day time sight.
36. GOST P 8.023 SSEUM, State calibration circuit for measuring instruments of continuous and pulse radiation light values.
37. IESNA LM-78, 2007. “IESNA Approved Method for Total Luminous Flux Measurement of Lamps Using an Integrating Sphere Photometer”.
38. GOST P 8–195 SSEUM. State calibration circuit for measuring instruments of spectral concentration of radiance, spectral concentration of radiant intensity and spectral concentration of irradiance within wavelength interval from 0.25 to 25.00 µ; radiant intensity and irradiance within wavelength interval from 0.2 to 25.0 µ.
39. GOST P 8.850 SSEUM. Characteristic of luxmeters and luminance meters, 2013.
40. Kruger U., Ruggaber B., and Schmidt F. Spectral Properties of Imaging Luminance Measuring Devices Considering the Angular Dependence of the Spectral Transmission of Filters// Light & Engineering, 2012, #2, pp.72–77.
41.CIE Draft 2.55, NC2–59, WD03: Сharacterization of Imaging Luminance Measurement Devices (ILMDS).
42. СIE, TC2–62: Imaging-Photometer-Based Near-Field Goniophotometry, 2009, Draft WD00.
43. Budak V.P., Smirnov P.A.. A Ray of light in the Light Field Theory. Mathematical Simulation of Light Fields, Moscow, The Moscow Power Institute Publishing House, 2016.
44. ISO/IEC GUIDE98–4.
45. CIE121–1996. Photometry and Goniophotometry of Luminaires.
46. CIE13.3.:1995. Method of Measuring and Specifying Colour Rendering of Light Sources.
47. CIE15:2004. Colorimetry, 3rd Edition.
48. CIE TN001:2014.
49. CIE198:2011. Determination of Measurement Uncertainties in Photometry – Supplement1: Modules and Examples for the Determination of Measurement Uncertainties.

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• optical radiometry
• photometry
• colorimetry,
• spectroradiometric approach
• detector based approach
• photon quantity
• goniophotometry
• image photometer