Dosing algorithm to target a predefined AUC in patients with primary central nervous system lymphoma receiving high dose methotrexate
WHAT IS ALREADY KNOWN ABOUT THIS SUBJECT • High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma (PCNSL). • While interoccasion variability of MTX elimination is moderate, interindividual variability is considerable and unpredictable. • MTX dos...
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| Published in | British journal of clinical pharmacology Vol. 73; no. 2; pp. 240 - 247 |
|---|---|
| Main Authors | , , , , , , |
| Format | Journal Article |
| Language | English |
| Published |
Oxford, UK
Blackwell Publishing Ltd
01.02.2012
Blackwell Blackwell Science Inc |
| Subjects | |
| Online Access | Get full text |
| ISSN | 0306-5251 1365-2125 1365-2125 |
| DOI | 10.1111/j.1365-2125.2011.04084.x |
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| Abstract | WHAT IS ALREADY KNOWN ABOUT THIS SUBJECT
• High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma (PCNSL).
• While interoccasion variability of MTX elimination is moderate, interindividual variability is considerable and unpredictable.
• MTX dose intensity is important in patients with PCNSL to allow for an optimal clinical outcome.
• No dosing algorithm has yet been defined to individualize HDMTX dose and allow for targeting a prespecified dose intensity of the drug in patients with PCNSL.
WHAT THIS STUDY ADDS
• The present simulation study shows that a simple and practical dosing algorithm is able to improve the proportion of patients within a prespecified target AUCMTX.
• Using this dosing algorithm, 71% of the patients received a MTX dose that was higher than the standard (500 mg m−2 over 15 min followed by 3000 mg m−2 over 3 h), while 11% of the patients received a dose that was lower than standard.
AIM There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUCMTX in the range between 1000 and 1100 µmol l−1 h.
METHODS A population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration–time curves of 10 000 patients and test the efficacy of a dosing algorithm based on 24 h MTX plasma concentrations to target the prespecified AUCMTX. These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four.
RESULTS The dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C24 < 0.5 µmol l−1 up to −35% in patients with MTX C24 > 12 µmol l−1. The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUCMTX target between 1000 and 1100 µmol l−1 h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure.
CONCLUSIONS A simple and practical dosing algorithm for HDMTX has been developed based on MTX 24 h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUCMTX and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL). |
|---|---|
| AbstractList | There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUC(MTX) in the range between 1000 and 1100 µmol l(-1) h.
A population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration-time curves of 10,000 patients and test the efficacy of a dosing algorithm based on 24 h MTX plasma concentrations to target the prespecified AUC(MTX) . These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four.
The dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C(24) < 0.5 µmol l(-1) up to -35% in patients with MTX C(24) > 12 µmol l(-1). The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUC(MTX) target between 1000 and 1100 µmol l(-1) h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure.
A simple and practical dosing algorithm for HDMTX has been developed based on MTX 24 h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUC(MTX) and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL). times High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma (PCNSL). times While interoccasion variability of MTX elimination is moderate, interindividual variability is considerable and unpredictable. times MTX dose intensity is important in patients with PCNSL to allow for an optimal clinical outcome. times No dosing algorithm has yet been defined to individualize HDMTX dose and allow for targeting a prespecified dose intensity of the drug in patients with PCNSL. WHAT THIS STUDY ADDS times The present simulation study shows that a simple and practical dosing algorithm is able to improve the proportion of patients within a prespecified target AUCMTX. times Using this dosing algorithm, 71% of the patients received a MTX dose that was higher than the standard (500mgm-2 over 15min followed by 3000mgm-2 over 3h), while 11% of the patients received a dose that was lower than standard. AIM There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUCMTX in the range between 1000 and 1100 mu moll-1h. METHODS A population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration-time curves of 10000 patients and test the efficacy of a dosing algorithm based on 24h MTX plasma concentrations to target the prespecified AUCMTX. These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four. RESULTS The dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C24 < 0.5 mu moll-1 up to -35% in patients with MTX C24 > 12 mu moll-1. The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUC sub(MTX) target between 1000 and 1100 mu moll-1h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure. CONCLUSIONS A simple and practical dosing algorithm for HDMTX has been developed based on MTX 24h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUCMTX and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL).Original Abstract: WHAT IS ALREADY KNOWN ABOUT THIS SUBJECT WHAT IS ALREADY KNOWN ABOUT THIS SUBJECT • High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma (PCNSL). • While interoccasion variability of MTX elimination is moderate, interindividual variability is considerable and unpredictable. • MTX dose intensity is important in patients with PCNSL to allow for an optimal clinical outcome. • No dosing algorithm has yet been defined to individualize HDMTX dose and allow for targeting a prespecified dose intensity of the drug in patients with PCNSL. WHAT THIS STUDY ADDS • The present simulation study shows that a simple and practical dosing algorithm is able to improve the proportion of patients within a prespecified target AUC MTX . • Using this dosing algorithm, 71% of the patients received a MTX dose that was higher than the standard (500 mg m −2 over 15 min followed by 3000 mg m −2 over 3 h), while 11% of the patients received a dose that was lower than standard. AIM There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUC MTX in the range between 1000 and 1100 µmol l −1 h. METHODS A population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration–time curves of 10 000 patients and test the efficacy of a dosing algorithm based on 24 h MTX plasma concentrations to target the prespecified AUC MTX . These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four. RESULTS The dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C 24 < 0.5 µmol l −1 up to −35% in patients with MTX C 24 > 12 µmol l −1 . The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUC MTX target between 1000 and 1100 µmol l −1 h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure. CONCLUSIONS A simple and practical dosing algorithm for HDMTX has been developed based on MTX 24 h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUC MTX and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL). There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUC(MTX) in the range between 1000 and 1100 µmol l(-1) h.AIMThere is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUC(MTX) in the range between 1000 and 1100 µmol l(-1) h.A population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration-time curves of 10,000 patients and test the efficacy of a dosing algorithm based on 24 h MTX plasma concentrations to target the prespecified AUC(MTX) . These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four.METHODSA population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration-time curves of 10,000 patients and test the efficacy of a dosing algorithm based on 24 h MTX plasma concentrations to target the prespecified AUC(MTX) . These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four.The dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C(24) < 0.5 µmol l(-1) up to -35% in patients with MTX C(24) > 12 µmol l(-1). The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUC(MTX) target between 1000 and 1100 µmol l(-1) h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure.RESULTSThe dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C(24) < 0.5 µmol l(-1) up to -35% in patients with MTX C(24) > 12 µmol l(-1). The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUC(MTX) target between 1000 and 1100 µmol l(-1) h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure.A simple and practical dosing algorithm for HDMTX has been developed based on MTX 24 h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUC(MTX) and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL).CONCLUSIONSA simple and practical dosing algorithm for HDMTX has been developed based on MTX 24 h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUC(MTX) and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL). WHAT IS ALREADY KNOWN ABOUT THIS SUBJECT • High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma (PCNSL). • While interoccasion variability of MTX elimination is moderate, interindividual variability is considerable and unpredictable. • MTX dose intensity is important in patients with PCNSL to allow for an optimal clinical outcome. • No dosing algorithm has yet been defined to individualize HDMTX dose and allow for targeting a prespecified dose intensity of the drug in patients with PCNSL. WHAT THIS STUDY ADDS • The present simulation study shows that a simple and practical dosing algorithm is able to improve the proportion of patients within a prespecified target AUCMTX. • Using this dosing algorithm, 71% of the patients received a MTX dose that was higher than the standard (500 mg m−2 over 15 min followed by 3000 mg m−2 over 3 h), while 11% of the patients received a dose that was lower than standard. AIM There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient dosing algorithm to target AUCMTX in the range between 1000 and 1100 µmol l−1 h. METHODS A population covariate model from a pooled dataset of 131 patients receiving HDMTX was used to simulate concentration–time curves of 10 000 patients and test the efficacy of a dosing algorithm based on 24 h MTX plasma concentrations to target the prespecified AUCMTX. These data simulations included interindividual, interoccasion and residual unidentified variability. Patients received a total of four simulated cycles of HDMTX and adjusted MTX dosages were given for cycles two to four. RESULTS The dosing algorithm proposes MTX dose adaptations ranging from +75% in patients with MTX C24 < 0.5 µmol l−1 up to −35% in patients with MTX C24 > 12 µmol l−1. The proposed dosing algorithm resulted in a marked improvement of the proportion of patients within the AUCMTX target between 1000 and 1100 µmol l−1 h (11% with standard MTX dose, 35% with the adjusted dose) and a marked reduction of the interindividual variability of MTX exposure. CONCLUSIONS A simple and practical dosing algorithm for HDMTX has been developed based on MTX 24 h plasma concentrations, and its potential efficacy in improving the proportion of patients within a prespecified target AUCMTX and reducing the interindividual variability of MTX exposure has been shown by data simulations. The clinical benefit of this dosing algorithm should be assessed in patients with primary central nervous system lymphoma (PCNSL). |
| Author | Schellens, Jan H. M. Joerger, Markus Ferreri, Andrés J. M. Krähenbühl, Stephan Cerny, Thomas Zucca, Emanuele Huitema, Alwin D. R. |
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| Keywords | Antineoplastic agent Targeting Central nervous system Posology Antifolate Therapeutic drug monitoring Target high dose chemotherapy CNS lymphoma Lymphoproliferative syndrome Methotrexate High dose Human Nervous system diseases Statistical analysis Bayesian estimate Malignant hemopathy Lymphoid neoplasm Non Hodgkin lymphoma Algorithm Cerebral disorder Primary cerebral lymphoma Chemotherapy Treatment Antimetabolic Central nervous system disease Diffuse large B cell lymphoma Cancer |
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• High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma... There is no consensus regarding optimal dosing of high dose methotrexate (HDMTX) in patients with primary CNS lymphoma. Our aim was to develop a convenient... times High dose methotrexate (HDMTX) is the most effective drug in treating primary central nervous system lymphoma (PCNSL). times While interoccasion... |
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| SubjectTerms | Adaptations Algorithms Antimetabolites, Antineoplastic - administration & dosage Antimetabolites, Antineoplastic - pharmacokinetics Area Under Curve Bayes Theorem Bayesian estimate Biological and medical sciences Brain Neoplasms - drug therapy Brain Neoplasms - metabolism Central nervous system CNS lymphoma Data processing Dose-Response Relationship, Drug Drugs Female Hematologic and hematopoietic diseases high dose chemotherapy Humans Leukemias. Malignant lymphomas. Malignant reticulosis. Myelofibrosis Lymphoma Lymphoma - drug therapy Lymphoma - metabolism Male Medical sciences Metabolic Clearance Rate Methotrexate Methotrexate - administration & dosage Methotrexate - pharmacokinetics Pharmacokinetics Pharmacology. Drug treatments therapeutic drug monitoring Treatment Outcome |
| Title | Dosing algorithm to target a predefined AUC in patients with primary central nervous system lymphoma receiving high dose methotrexate |
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