Bibliography
[1] I. M. Mills, P. J. Mohr, T. J. Quinn, B. N. Taylor, E. R. Williams: Redefinition of the kilogram: a decision whose time has come. Metrologia, vol. 42 (2005), p. 71-80.
[2] R. L. Ossowski: Przegląd aktualnej wiedzy na temat prowadzonych badań nad redefinicją jednostki masy (stan na koniec 2013 r.). Biuletyn GUM nr 1-2 (2014), s. 25-29.
[3] Consultative Committee for Mass and Related Quantities (CCM): Report of the 12th meeting (26 March 2010) to the International Committee for Weights and Measures. Bureau International des Poids et Mesures, Sevres.
[4] E. Dudek, M. Mosiądz, M. Orzepowski: Wzorce wielkości elektrycznych oparte na zjawiskach kwantowych. Biuletyn GUM nr 3 (2009), s. 3-16.
[5] A. Zięba: Kwantowy układ SI – podstawy fizyczne i perspektywy przyjęcia. Biuletyn GUM nr 1-2 (2015), s. 14-19.
[6] Resolution of the 26th CGPM. 13–16 November 2018.
[7] R. Steiner, D. Newell, E. Williams: A Result from the NIST Watt Balance and an Analysis of Uncertainties. IEEE Transactions on Instrumentation and Measurement, vol. 48 (1999), p. 205-208.
[8] B. Kibble, I. Robinson: Principles of a new generation of simplified and accurate watt balances. Metrologia, vol. 51 (2014), p. S132-S139.
[9] D. Haddad, F. Seifert, L. Chao, S. Li, D. Newell, J. Pratt, C. Williams, S. Schlamminger: A precise instrument to determine the Planck constant, and the future kilogram. Review of Scientific Instruments, vol. 87 (2016), 061301.
[10] R. Steiner, D. Newell, E. Williams: Details of the 1998 Watt Balance Experiment Determining the Planck Constant. J. Res. Natl. Inst. Stand. Technol., vol. 110 (2005), p. 1-26.
[11] D. Haddad, F. Seifert, L. Chao: First Measurements of the Flux Integral With the NIST-4 Watt Balance. IEEE Transactions on Instrumentation and Measurement, vol. 64 (2015), p. 1642-1649.
[12] F. Seifert, D. B. Newell, L.S. Chao, D. Haddad, J.R. Pratt, S. Schlamminger: Monitoring Gravity for the NIST-4 Watt Balance. Proceedings of IEEE 2016 Conference on Precision Electromagnetic Measurements (CPEM), 2016, 1-2.
[13] E. Leaman, D. Haddad, F. Seifert, L. Chao, A. Cao, J. Pratt, S. Schlamminger, D. Newell: A determination of the local acceleration of gravity for the NIST-4 watt balance. IEEE Transactions on Instrumentation and Measurement, vol. 64 (2015), p. 1663-1669.
[14] D. Jarrett, R. Elmquist, M. Kraft: Quantum Hall Resistance Traceability for the NIST-4 Watt Balance. Proc. of IEEE 2016 Conference on Precision Electromagnetic Measurements (CPEM) 2016.
[15] D. Haddad, B. Waltrip, R. L. Steiner:Low Noise Programmable Current Source for the NIST-3 and NIST-4Watt Balance. IEEE 2012 Conference on Precision electromagnetic Measurements, 2012.
[16] L. S. Chao, F. Seifert, A. Cao, D. Haddad, D. B. Newell, S. Schlamminger, J. R. Pratt: The Design of the New NIST-4 Watt Balance. IEEE 29th Conference on Precision Electromagnetic Measurements (CPEM), 2014.
[17] D. Haddad, F Seifert, L S Chao: Measurement of the Planck constant at the National Institute of Standards and Technology from 2015 to 2017. Metrologia, vol. 54 (2017), p. 633–641.
[18] S. Schlamminger: Design of the Permanent-Magnet System for NIST-4", IEEE Transactions on Instrumen-tation and Measurement, vol. 62 (2013), p. 1524-1530.
[19] S. Schlamminger, R. L. Steiner, D. Haddad: A summary of the Planck constant measurements using a watt balance witha superconducting solenoid at NIST. Metrologia, vol. 52 (2015), p. L5-L8.
[20] E. J. Leaman, D. Haddad, F. Seifert: A Determination of the Local Acceleration of Gravity for the NIST-4 Watt Balance. IEEE Transactions on Instrumentation and Measurement, vol. 64 (2015), p. 1663-1669.
[21] S. Li, F. Bielsa, M. Stock, A. Kiss, H. Fang: A permanent magnet system for Kibble balances. Metrologia, vol. 54 (2017), p. 775-783.
[22] S. Li, F. Bielsa, M. Stock, A. Kiss, H. Fang: Coil-current effect in Kibble balances: analysis, measurement, and optimization. Metrologia, vol. 55 (2018), p. 75-83.
[23] H. Ahmedov, B. Korutlu, B. Özgür, O. Yaman: Alignment in UME oscillating-magnet Kibble balance experiment. UME Reports 2017.
[24] H. Ahmedov, N. Babayigit, B. Korutlu, R. Orhan: Preliminary Planck Constant Measurements Via UME Oscillating – Magnet Kibble Balance. Metrologia, vol. 55 (2018), p. 326-333.
[25] I. A. Robinson: Towards the redefinition of the kilogram: a measurements of the Planck constant using the NPL Mark II watt balance. Metrologia, vol. 49 (2012), p. 113-156.
[26] B. P. Kibble, I. A. Robinson: Principles of a new generation of simplified and accurate watt balances. Metrologia, vol. 51 (2014), p. S132-S139.
[27] S. Davidson, I. Robinson, P. Lovelock, Ch. Jarvis: The development of a next-generation Kibble balance for the realisation of the unit of mass following the revision of the SI. Euspen’s 18th International Conference & Exhibition, Venice, IT, June 2018.
[28] P. Pinot, S. Macé, G. Geneves, P. Gournay, D. Haddad, M. Lecollinet, F. Villar, M. Himbert: Study of flexure strips made of copper-berilium alloy to be used for French watt balance experiment. Revue Française de Métrologie 21 (2010), p. 9-21.
[29] M. Thomas, D. Ziane, P. Pinot, R. Karcher, A. Imanaliev, F. Pereira Dos Santos, S. Merlet, F. Piquemal and P. Espel: A determination of the Planck constant using the LNE Kibble balance in air. Metrologia, vol. 54 (2017), p. 468–480.
[30] Ch. Rothleitner, J. Schleichert, L. Günther, S. Vasilyan, N. Rogge, D. Knopf, T. Fröhlich, F. Härtig: The Planck-Balance – a self-calibrating precision balance for industrial applications. 59th ILMENAU SCIENTIFIC COLLOQUIUM. Technische Universität Ilmenau, 11–15 September 2017.
[31] C. Rothleitner, J. Schleichert, N. Rogge, L. Günther, S. Vasilyan, F. Hilbrunner, D. Knopf, T. Fröhlich, F. Härtig: The Planck-Balance – using a fixed value of the Planck constant to calibrate E1/E2-weights", Measurement Science and Technology, vol. 29 (2018), 074003.
[32] L. Günther, C. Rothleitner , J. Schleichert, N. Rogge, S. Vasilyan, F. Härtig, T. Fröhlich: The Planck-Balance – primary mass metrology for industrial applications. Journal of Physics: Conf. Series 1065 (2018), 042021.
[33] S. Davidson: Determination of the effect of transfer between vacuum and air on mass standards of platinum–iridium and stainless steel. Metrologia, vol. 47 (2010), p. 487–497.
[34] J. Berry, S. Davidson: Effect of pressure on the sorption correction to stainless steel, platinum/iridium and silicon mass artefacts. Metrologia, vol. 51 (2014), p. S107-S113.
[35] P. Fuchs, K. Marti, S. Russi: Traceability of mass in air to mass in vacuum: results on the correlation between the change in mass and the surface chemical state. Metrologia, vol. 51 (2014), p. 376.
[36] S. Davidson, J. Berry, P. Abbott, K. Marti, R. Green, A. Malengo, L. Nielsen: Air–vacuum transfer; establishing traceability to the new kilogram. Metrologia, vol. 53 (2016), p. A95–A113.
[37] Czteroletni strategiczny plan działania GUM 2018-2021. GUM 2017.
[38] Współpraca z Przemysłem i Nauką. GUM 2017.
[39] Strategia Rozwoju Kraju 2020. Ministerstwo Rozwoju Regionalnego, Departament Koordynacji Polityki Strukturalnej. Warszawa 2012.
[40] Strategia na rzecz Odpowiedzialnego Rozwoju do roku 2020 (z perspektywą do 2030 r.). Dokument przyjęty uchwałą Rady Ministrów w dniu 14 lutego 2017 r.