Phase 3 Clinical Study Protocol
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Takeda Vaccines Innovation for Global Impact
TAKEDA VACCINES INNOVATION FOR GLOBAL IMPACT CHOO BENG GOH, MD Regional Lead for Medical Affairs Asia, Global Vaccine Business Unit OUR MISSION Develop and deliver innovative vaccines that tackle the toughest problems in public health and improve the lives of people around the world 2 WE HAVE BUILT A GLOBAL VACCINE BUSINESS UPON A STRONG FOUNDATION IN JAPAN Global pivotal Phase 3 PARTNERSHIPS clinical trial of dengue ACQUISITIONS Polio vaccine vaccine candidate initiated: candidate Japan vaccine business Global vaccine business Dengue vaccine 20,100 participants in 8 Bill & Melinda Gates Foundation established established candidate countries in 2 regions Norovirus vaccine Zika vaccine candidate 1946 2012 candidate 2016 U.S. Government‐ BARDA 1947 2010 2014 2018 1st Takeda Multiple vaccine products Partnered with Japan Phase 3 clinical trial results of manufactured vaccine manufactured internally government to develop and dengue vaccine candidate is and marketed in Japan supply pandemic influenza expected in H2 FY18 vaccines for people in Japan 3 THE VACCINE MARKET IS AN ATTRACTIVE PLACE FOR INVESTMENT Vaccine sales growth projected at 7.1% between Durability in sales with limited impact 2017 and 2024, reaching $44.6 billions in 20241 of patent expiry Blockbuster potential in newly launched vaccines Threat of emerging and existing infectious diseases with epidemic potential 1 Evaluate Pharma report 2018 4 OUR STRATEGY Develop vaccines with global BUILD A GLOBAL TACKLE Target the greatest opportunity relevance and business potential PIPELINE -
HPV Vaccine Update
Dengue modeling Andrea Vicari Comprehensive Family Immunization Unit Family, Gender and Life Course Department Outline • Framing modeling within policy cycle • Purposes of infectious disease modeling • Overview of dengue modeling • Final considerations Five stages of a policy cycle Agenda setting • Problem recognition Policy formulation • Proposal of solution Decision-making • Choice of solution Policy implementation • Putting solution into effect Policy evaluation • Monitoring results Howlett & Ramesh, Studying public policy: Policy cycles and policy subsystems, 1995 Identify the decision situation and A decision- understand objectives analysis process Identify alternatives flowchart Decompose and model the problem: 1. Model of problem structure 2. Model of uncertainty 3. Model of preferences Choose best alternatives Sensitivity analysis Is further YES analysis necessary? NO Implement chosen alternative Clemen and Reilly, Making hard decisions, 2002. Main purposes of infectious disease modeling • To understand fundamental driving forces of disease ecology and epidemiology • To measure epidemiological parameters that cannot be directly measured with field or laboratory data • To make predictions of future disease incidence under specified conditions • To forecast impact of different prevention/control measures and their combination Adapted from: WHO-VMI Dengue Vaccine Modeling Group, PLoS Negl Trop Dis 2012, 6:e1450 Classical Ross-Macdonald model for malaria transmission (1) Classical Ross-Macdonald model for malaria transmission (2) m -
Dengue Vaccine: Global Development Update
REVIEW ARTICLE Asian Pacific Journal of Allergy and Immunology Dengue vaccine: Global development update Eakachai Prompetchara,1,2,3 Chutitorn Ketloy,3,4 Stephen J. Thomas,5 Kiat Ruxrungtham4,6 Abstract The first licensed dengue vaccine, CYD-TDV (Dengvaxia®), has received regulatory approval in a number of countries. However, this vaccine has some limitations. Its efficacy against DENV2 was consistently lower than other serotypes. Protective efficacy also depended on prior dengue sero-status of the vaccinees. Lower efficacy was observed in children with < 9 years old and dengue-naïve individuals. More importantly, risk of hospitalization and severe dengue was in- creased in the youngest vaccine recipients (2-5 years) compared to controls. Thus, the quest of a better vaccine candi- date continues. There are two live-attenuated vaccine candidates currently testing in phase III trial including DENVax, developed by US CDC and Inviragen (now licensed to Takeda) and TV003/TV005, constructed by US NIAID. In addi- tion, there are several phase I–II as well as preclinical phase studies evaluating vaccines for safety and immunogenicity, this include other live-attenuated platform/strategy, purified-inactivated viruses formulated with adjuvants, DNA vac- cine, subunit vaccine, viral vector and also heterologous prime/boost strategies. The major difficulties of dengue vaccine development are included the lack of the best animal model, various immune status of individual especially in endemic areas and clear cut off of protective immunity. Several research and development efforts are ongoing to find a better effec- tive and accessible dengue vaccine for people needed. Key words: Dengue vaccine, Live-attenuated virus, Inactivated virus, DNA vaccine, Subunit vaccine, Heterologous prime- boost From: is the result of worldwide transportation and travel, increas- 1 Department of Biochemistry and Microbiology, ing urbanization, as well as climate change which support Faculty of Pharmaceutical Sciences, Chulalongkorn University, 3 Bangkok, Thailand the spreading of Aedes mosquitoes. -
COVID-19 Vaccine-Mediated Enhanced Disease (VMED)
COVID-19 Vaccine-Mediated Enhanced Disease and Vaccine Effectiveness in the Vaccine Safety Datalink VSD Study #1341 PROTOCOL VERSION: 1.2 DATE: 27 April 2021 KEY STUDY STAFF Marshfield Clinic Research Institute (MCRI) Principal Investigator Edward Belongia, MD Co-Investigators Thomas Boyce, MD, MPH James Donahue, DVM, PhD Dave McClure, PhD Biostatistician Burney Kieke Jr., MS Project Managers Kayla Hanson, MPH Hannah Berger, MPH Data Manager Erica Scotty, MS Project Administrator Bobbi Bradley, MPH, MBA Vaccine Safety Datalink Collaborating Site Investigators and Project Managers Denver Health Joshua Williams, MD Jonathan Block, MEd, PMP Harvard Pilgrim Katherine Yih, PhD, MD Jessica LeBlanc, MPH HealthPartners Malini DeSilva, MD, MPH Leslie Kuckler, MPH Kaiser Permanente Matt Daley, MD Colorado Jo Ann Shoup, PhD Kaiser Permanente Nicky Klein, MD, PhD Northern California Kristin Goddard, MPH (AIM 2) Kaiser Permanente Stephanie Irving, MHS Northwest Tia Kauffman, MPH Kaiser Permanente Bruno Lewin, MD Southern California Cheryl Carlson, MPH (AIM 2) Denison Ryan, MPH Kaiser Permanente Lisa Jackson, MD, MPH Washington Erika Kiniry, MPH Centers for Disease Control and Prevention (CDC) Investigators Immunization Safety Jonathan Duffy, MD, MPH Office Michael McNeil, MD, MPH COVID-19 VE Team TBN Page ii PROTOCOL CHANGE HISTORY Version/Date Summary of Change 1.0/26 March 2021 Original protocol 1.1/21 April 2021 Minor revisions to eligibility criteria, exposure classification, and covariates 1.2/27 April 2021 Minor revisions to data lag and Aim 2 endpoints PROTOCOL SYNOPSIS Title: COVID-19 VMED and Vaccine Effectiveness in the VSD Short name: COVID-19 VMED/VE Study Rationale Vaccine-mediated enhanced disease (VMED) can result from immune complex formation and Th2 biased cellular immune response when vaccinated individuals become infected with the target pathogen. -
Developing a Protocol
FACILITATOR/MENTOR GUIDE Developing a Protocol Created: 2013 Developing a Protocol. Atlanta, GA: Centers for Disease Control and Prevention (CDC), 2013. DEVELOPING A PROTOCOL Table of Contents LEARNING OBJECTIVES ................................................................................................... 3 ESTIMATED COMPLETION TIME ........................................................................................ 3 TARGET AUDIENCE ......................................................................................................... 3 PRE-WORK AND PREREQUISITES ..................................................................................... 3 MATERIALS .................................................................................................................... 4 OPTIONS FOR FACILITATING THIS TRAINING ....................................................................... 4 ICON GLOSSARY ............................................................................................................ 5 ACKNOWLEDGEMENTS .................................................................................................... 5 FACILITATOR RESPONSIBILITIES ...................................................................................... 7 SECTIONS 1 & 2: INTRODUCTION AND OVERVIEW .............................................................. 8 SECTION 3: WRITING A PROPOSAL OR CONCEPT PAPER ..................................................... 9 SECTION 4: WRITING A DRAFT OF THE PROTOCOL ........................................................... -
Immunogenicity and Safety of a Tetravalent Dengue
Sanofi Pasteur CYD71CYD71 323 – CYD Dengue Vaccine Protocol Version 2.0 NCT Number: NCT02979535 Immunogenicity and Safety of a Tetravalent Dengue Vaccine Administered Concomitantly or Sequentially with Cervarix® in Healthy Female Subjects Aged 9 to 14 Years in Mexico Phase IIIb, randomized, open-label, multicenter study in 480 female subjects aged 9 to 14 years in Mexico. Clinical Trial Protocol Amendment 1 Health Authority File Number(s): Not Applicable. WHO Universal Trial Number (UTN): U1111-1161-3455 Trial Code: CYD71 Development Phase: Phase IIIb Sponsor: Sanofi Pasteur 14, Espace Henry Vallée, F-69007 Lyon, France Investigational Product(s): CYD Dengue Vaccine Form / Route: Powder and solvent for suspension for injection/Subcutaneous Indication For This Study: Prevention of dengue fever in 9- to 14-year-old children Manufacturer: Same as Sponsor Coordinating Investigator This is a multi-center trial with multiple investigators. Investigators and study sites are listed in the “List of Investigators and Centers Involved in the Trial” document. Sponsor’s Responsible Medical Officer: Sanofi Pasteur Address: Tel: Project Manager and Study Leader: Address: 14, Espace Henry Vallée, F-69007 Lyon, France Tel: Fax: Country Medical Affair Address: Tel: Confidential/Proprietary Information Page Page 11 ofof 99100 Sanofi Pasteur CYD71CYD71 323 – CYD Dengue Vaccine Protocol Version 2.0 Product Safety Officer: , Sanofi Pasteur Tel: Email: Clinical Trial Manager: Address: Tel: ext Version and Date of the Protocol: Version 2.0 dated 05 February 2018 This protocol version 2.0 is the first amendment to the initial trial protocol version 1.0, dated 04 January 2016. Information contained in this publication is the property of Sanofi Pasteur and is confidential. -
Guiding Dengue Vaccine Development Using Knowledge Gained from the Success of the Yellow Fever Vaccine
Cellular & Molecular Immunology (2016) 13, 36–46 ß 2015 CSI and USTC. All rights reserved 1672-7681/15 $32.00 www.nature.com/cmi REVIEW Guiding dengue vaccine development using knowledge gained from the success of the yellow fever vaccine Huabin Liang, Min Lee and Xia Jin Flaviviruses comprise approximately 70 closely related RNA viruses. These include several mosquito-borne pathogens, such as yellow fever virus (YFV), dengue virus (DENV), and Japanese encephalitis virus (JEV), which can cause significant human diseases and thus are of great medical importance. Vaccines against both YFV and JEV have been used successfully in humans for decades; however, the development of a DENV vaccine has encountered considerable obstacles. Here, we review the protective immune responses elicited by the vaccine against YFV to provide some insights into the development of a protective DENV vaccine. Cellular & Molecular Immunology (2016) 13, 36–46; doi:10.1038/cmi.2015.76 Keywords: dengue virus; protective immunity; vaccine; yellow fever INTRODUCTION from a viremic patient and is capable of delivering viruses to its Flaviviruses belong to the family Flaviviridae, which includes offspring, thereby amplifying the number of carriers of infec- mosquito-borne pathogens such as yellow fever virus (YFV), tion.6,7 Because international travel has become more frequent, Japanese encephalitis virus (JEV), dengue virus (DENV), and infected vectors can be transported much more easily from an West Nile virus (WNV). Flaviviruses can cause human diseases endemic region to other areas of the world, rendering vector- and thus are considered medically important. According to borne diseases such as dengue fever a global health problem. -
(Nitags) and WHO Immunisation-Related Advisory Committees
Summary of recent issues considered by four national immunisation technical advisory groups (NITAGs) and WHO immunisation-related advisory committees Prepared by the National Centre for Immunisation Research & Surveillance (NCIRS) Period of review: 16/05/2019 to 13/09/2019 Contents 1 Advisory Committee on Immunization Practices (ACIP), USA .......................................................... 3 1.1 ACIP meeting: 26-27 June 2019 ....................................................................................................... 3 1.2 Newly published or updated recommendations ............................................................................... 20 1.2.1 Japanese Encephalitis Vaccine: Recommendations of the Advisory Committee on Immunisation Practices.......................................................................................................................... 20 1.2.2 Human Papillomavirus Vaccination for Adults: Updated Recommendations of the Advisory Committee on Immunization Practice ..................................................................................................... 20 1.2.3 Prevention and Control of Seasonal Influenza with Vaccines: Recommendations of the Advisory Committee on Immunization Practices — United States, 2019–20 Influenza Season ............ 21 1.3 New or updated recommendations – not yet published ................................................................... 21 2 Immunisation Advisory Centre (IMAC), New Zealand .................................................................... -
Sample Size for Clinical Trials Martin Bland Prof
British Standards Institution Study Day Sample size for clinical trials Martin Bland Prof. of Health Statistics University of York http://martinbland.co.uk Outcome variables for trials An outcome variable is one which we hope to change, predict or estimate in a trial. Examples: • Systolic blood pressure in a hypertension trial • Caesarean section rate in an obstetric trial • Survival time in a cancer trial How many outcome variables should I have? If we have many outcome variables: • all possibilities would be covered, • we would be less likely to miss something, • the risk of false positives, finding an apparent effect when there is none in reality, would be increased. If we have few outcome variables: • the trial would be easier and quicker to check and analyse, • the trial would be cheaper, • the trial would be easier for research subjects, • we would avoid multiple testing and the high risk of a false positive result. We get round the problem of multiple testing by having one outcome variable on which the main conclusion stands or falls, the primary outcome variable. If we do not find an effect for this variable, the study has a negative result. Usually we have several secondary outcome variables, to answer secondary questions. A significant difference for one of these would generate further questions to investigate rather than provide clear evidence for a treatment effect. The primary outcome variable must relate to the main aim of the study. Choose one and stick to it. How large a sample should I take? A significance test for comparing two means is more likely to detect a large difference between two populations than a small one. -
Chapter 13*: EPIDEMIOLOGY
Monitoring Bathing Waters - A Practical Guide to the Design and Implementation of Assessments and Monitoring Programmes Edited by Jamie Bartram and Gareth Rees © 2000 WHO. ISBN 0-419-24390-1 Chapter 13*: EPIDEMIOLOGY * This chapter was prepared by D. Kay and A. Dufour Epidemiological data are frequently used to provide a basis for public health decisions and as an aid to the regulatory process. This is certainly true when developing safeguards for recreational waters where hazardous substances or pathogens discharged to coastal and inland waters may pose a serious risk of illness to individuals who use the waters. Epidemiological studies of human populations not only provide evidence that swimming-associated illness is related to environmental exposure, but also can establish an exposure-response gradient which is essential for developing risk- based regulations. Epidemiology has played a significant role in providing information that characterises risks associated with exposure to faeces contaminated recreational waters. The use of epidemiological studies to define risk associated with swimming in contaminated waters has been criticised because the approach used to collect the data is not experimental in nature. This perception is unlikely to change, given the highly variable environments where recreational exposures take place. Although the variables may be difficult to control, it is possible to carry out credible studies by following certain standard practices that are given below. This Chapter discusses the place of epidemiological investigations in providing information to support recreational water management and the scientific basis of "health-based" regulation. 13.1 Methods employed in recreational water studies Epidemiology is the scientific study of disease patterns in time and space. -
A Randomized, Observer Blind, Phase 3 Trial to Investigate the Immunogenicity and Safety of the Co-Administration of a Su
Title: A Randomized, Observer Blind, Phase 3 Trial to Investigate the Immunogenicity and Safety of the Co-administration of a Subcutaneous Tetravalent Dengue Vaccine Candidate (TDV) and an Intramuscular Hepatitis A Virus (Inactivated) Vaccine in Healthy Subjects Aged 18 to 60 Years in Non-endemic Country for Dengue NCT Number: NCT03525119 Protocol Approve Date: 11 March 2019 Certain information within this protocol has been redacted (ie, specific content is masked irreversibly from view with a black/blue bar) to protect either personally identifiable information (PPD) or company confidential information (CCI). This may include, but is not limited to, redaction of the following: Named persons or organizations associated with the study. Proprietary information, such as scales or coding systems, which are considered confidential information under prior agreements with license holder. Other information as needed to protect confidentiality of Takeda or partners, personal information, or to otherwise protect the integrity of the clinical study. TITLE PAGE PROTOCOL A Randomized, Observer Blind, Phase 3 Trial to Investigate the Immunogenicity and Safety of the Co-administration of a Subcutaneous Tetravalent Dengue Vaccine Candidate (TDV) and an Intramuscular Hepatitis A Virus (Inactivated) Vaccine in Healthy Subjects Aged 18 to 60 Years in Non-endemic Country(ies) for Dengue Immunogenicity and Safety of TDV Co-administered with a Hepatitis A Virus Vaccine Sponsor: Takeda Vaccines, Inc. 40 Landsdowne Street, Cambridge, MA 02139, USA Trial Identifier: -
Polyvalent Vaccines: High-Maintenance Heroes
PEARLS Polyvalent vaccines: High-maintenance heroes Barbara Schlingmann1¤, Katelyn R. Castiglia2, Christopher C. Stobart2, Martin L. Moore1,3¤* 1 Department of Pediatrics, Emory University, Atlanta, Georgia, United States of America, 2 Department of Biological Sciences, Butler University, Indianapolis, Indiana, United States of America, 3 Children's Healthcare of Atlanta, Atlanta, Georgia, United States of America ¤ Current address: Meissa Vaccines, Inc., South San Francisco, California, United States of America * [email protected] Introduction Vaccines are the most efficient tools to battle infectious diseases, with an estimated prevention of 2±3 million deaths per year [1]. Vaccine development, however, is costly and challenging, a1111111111 a1111111111 especially when the target pathogen can be subdivided into serologically distinguishable types a1111111111 (serotypes) that individually cause disease. Broad protection against serotypes can be achieved a1111111111 with either polyvalent vaccines of mixed serotype-specific immunogens or by discovery and a1111111111 use of a good immunogen conserved among serotypes. The latter is preferable but technically elusive. The poliovirus vaccine (containing three poliovirus serotypes) was first used as a poly- valent vaccine, beginning with the establishment of the Global Polio Eradication Initiative in 1988, reducing poliomyelitis by 99% [2]. Polyvalency has been arguably more useful than using conserved immunogens to target multiple serotypes, and polyvalency has steadily OPEN ACCESS advanced despite complexity and barriers to manufacturing. Here, we review challenges and Citation: Schlingmann B, Castiglia KR, Stobart CC, developments in polyvalent vaccines. Moore ML (2018) Polyvalent vaccines: High- maintenance heroes. PLoS Pathog 14(4): e1006904. https://doi.org/10.1371/journal. Challenges in polyvalent vaccine development ppat.1006904 Development of polyvalent vaccines poses several significant challenges (Fig 1A).