Page 106 - Glucose Monitoring Devices
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References    105





                  Conclusion
                  In conclusion, models of SMBG measurement error are needed to generate synthetic
                  SMBG data in ISCT, which can complement in vivo experiments, with a large saving
                  of resources. Recently, our research group proposed a methodology to develop and
                  validate SMBG measurement error models, which take into account the variability
                  of error characteristics over the glucose range and the possible asymmetric distribu-
                  tion of the error. This methodology is general and, in principle, can be applied to any
                  dataset containing SMBG measurements and BG references, like the OTU2 and
                  BCN datasets presented in this chapter. In silico experiments based on SMBG
                  measurement error models can play an important role in the regulatory approval
                  of medical devices for diabetes therapy. Notably, the BCN model presented in
                  this chapter was used, as part of the T1D patient decision simulator, to demonstrate
                  the safety and effectiveness of CGM nonadjunctive use, in the regulatory process
                  that brought to the FDA approval of the first nonadjunctive CGM system in the
                  United States.




                  References
                   [1] Freckmann G, Baumstark A, Jendrike N, Zschornack E, Kocher S, Tshiananga J,
                      Heister F, Haug C. System accuracy evaluation of 27 blood glucose monitoring systems
                      according to DIN EN ISO 15197. Diabetes Technology and Therapeutics 2010;12(3):
                      221e31.
                   [2] Freckmann G, Schmid C, Baumstark A, Pleus S, Link M, Haug C. System evaluation of
                      43 blood glucose monitoring systems for self-monitoring of blood glucose according to
                      DIN EN ISO 15197. Journal of Diabetes Science and Technology 2012;6(5):1060e75.
                   [3] Freckmann G, Baumstark A, Schmid C, Pleus S, Link M, Haug C. Evaluation of 12
                      glucose monitoring systems for self-testing: system accuracy and measurement
                      reproducibility. Diabetes Technology and Therapeutics 2014;16(2):113e22.
                   [4] Bedini JL, Wallace JF, Pardo S, Petruschke T. Performance evaluation of three blood
                      glucose monitoring systems using ISO 15197: 2013 accuracy criteria, consensus and
                      surveillance error grid analyses, and insulin dosing error modeling in a hospital
                      setting. Journal of Diabetes Science and Technology 2016;10(1):85e92.
                   [5] Zijlstra E, Heinemann L, Fischer A, Kapitza C. A comprehensive performance evalua-
                      tion of five blood glucose systems in the hypo-, eu-, and hyperglycemic range. Journal
                      of Diabetes Science and Technology 2016;10(6):1316e23.
                   [6] Baumstark A, Jendrike N, Pleus S, Haug C, Freckmann G. Evaluation of accuracy of six
                      blood glucose monitoring systems and modeling of possibly related insulin dosing
                      errors. Diabetes Technology and Therapeutics 2017;19(10):580e8.
                   [7] Jendrike N, Baumstark A, Pleus S, Liebing C, Beer A, Flacke F, Haug C, Freckmann G.
                      Evaluation of four blood glucose monitoring systems for self-testing with built-in insu-
                      lin dose advisor based on ISO 15197:2013: system accuracy and hematocrit influence.
                      Diabetes Technology and Therapeutics 2018;20(4):303e13.
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