Opportunities and Challenges for Manufacturing Scale Up of CAR T Cells. Mark Dudley Institute of Medicine March 1, 2016

Similar documents
Challenges associated with supply to larger patients populations: Elements of the CTL019 experience

CMC Considerations for Manufacturing of CAR T-Cell Product

Quality development considerations - Regulatory perspective

Regulatory Approval of Modern Gene-Based Cancer Immunotherapies CAR T Cells A product perspective

Regulatory considerations for manufacturing and testing of investigational chimeric antigen receptor (CAR) T-cell products

Clinical Trial Design, Approval Process and Trial Conduct

Personalized CAR-T Immunotherapy Platform

Comparability Studies for Autologous Cell Therapy Products. Chris Shen July, 2017

The Early Chimeric Antigen Receptor (CAR) T-cell Experience From An Academic Perspective. CARs: LEARNING TO DRIVE

Challenges in Commercialization of Autologous Cell Therapy Products. Bryan Silvey & Kanti Thirumoorthy Kite Quality

Development of non-substantially manipulated cell-based ATMPs 1 : flexibility introduced via the application of the risk-based approach

London, 11 October 2006 Doc. Ref. EMEA/CHMP/BWP/271475/2006 COMMITTEE FOR MEDICINAL PRODUCTS FOR HUMAN USE (CHMP)

Specialty Lab Services. Deep science at scale

BIOSTATISTICAL METHODS

Integration of work flows for the generation of gene-modified cell products

BIOSTATISTICAL METHODS FOR TRANSLATIONAL & CLINICAL RESEARCH

Whitepaper. Small Molecule Vs Cell Therapy Clinical Trial Supply Chain. Martin Lamb, Executive Vice President for Sales and Marketing

Devices and Manufacturing Equipment Used for Production of Immune Cell Therapy and Cell Expansion: Scientific/User Issues

Docket #: FDA-2018-D-3268

Current Considerations on Chemistry, Manufacturing and Control of Cell Therapy Products (CTPs)

Technology of cell therapies

Orchard Therapeutics. Overcoming the complex challenges associated with ex vivo gene therapies. Adrien Lemoine VP Business Development & Operations

Implications for Preclinical and Clinical Programs. Novartis Pharmaceuticals Oncology Business Unit June 2, 2011

From regulation to reality challenges in translation of gene therapy and cell-based medicinal products

How Targets Are Chosen. Chris Wayman 12 th April 2012

Advancing Manufacturing for Advanced Therapies

OUR MISSION OUR EXPERTISE OUR SERVICES

ABOUT GLYCOSTEM. Company Overview

Innovations in Early Clinical Trial Designs: Application to New Drug Development in Pharma

FDA Public Hearing: Approval Pathway for Biosimilar. Products. November 2-3, 2010

CQAs for C&GT Products to Enable Comparability Assessment. Ben Thompson Snr Director, Biopharmaceutical CMC RA GlaxoSmithKline

"From Bedside to Bench and Back: regulatory requirements for collaborations between pharma industry and academia

Cell and gene therapy: scaling up and moving to mass production

DMTC Technology Readiness Levels Guideline

Comparability Is Not a Nightmare, Just Think Ahead!

Forthcoming Calls for Proposals (10/11) Barcelona 28 June 2013

Course Agenda. Day One

Regulatory requirements for early stage clinical trials with cell-based medicinal products. Christopher A Bravery

LETTER OF INTENT Early Phase Clinical Trials 2018

Global Regulatory Perspective Workshop

Industry Academic Collaboration: A Key to Successful Involvement of Patients Early in Clinical Development

Pre-ASH POV: Efficient Clinical Trial and Approval Strategies in Oncology

Novartis Business Services HR University Relations. Clinical Sciences and Innovation. Postgraduate Program

Corporate Presentation. April 2016

REIMAGINING DRUG DEVELOPMENT:

Basis for Setting Acceptance Criteria. Basis for setting acceptance criteria

Consortia-Based Strategies in Neurodegenerative Diseases: Critical Path Institute s Track Record in Collaborative Efforts

This presentation contains forward-looking statements within the meaning of the "safe harbor" provisions of the Private Securities Litigation Reform

Exceptions for inventions involving the treatment of humans. James Love, KEI

Assessing and Controlling Potency of Vector and Drug Product for Chimeric Antigen Receptor T Cells

Immuno-Oncology Program

COMMITTEE FOR PROPRIETARY MEDICINAL PRODUCTS (CPMP)

7/24/2014. Scientifically driven proof of principle trials: Current and future value to drug development. Disclosure Information

Making Hope A Reality bluebird style. November, 2017 Nasdaq : BLUE

Harmonizing clinical trials for Biogenerics. Dr. Akhilesh Sharma M.D.;C Clin. Research & P.V. (UCBC - USA & Luton - UK)

Cell Therapy Product Manufacturing Considerations. July 17, 2017 CMC Strategy Forum Mo Heidaran, Ph.D.

ADVANCES IN PHARMACEUTICAL INDUSTRY FOR WELLNESS AND SUSTAINABLE HEALTH

Maximizing opportunities towards achieving clinical success D R U G D I S C O V E R Y. Report Price Publication date

The Promise of Novel Clinical Trial Designs. Michael Parides, Ph.D. Mount Sinai School of Medicine

US FDA: CMC Issues for INDs

Comparability for Advanced Therapy Medicinal Products. Christopher A Bravery

Celerion s Symposia Series: Bridging the Gap from Phase I to Proof-of-Concept. San Francisco, CA Tue 8 th, Apr 2014

Integration of FDSS7000 into a modular robotic system for Open Innovation drug discovery

Academic and Industry Partnerships

Regulation of advanced blood cell therapies

Lifecycle Management: Challenges and Lessons Learned from Kymriah (CD19 CAR T)

Rebiotix: Business, Regulatory and Clinical Challenges in Commercializing a Microbiota Based Drug. May 2016

Panama City, Panama April, 12-15, Marcelo Mario Matos Moreira. The Brazilian Health Surveillance Agency (ANVISA)

Specifications. February 19, 2015, TOKYO, JAPAN. Takao Hayakawa, Ph.D. Director, Pharmaceutical Research and Technology Institute, Kindai University

Cell Therapy Services Your Product. Our Passion.

FDA s Critical Path Initiative and Drug Development

SMEs in IMI2 Calls for Proposals

Update from the Center for Biologics Evaluation and Research (CBER) Peter Marks, M.D., Ph.D. GMP By The Sea 2017

Linker p. 177 Helper Lipid p. 178 Delivery to Target Cells p. 180 Cell Entry p. 182 Receptor-Mediated Uptake p. 182 Endosomai Release p.

Addressing Variability in Cell and Gene Therapy Manufacturing Carl Burke

INNOVATIVE STATISTICAL DESIGN & ANALYSIS IN PD

Standardization of Flow Cytometry Workflows for Cell Therapy Applications Novartis Cell and Gene Therapies Unit (CGTU) Sadik H. Kassim, Senior Fellow

Considerations in Product Development with Advanced Therapies and Cancer Vaccines

CRITERIA FOR PROJECT SELECTION

AAV vectors for gene therapy. Any Gene to Any Cell

Raw materials for cell & gene therapy: exploring regulatory and supply issues

Topics Covered. FDA s Role in Expediting the Development of Novel Medical Products. How a Regulatory Agency Comes into Existence 3/5/2018

FDA Perspective on the Preclinical Development of Cancer Vaccines

Application of PGx in PK at FDA: Experience and Expectations

Advanced Therapies in Europe

Reflection paper on co-development of pharmacogenomic biomarkers and Assays in the context of drug development

Comparative Oncology Program

Justification of Specifications (JOS): What Product and Process Development was all About. Christopher A Bravery

COMMITTEE FOR MEDICINAL PRODUCTS FOR HUMAN USE (CHMP) GUIDELINE ON THE NON-CLINICAL DEVELOPMENT OF FIXED COMBINATIONS OF MEDICINAL PRODUCTS

Characterization of Biotechnology Products: A Regulatory Perspective

PACT. PACT Program. Production Assistance for Cellular Therapies

MAIN OUTCOMES OF DISCUSSION FROM WHO CONSULTATION ON NUCLEIC ACID VACCINES. I. Knezevic, R. Sheets Feb, 2018 Geneva, Switzerland

Outcomes in Mesenchymal Stem Cell Manufacturing. Athena Russell, MT(AAB) Human Cellular Therapy Laboratory Mayo Clinic Jacksonville, FL

Accelerating Therapeutic Development through a look at current Regulatory Applications A Non-Clinical Perspective

Engage with us on Twitter: #Molecule2Miracle

An Overview of Chimeric Antigen Receptor T-cells: CAR-T-ing Away Cancer

CHANGES TO A GENE THERAPY MEDICINAL PRODUCT: REGULATORY VIEWS

An Introduction to Clinical Research and Development

Recent years have witnessed an expansion in the disciplines encompassing drug

Agreed with W. Cornell Graduate Program and Tri-I

Transcription:

Opportunities and Challenges for Manufacturing Scale Up of CAR T Cells Mark Dudley Institute of Medicine March 1, 2016

Disclaimer This document represents proposals for discussion by Management. Strategies/Concepts/Projects described herein may need significant modifications before implementation, and no project should be considered final until it has been fully approved by the appropriate Novartis review process. Novartis will only implement programs that are fully consistent with all applicable laws and regulation as well as Novartis companies policies. 2 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

CTL019 Effective Therapy Results updated as of December 2015 Early results from UPENN/NVS studies Heavily pretreated patients, r/r disease, many pt transplant CRs mostly durable pall responses associated with CRS Indication Overall Response Percent Response Pediatric ALL 55/59 (all CR) 93% DLBCL + FL 15/26 (most CR) 58% CLL 10/24 (5 CR) 42% Complexity of Large Scale Manufacturing Academic manufacturing processes cannot fulfill global demands Manufacturing processes, product, and process characterization continue to evolve Regulatory requirements as they apply to cell and gene therapies often require clarification Current manufacturing processes are mostly manual; there is a lack of validated automated manufacturing solutions Complex logistics 3 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

Transition from Ph1 to Commercial Poor understanding of critical quality attributes and/or target product profile No predictive in vitro potency assay No preclinical model of toxicity CART19 Process Lymphocyte collection and enrichment CAR genetic modification T cell expansion Harvest/freeze and ship The aims of Phase 1 studies in cell and gene therapies may include safety endpoints, scientific discovery, demonstration of manufacturing success, or therapeutic proof of concept. Cell products manufactured for Phase 1 trials often rely on non-validated processing steps or exploratory reagents. In cell and gene therapies where the administered product may proliferate and expand in vivo after infusion, there may be a complex or poorly understood relationship between the dose of the administered product and its clinical impact. 4 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

Enabling Global Manufacturing Strategy Process Development Journey from Science to Industrialization small BIG Science Key Technologies Automation, & Integration Mfrg. Suite Design & Operations Global Manufacturing of the future Development Operations 5 2016 Cell Culture World Congress Stefan Wildt 23 Feb '16 Manufacturing Autologous Immunotherapy

Transition from Ph1 to Commercial Process Map Through strong collaboration of diverse technology transfer team participants from Academia, GMP production, Technical Development, Quality Assurance and Regulatory, we developed a step-based approach for process transfer 6 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

Transition from Ph1 to Commercial Chain of Custody Process scale out requires expanded logistics and infrastructure After gathering data from the academic process, we focused on further enhancing control and consistency of the process. Areas of enhancement included closing of process steps through customized consumable and equipment solutions to enhance sterility assurance 7 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

RESULTS Successful Technology Transfer Clean room gowning Patient-derived autologous CTL019 cells for treatment of pediatric patients with r/r ALL enrolled in a US-based, multicenter, phase II clinical trial have now been processed in the industry setting and infused into patients The cell expansion growth curves and release criteria on the cell products obtained in this large scale manufacturing facility were within range of those obtained at the academic facility CAR T cell expansion within expected range 8 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

CTL019 Manufacturing Challenges and Process Development Goals Lymphocyte Collection & Enrichment Control the variability of the incoming product: Indication + patientspecific + collection center Process characterization: Understand and control cell purity, phenotype, transduction rate, growth profile Genetic Modification with CAR Harvest & Formulation Activation, Expansion Product characterization: Understand and control Product CQA, ensure required yield and quality, integrate analytics to correlate with patient outcome Raw materials: Ensure robust and reliable raw materials sourcing, access to LV supply, GMP-quality ancillary reagents Process Development Goals 1. Imperatives: ensure clinical efficacy and product safety 2. Improve all unit operations, starting with most critical pain points 3. Use deep analytics to define design space, characterize and understand the product, and control and improve the process 4. Automate, functionally close and streamline the process 9 2016 Cell Culture World Congress Stefan Wildt 23 Feb '16 Manufacturing Autologous Immunotherapy

Clinical and Process Translation in Cell Therapies Translation from the Clinic to the Process to Improve Patient Outcomes Non-pivotal Correlation Pivotal Clinical trial Process development Development Operations Exploratory non-pivotal trials Validate new targets and receptor constructs. Identify biomarkers and clinical correlates Test combination therapies and novel immunotherapy agents Evaluate new process and technologies Scale Up and Confirmatory trials Cost reduction and improved quality/safety product profile Rapid production times and better patient/physician experience Improved process reliability, with fewer product manufacturing deviations and failures Possibility for increased understanding of products with potential to create new therapeutic opportunities 10 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

Summary: Scale Up in Cell Therapies Improving Patient Outcomes and Increasing Manufacturing Throughput Non-pivotal trial Process Innovation & Dev. Patient & Therapy Data Pivotal Trial Late Process Dev. Process & Product Data CTL019 is an effective therapy for some patients with CD19+ tumors in early phase clinical trials Manufacturing for Phase 1 trials is often complex, labor intensive, and utilizes incompletely qualified reagents and processes. Scale up and technical transfer has been successfully completed from UPENN to Novartis. This process was accomplished through a highly collaborative, multistep process Future Directions Highly controlled, standardized products enable deep analytics and correlative studies Conventional challenges as well as unique logistic and process challenges were addressed Emphasis was placed on safety and efficacy during scale up activities 11 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up

Acknowledgements Many thanks to: Stefan Wildt Nebojsa Milovic Jeffrey Boyd Bruce Levine Kathrin Jinivizian Margit Jeschke Megan Suhoski Zhaohui Zheng Daniel Stark Liza Loidolt Christopher Keir Patricia Wood 12 Institute of Medicine Mark Dudley March 1, 2016 Cell Therapy Scale Up