TY - JOUR
T1 - Therapeutic Drug Monitoring of Tacrolimus-Personalized Therapy
T2 - Second Consensus Report
AU - Brunet, Mercè
AU - Van Gelder, Teun
AU - Åsberg, Anders
AU - Haufroid, Vincent
AU - Hesselink, Dennis A.
AU - Langman, Loralie
AU - Lemaitre, Florian
AU - Marquet, Pierre
AU - Seger, Christoph
AU - Shipkova, Maria
AU - Vinks, Alexander
AU - Wallemacq, Pierre
AU - Wieland, Eberhard
AU - Woillard, Jean Baptiste
AU - Barten, Markus J.
AU - Budde, Klemens
AU - Colom, Helena
AU - Dieterlen, Maja Theresa
AU - Elens, Laure
AU - Johnson-Davis, Kamisha L.
AU - Kunicki, Paweł K.
AU - Macphee, Iain
AU - Masuda, Satohiro
AU - Mathew, Binu S.
AU - Millán, Olga
AU - Mizuno, Tomoyuki
AU - Moes, Dirk Jan A.R.
AU - Monchaud, Caroline
AU - Noceti, Ofelia
AU - Pawinski, Tomasz
AU - Picard, Nicolas
AU - Van Schaik, Ron
AU - Sommerer, Claudia
AU - Vethe, Nils Tore
AU - De Winter, Brenda
AU - Christians, Uwe
AU - Bergan, Stein
N1 - Funding Information:
M. Brunet has received grant support from Chiesi as well as lecture and consulting fees from Astellas Pharma. T. van Gelder has received lecture fees from Roche, Chiesi and Astellas Pharma, in addition to consulting fees from Roche Diagnostics, Vitaeris, Astellas and Novartis. Teun van Gelder has received grants for clinical trials from Astellas Pharma and from Chiesi. D. A. Hesselink has received lecture and consulting fees, as well as grant support from Astellas Pharma and Chiesi Pharmaceutici SpA. K. Budde has received research funds and/or honoraria from Alexion, Astellas, Bristol-Myers Squibb, Chiesi, Fresenius, Genentech, Hexal, Novartis, Otsuka, Pfizer, Roche, Sandoz, Siemens, and Veloxis Pharma. F. Lemaitre has received research grants from Astellas, Research grant and congress invitation from Sandoz, Speaker fees from Chiesi. I. MacPhee has received research funding from Astellas and Chiesi and honoraria from Astellas, Sandoz and Chiesi. P. Marquet has received contracts with and research funds from Astellas, Chiesi and Sandoz. S. Masuda has received payment for lectures: Astellas, Chugai, Novartis, Siemens, Roche Diagnostics, Sekisui Medical. J. B. Woillard has received honoraria from Chiesi. The remaining authors declare no conflict of interest.
Publisher Copyright:
© 2019 Wolters Kluwer Health, Inc.
PY - 2019/6/1
Y1 - 2019/6/1
N2 - Ten years ago, a consensus report on the optimization of tacrolimus was published in this journal. In 2017, the Immunosuppressive Drugs Scientific Committee of the International Association of Therapeutic Drug Monitoring and Clinical Toxicity (IATDMCT) decided to issue an updated consensus report considering the most relevant advances in tacrolimus pharmacokinetics (PK), pharmacogenetics (PG), pharmacodynamics, and immunologic biomarkers, with the aim to provide analytical and drug-exposure recommendations to assist TDM professionals and clinicians to individualize tacrolimus TDM and treatment. The consensus is based on in-depth literature searches regarding each topic that is addressed in this document. Thirty-seven international experts in the field of TDM of tacrolimus as well as its PG and biomarkers contributed to the drafting of sections most relevant for their expertise. Whenever applicable, the quality of evidence and the strength of recommendations were graded according to a published grading guide. After iterated editing, the final version of the complete document was approved by all authors. For each category of solid organ and stem cell transplantation, the current state of PK monitoring is discussed and the specific targets of tacrolimus trough concentrations (predose sample C0) are presented for subgroups of patients along with the grading of these recommendations. In addition, tacrolimus area under the concentration-time curve determination is proposed as the best TDM option early after transplantation, at the time of immunosuppression minimization, for special populations, and specific clinical situations. For indications other than transplantation, the potentially effective tacrolimus concentrations in systemic treatment are discussed without formal grading. The importance of consistency, calibration, proficiency testing, and the requirement for standardization and need for traceability and reference materials is highlighted. The status for alternative approaches for tacrolimus TDM is presented including dried blood spots, volumetric absorptive microsampling, and the development of intracellular measurements of tacrolimus. The association between CYP3A5 genotype and tacrolimus dose requirement is consistent (Grading A I). So far, pharmacodynamic and immunologic biomarkers have not entered routine monitoring, but determination of residual nuclear factor of activated T cells-regulated gene expression supports the identification of renal transplant recipients at risk of rejection, infections, and malignancy (B II). In addition, monitoring intracellular T-cell IFN-g production can help to identify kidney and liver transplant recipients at high risk of acute rejection (B II) and select good candidates for immunosuppression minimization (B II). Although cell-free DNA seems a promising biomarker of acute donor injury and to assess the minimally effective C0 of tacrolimus, multicenter prospective interventional studies are required to better evaluate its clinical utility in solid organ transplantation. Population PK models including CYP3A5 and CYP3A4 genotypes will be considered to guide initial tacrolimus dosing. Future studies should investigate the clinical benefit of time-to-event models to better evaluate biomarkers as predictive of personal response, the risk of rejection, and graft outcome. The Expert Committee concludes that considerable advances in the different fields of tacrolimus monitoring have been achieved during this last decade. Continued efforts should focus on the opportunities to implement in clinical routine the combination of new standardized PK approaches with PG, and valid biomarkers to further personalize tacrolimus therapy and to improve long-term outcomes for treated patients.
AB - Ten years ago, a consensus report on the optimization of tacrolimus was published in this journal. In 2017, the Immunosuppressive Drugs Scientific Committee of the International Association of Therapeutic Drug Monitoring and Clinical Toxicity (IATDMCT) decided to issue an updated consensus report considering the most relevant advances in tacrolimus pharmacokinetics (PK), pharmacogenetics (PG), pharmacodynamics, and immunologic biomarkers, with the aim to provide analytical and drug-exposure recommendations to assist TDM professionals and clinicians to individualize tacrolimus TDM and treatment. The consensus is based on in-depth literature searches regarding each topic that is addressed in this document. Thirty-seven international experts in the field of TDM of tacrolimus as well as its PG and biomarkers contributed to the drafting of sections most relevant for their expertise. Whenever applicable, the quality of evidence and the strength of recommendations were graded according to a published grading guide. After iterated editing, the final version of the complete document was approved by all authors. For each category of solid organ and stem cell transplantation, the current state of PK monitoring is discussed and the specific targets of tacrolimus trough concentrations (predose sample C0) are presented for subgroups of patients along with the grading of these recommendations. In addition, tacrolimus area under the concentration-time curve determination is proposed as the best TDM option early after transplantation, at the time of immunosuppression minimization, for special populations, and specific clinical situations. For indications other than transplantation, the potentially effective tacrolimus concentrations in systemic treatment are discussed without formal grading. The importance of consistency, calibration, proficiency testing, and the requirement for standardization and need for traceability and reference materials is highlighted. The status for alternative approaches for tacrolimus TDM is presented including dried blood spots, volumetric absorptive microsampling, and the development of intracellular measurements of tacrolimus. The association between CYP3A5 genotype and tacrolimus dose requirement is consistent (Grading A I). So far, pharmacodynamic and immunologic biomarkers have not entered routine monitoring, but determination of residual nuclear factor of activated T cells-regulated gene expression supports the identification of renal transplant recipients at risk of rejection, infections, and malignancy (B II). In addition, monitoring intracellular T-cell IFN-g production can help to identify kidney and liver transplant recipients at high risk of acute rejection (B II) and select good candidates for immunosuppression minimization (B II). Although cell-free DNA seems a promising biomarker of acute donor injury and to assess the minimally effective C0 of tacrolimus, multicenter prospective interventional studies are required to better evaluate its clinical utility in solid organ transplantation. Population PK models including CYP3A5 and CYP3A4 genotypes will be considered to guide initial tacrolimus dosing. Future studies should investigate the clinical benefit of time-to-event models to better evaluate biomarkers as predictive of personal response, the risk of rejection, and graft outcome. The Expert Committee concludes that considerable advances in the different fields of tacrolimus monitoring have been achieved during this last decade. Continued efforts should focus on the opportunities to implement in clinical routine the combination of new standardized PK approaches with PG, and valid biomarkers to further personalize tacrolimus therapy and to improve long-term outcomes for treated patients.
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U2 - 10.1097/FTD.0000000000000640
DO - 10.1097/FTD.0000000000000640
M3 - Article
C2 - 31045868
AN - SCOPUS:85066160249
SN - 0163-4356
VL - 41
SP - 261
EP - 307
JO - Therapeutic drug monitoring
JF - Therapeutic drug monitoring
IS - 3
ER -