Adjuvant Technology for Pandemic Influenza Vaccines. Christopher Fox 5th WHO International Partners Meeting Belgrade, Serbia, March 27-29, 2012

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Transcription:

Adjuvant Technology for Pandemic Influenza Vaccines Christopher Fox 5th WHO International Partners Meeting Belgrade, Serbia, March 27-29, 2012 1

Who We Are Infectious Disease Research Institute (IDRI) Founded in 1993 by Steve Reed Over 100 employees, ~40 w/advanced, ~90 in R&D Funders include BARDA, NIH, BMGF, DARPA, PATH, WHO, M.J. Murdock Charitable Trust, Eli Lilly & Co., American Leprosy Missions, GSK, and other Public Private Partnerships. Annual budget for 2011 ~$25 million 60,000 square foot facility with state-of-the-art laboratories and instrumentation.

IDRI s Emphasis & Capabilities Areas of Emphasis Adjuvants Tuberculosis Leishmaniasis Leprosy Diagnostics Compound Screening Capabilities Adjuvants and Formulations Vaccinology& Antigen Discovery Process Sciences GMP Manufacturing Clinical/Regulatory/QA/QC Diagnostics Development Drug Discovery 3

IDRI s Accomplishments Developed next generation of adjuvants Defined ligands: TLRs (1/2/6, 4, 7/8, 9) and non-tlrs (QS21) Formulations: Emulsions,aqueous suspensions,alum, liposomes, solid lipid nanoparticles, hydrogels, creams First molecularly defined TB vaccine (in clinic) Most comprehensive and largest collection of TB antigens First defined leishmaniasis vaccine (in clinic) Diagnostic antigens on the market - Leishmaniasis - Chagas Disease 200 nm

Benefits of Adjuvants Increase antibody titers, cell-mediated immunity Shape immune response (e.g. Th1/Th2) Response broadening Enable immunization in weakened immune system (e.g. geriatric) Reduce antigen dose, number of doses H5N1+AS03 H5N1 Carter et al. BioDrugs 2008, 22:279 5

Adjuvant Production in Developing Countries IP / license Access Antigen nature Desired response Safety Preclinical screening Compatability/ stability/qc Knowledge base Experience Usability Adjuvant/ vaccine cost Intended route Scale-up feasibility GMP adjuvant supply Target population Adjuvant access, formulation/manufacturing know-how difficult to obtain IDRI provides public sector solution through adjuvant access and formulation technology transfer Diagram courtesty of Dr. Martin Friede

Clinical Trials Collaborator Disease Area Adjuvant Formulation Status Immune Design Seasonal influenza GLA-SE Complete Immune Design/Protein Pandemic influenza GLA-SE Complete Sciences Fiocruz Schistosomiasis GLA-SE Active: Subjects in follow-up Rockefeller University Adjuvant GLA-SE, GLA-AF, SE Active: Subjects in follow-up Imperial College, London HIV GLA-AF Active: Enrolling Sabin Vaccine Institute Hookworm GLA-AF Active: Enrolling IDRI - LEISH-F3 Leishmaniasis GLA-SE Active: Enrolling WRAIR (CelTOS) Malaria GLA-SE Active: Recruiting 7

Planned Clinical Trials Collaborator Disease Area Adjuvant Anticipated Formulation Start Date Status NIH/LMIV Malaria GLA-SE TBD Pending: Scientific rational for use of GLA under review at MVI European Vaccine Initiative (p27a) Malaria GLA-SE Q2 2012 Pending: Sponsor selection in progress European Vaccine Initiative (AMA-1 Malaria GLA-SE Q2 2012 Pending: Sponsor selection in progress Dico) Imperial College, London HIV GLA-AF Q2 2012 Pending: Manufacturing in March 2012 Imperial College, London (TaMoVac) HIV GLA-AF Q2 2012 Pending: Sponsor selection in progress IDRI MtbID93 Tuberculosis GLA-SE Q2 2012 Pending: Pre-IND meeting on March 5th 8

Response Broadening GLA increases and broadens HAI antibody responses to Fluzone(mice) Homologous Strain Drifted Strain

Technology to be Transferred: Squalene Nanoemulsion Manufactured by high pressure homogenization Homogeneous, metabolizable ~100 nm droplets Table 2. SE Release Test Methods and Specifications (4% v/v oil) Test Specification Appearance (visual) Milky-white liquid Squalene quantitation (GC) 27.5-41.2 mg/ml Osmolality (vapor pressure) 250-350 mmol/kg ph 5.0-6.5 Particle size (dynamic light scattering) 120 ± 40 nm 10

Emulsion Process Diagram Squalene PC Sonication Oil Phase Silverson Mixer 10,000RPM Crude Emulsion, Particle Size: >1um Microfluidizer 30,000PSI, 16 Passes Final Emulsion, Particle Size: ~100nm Sterile Filtration 0.2um Filter Aqueous Phase 25mM Ammonium Phosphate Buffer Pluronic F68 Glycerol Ready for Use 11

Pilot Batch Manufacture and QC 12 Photos courtesy of Adrian Onu

All 3 Batches Passed Specs Table 5. Emulsion Quality Control Batch 1 2 3 CI Visual Appearance Milky-white liquid Milky-white liquid Milky-white liquid IDRI Visual Appearance Milky-white liquid Milky-white liquid Milky-white liquid CI Particle Size (Z-avg, nm) IDRI Particle Size (Z-avg, nm) CI Squalene (mg/ml) IDRI Squalene (mg/ml) CI Osmolality (mmol/kg) IDRI Osmolality (mmol/kg) CI ph IDRI ph CI Pass/Fail IDRI Pass/Fail 101.1 101.1 34.3 33.6 310 306 5.6 5.7 Pass Pass 100.6 100.6 35.4 34.1 299 299 5.6 5.7 Pass Pass 101.2 102.5 35.3 34.9 309 310 5.6 5.7 Pass Pass Table 6. Adjuvant-Antigen Compatibility Batch Particle Size T=0 (Z-avg, nm) Particle Size T=8hrs (Z-avg, nm) Particle Size T=24hrs (Z-avg, nm) HA content T=0 (µg/ml) HA content T=8hrs (µg/ml) HA content T=24hrs (µg/ml) ph antigen ph antigenadjuvant mix Antigen alone - - - 36.4 35.5 37.7 7.2-1 106.2 105.7 105.9 37.9 36.4 40.3 7.2 7.0 2 109.7 105.7 105.4 37.5 34.2 38.5 7.2 7.1 3 107.2 107.4 108.4 33.3 36.6 35.5 7.2 7.0 13

Antigen-Adjuvant Compatibility etween antigen and adjuvant Vaccine Vaccine w/adjuvant 14

Adjuvant Training Course 15 Photos courtesy of Patty Hon

Key Elements of Training Program Identify appropriate adjuvant formulation Site visit at recipient prior to equipment installation Acquire equipment/supplies Training visit at IDRI (watch, do, teach) Translation of SOPs Site visit at recipient site for pilot batch production Present one-day adjuvant course Independent production of adjuvant at recipient site; verification at IDRI Regular communication (biweekly teleconf, emails) 16

Other Technology Transfer Projects India Adjuvant and antigen tech transfer (Gennova, Pune) Multiple antigens and adjuvants Construction of new 44,000 ft 2 vaccine formulation center 1st and 2nd Advanced Vaccinology Courses (CMC, Vellore) Brazil Antigen and adjuvant tech transfer (Instituto Butantan and Ourofino, São Paulo) Mexico and Central America Latin American Diploma on Vaccinology (Instituto Carlos Slim de Salud, Mexico City) 17

Conclusions IDRI-CI adjuvant technology transfer accomplished with modest budget (~$800,000) and accelerated timeline (10 months) Project is now in second phase: preclincial evaluation of adjuvanted vaccine IDRI-CI have developed a working model of adjuvant tech transfer that can be applied to other institutes; results and lessons learned will be published Technology transfer efforts further IDRI s reach in the developing world and help fulfill our mission 18

Acknowledgments Adrian Onu and colleagues Chuong Huynh, Mike O Hara, and colleagues. The research in this presentation was supported in part by a grant from BARDA, #1 IDSEP100008-01-00 www.nps.gov/noca Steve Reed Tom Vedvick Susan Baldwin Lisa McNeill Tony Phan Patty Hon Darrick Carter Sandra Sivananthan Susan Lin Traci Mikasa Tim Dutill Regie Castro Jeralyn Roco Karen Kinch Laura Shoemaker Anna Marie Beckmann Zack Sagawa Contact Information Email: cfox@idri.org Phone 1-206-330-2527 19