the critical path for parkinson’s consortium: understanding … · 2017. 9. 19. · the critical...

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The Critical Path for Parkinson’s Consortium: Understanding Motor Disease Progression through Quantitative Medicine on behalf of the Critical Path for Parkinson’s (CPP) Consortium Klaus Romero 1 , Daniela J. Conrado 1 , Brian Corrigan 2 , Kuenhi Tsai 3 , Malidi Ahamadi 3 , Sreeraj Macha 4 , Vikram Sinha 4 , Ian Watson 5 , Massimo Bani 6 , Pierandrea Muglia 6 , Volker D. Kern 1 , Caroline H. Williams-Gray 7 , Donald G. Grosset 8 , Michele Hu 9 , David Burn 10 , Rachael Lawson 10 , *Kenneth Marek 11 , Arthur Roach 12 , Diane Stephenson 1 and Timothy Nicholas 2 1 Critical Path Institute, 2 Pfizer Inc., 3 Merck & Co. Inc., North Wales, PA, 4 Merck & Co. Inc., Kenilworth, PA, 5 Lilly, 6 UCB Pharma, 7 University of Cambridge, 8 University of Glasgow, 9 University of Oxford, 10 Newcastle University, 11 Institute for Neurodegenerative Disorders, Molecular NeuroImaging LLC, 12 Parkinson’s UK Background The Critical Path for Parkinson’s (CPP) consortium (Figure 1) is based on the value of sharing patient-level data from cohorts and clinical trials in Parkinson disease (PD), and transforming those data into generalizable and applicable knowledge for PD therapeutics (Figure 2). 1402 Figure 1 Critical Path for Parkinson’s consortium members Figure 2 CPP as an expanded data sharing initiative (adapted from Reference 1) Acknowledgments: The authors acknowledge the support of Parkinson’s UK and the CPP member organizations. We also recognize Peggy Abbott for the skillful assistance in preparing this poster. The author(s) meet criteria for authorship as recommended by the International Committee of Medical Journal Editors (ICMJE). The authors received compensation (i.e., salary) as employees of their respective organization. *KM, served as an advisor to CPP . Any views expressed in this publication represent the personal opinions of the authors, and not those of their respective employer. The authors’ respective organizations were given the opportunity to review the manuscript for medical and scientific accuracy as well as intellectual property considerations. The goal herein is to develop and obtain regulatory endorsement of a computation tool for PD clinical trial enrichment. This tool will be based on a PD progression model and will inform entry criteria, enrichment strategies and stratification approaches. Objective Studies: Selected studies herein are the Parkinson’s Progression Markers Initiative (PPMI), the Parkinson Research Examination of CEP-1347 Trial (PRECEPT), Oxford PD Centre (OPDC) Discovery Cohort; the Cambridgeshire Parkinson's Incidence from GP to Neurologist cohort (CamPaIGN); Incidence of Cognitive Impairment in Cohorts with Longitudinal Evaluation – PD (ICICLE-PD) and Tracking Parkinson’s (the PRoBaND study) (Figure 3). Data integration: The PD Clinical Data Interchange Standards Consortium (CDISC) standards will enable the integration of the studies in a unique database. Model: The time course of the harmonized parts II and III of the Unified Parkinson’s Disease Rating Scale (UPDRS) and MDS-UPDRS will be described using a non-linear mixed- effects regression. Covariates: Subjects’ demographic, genetic, biomarker and clinical characteristics to be tested as predictors of disease severity at baseline and/or intrinsic rate of disease progression are presented on Figure 4. Methods Conclusion Up to this moment, patient-level data of PPMI, PRECEPT and CamPaIGN have been integrated using PD CDISC standard. Integration of ICICLE-PD, OPDC and the Tracking Parkinson’s study will follow. The CPP integrated global database will result in a total of >6000 subjects into a unified database. Such database will expand the understanding of PD progression and allow a comprehensive investigation of subjects characteristics that predict of disease severity and/or rate of disease progression. An analysis of integrated subset – PRECEPT (n=191) and PPMI (n=481) – demonstrated that subjects defined as SWEDD (scans without evidence of dopamine transporter deficiency) have an average linear monthly progression in the harmonized motor scores that is 0.05 (90% CI: -0.04, 0.13) point/month or 0.13 point/month lower than that in subjects with dopamine transporter deficit (0.18 point/month; 90% CI: 0.14, 0.21) (Figure 5). The work herein will provide a comprehensive evaluation of the findings in the presence of additional studies and covariates, accounting for potential non-linearity in disease progression. Results Developing the quantitative drug development tools for PD through collaborative effort and regulatory review will enable optimized study design for trials targeting early stage PD. (1) D.J. Conrado, M.O. Karlsson, K. Romero, C. Sarrc, J.J. Wilkins. Open Innovation: towards sharing of data, models and workflows. European Journal of Pharmaceutical Sciences (accepted for publication). (2) D. Stephenson, M.T. Hu, K. Romero, K. Breen, D. Burn, et al. (2015) Precompetitive Data Sharing as a Catalyst to Address Unmet Needs in Parkinson's Disease. J. Parkinson’s Dis., 5(3): 581-594. References Figure 3 Overarching CPP Roadmap to Build Quantitative Drug Development Tools Selected studies at the current stage are PPMI, PRECEPT, OPDC, CamPaIGN, ICICLE-PD, and Tracking Parkinson’s (adapted from Reference 2) Figure 5 Population predicted harmonized motor scores of PD patients in PPMI and PRECEPT Shaded area is the 90% confidence interval (CI). Predictions are for a PRECEPT- like study with average age of 60 years old. Figure 4 Examples of subject’s characteristics to be tested as predictors of motor impairment in subjects with Parkinson

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Page 1: The Critical Path for Parkinson’s Consortium: Understanding … · 2017. 9. 19. · The Critical Path for Parkinson’s Consortium: Understanding Motor Disease Progression through

The Critical Path for Parkinson’s Consortium: Understanding Motor Disease Progression through Quantitative Medicine

on behalf of the Critical Path for Parkinson’s (CPP) Consortium

Klaus Romero1, Daniela J. Conrado1, Brian Corrigan2 , Kuenhi Tsai3, Malidi Ahamadi3, Sreeraj Macha4, Vikram Sinha4, Ian Watson5, Massimo Bani6, Pierandrea Muglia6, Volker D. Kern1, Caroline H. Williams-Gray7, Donald G. Grosset8, Michele Hu9, David Burn10, Rachael Lawson10, *Kenneth Marek11, Arthur Roach12, Diane Stephenson1 and Timothy Nicholas2

1Critical Path Institute, 2Pfizer Inc., 3Merck & Co. Inc., North Wales, PA, 4Merck & Co. Inc., Kenilworth, PA, 5Lilly, 6UCB Pharma, 7University of Cambridge, 8University of Glasgow, 9University of Oxford, 10Newcastle University, 11Institute for Neurodegenerative Disorders, Molecular NeuroImaging LLC, 12Parkinson’s UK

Background

The Critical Path for Parkinson’s (CPP) consortium (Figure 1) is based on the value ofsharing patient-level data from cohorts and clinical trials in Parkinson disease (PD), andtransforming those data into generalizable and applicable knowledge for PD therapeutics(Figure 2).

1402

Figure 1 Critical Path for Parkinson’s consortium members

Figure 2 CPP as an expanded data sharing initiative (adapted from Reference 1)

Acknowledgments: The authors acknowledge the support of Parkinson’s UK and the CPP member organizations. We also recognize Peggy Abbott for the skillful assistance in preparing this poster. The author(s) meet criteria for authorship as recommended by the International Committee of Medical Journal Editors (ICMJE). The authors received compensation (i.e., salary) as employees of their respective organization. *KM, served as an advisor to CPP. Any views expressed in this publication represent the personal opinions of the authors, and not those of their respective employer. The authors’ respective organizations were given the opportunity to review the manuscript for medical and scientific accuracy as well as

intellectual property considerations.

• The goal herein is to develop and obtain regulatory endorsement of a computation toolfor PD clinical trial enrichment.

• This tool will be based on a PD progression model and will inform entry criteria,enrichment strategies and stratification approaches.

Objective

Studies: Selected studies herein are the Parkinson’s Progression Markers Initiative (PPMI),the Parkinson Research Examination of CEP-1347 Trial (PRECEPT), Oxford PD Centre(OPDC) Discovery Cohort; the Cambridgeshire Parkinson's Incidence from GP toNeurologist cohort (CamPaIGN); Incidence of Cognitive Impairment in Cohorts withLongitudinal Evaluation – PD (ICICLE-PD) and Tracking Parkinson’s (the PRoBaND study)(Figure 3).

Data integration: The PD Clinical Data Interchange Standards Consortium (CDISC)standards will enable the integration of the studies in a unique database.

Model: The time course of the harmonized parts II and III of the Unified Parkinson’sDisease Rating Scale (UPDRS) and MDS-UPDRS will be described using a non-linear mixed-effects regression.

Covariates: Subjects’ demographic, genetic, biomarker and clinical characteristics to betested as predictors of disease severity at baseline and/or intrinsic rate of diseaseprogression are presented on Figure 4.

Methods

Conclusion

• Up to this moment, patient-level data of PPMI, PRECEPT and CamPaIGN have beenintegrated using PD CDISC standard. Integration of ICICLE-PD, OPDC and the TrackingParkinson’s study will follow.

• The CPP integrated global database will result in a total of >6000 subjects into a unifieddatabase. Such database will expand the understanding of PD progression and allow acomprehensive investigation of subjects characteristics that predict of disease severityand/or rate of disease progression.

• An analysis of integrated subset – PRECEPT (n=191) and PPMI (n=481) – demonstratedthat subjects defined as SWEDD (scans without evidence of dopamine transporterdeficiency) have an average linear monthly progression in the harmonized motorscores that is 0.05 (90% CI: -0.04, 0.13) point/month or 0.13 point/month lower thanthat in subjects with dopamine transporter deficit (0.18 point/month; 90% CI: 0.14,0.21) (Figure 5). The work herein will provide a comprehensive evaluation of thefindings in the presence of additional studies and covariates, accounting for potentialnon-linearity in disease progression.

Results

Developing the quantitative drug development tools for PD through collaborative effortand regulatory review will enable optimized study design for trials targeting early stagePD.

(1) D.J. Conrado, M.O. Karlsson, K. Romero, C. Sarrc, J.J. Wilkins. Open Innovation:towards sharing of data, models and workflows. European Journal of PharmaceuticalSciences (accepted for publication).(2) D. Stephenson, M.T. Hu, K. Romero, K. Breen, D. Burn, et al. (2015) PrecompetitiveData Sharing as a Catalyst to Address Unmet Needs in Parkinson's Disease. J. Parkinson’sDis., 5(3): 581-594.

References

Figure 3Overarching CPP Roadmap to Build Quantitative Drug Development ToolsSelected studies at the current stage are PPMI, PRECEPT, OPDC, CamPaIGN, ICICLE-PD, and Tracking Parkinson’s (adapted from Reference 2)

Figure 5 Population predicted harmonized motor scores of PD patients in PPMI and PRECEPT

Shaded area is the 90% confidence interval (CI). Predictions are for a PRECEPT-like study with average age of 60 years old.

Figure 4Examples of subject’s characteristics to be tested as predictors of motor impairment in subjects with Parkinson