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Environmental Risk Assessment Deliberate Release of the GMO MVA
Environmental Risk Assessment Deliberate release of the GMO MVA-NSmut in a proposed clinical trial Conducted according to the principles described in: S.I. No. 500 of 2003 Genetically Modified Organisms (Deliberate Release) Regulations, 2003, Second Schedule Guideline on Scientific Requirements for the Environmental Risk Assessment of Gene Therapy Medicinal Products EMEA/CHMP/GTWP/125491/2006, 30 May 2008 Background MVA-NSmut is a recombinant virus vaccine derived from the attenuated virus, Modified Vaccinia Ankara. It has a genetic modification leading to the expression of NSmut – which encodes a 1,985 amino acid sequence encompassing NS3 to NS5b of the non-structural region of HCV genotype 1b – the commonest subtype of Hepatitis C virus in Europe. Modified Vaccinia virus Ankara (MVA) is a highly attenuated vector that is unable to replicate efficiently in human and most mammalian cells. Recombinant vaccines lead to protein expression that may have the native conformation, glycosylation and post-translational modifications that may occur during natural infection. They may lead to antibody responses as well as cytotoxic responses. These are non-replicating, non-integrating viral vectors. They are not expected to be able to persist in the body or the environment. This means that the vector will only be transiently present in the human body. The mechanism of action of both vectors is the expression of the HCV immunogen NSmut encoded by the viral vectors and stimulation of a humoral and cellular immune response to the expressed protein. Step 1 – Identification of wild type and GMO characteristics which may cause adverse effects MVA-NSmut is the GMO we propose to use. -
Vaccinia Virus
APPENDIX 2 Vaccinia Virus • Accidental infection following transfer from the vac- cination site to another site (autoinoculation) or to Disease Agent: another person following intimate contact Likelihood of Secondary Transmission: • Vaccinia virus • Significant following direct contact Disease Agent Characteristics: At-Risk Populations: • Family: Poxviridae; Subfamily: Chordopoxvirinae; • Individuals receiving smallpox (vaccinia) vaccination Genus: Orthopoxvirus • Individuals who come in direct contact with vacci- • Virion morphology and size: Enveloped, biconcave nated persons core with two lateral bodies, brick-shaped to pleo- • Those at risk for more severe complications of infec- morphic virions, ~360 ¥ 270 ¥ 250 nm in size tion include the following: • Nucleic acid: Nonsegmented, linear, covalently ᭺ Immune-compromised persons including preg- closed, double-stranded DNA, 18.9-20.0 kb in length nant women • Physicochemical properties: Virus is inactivated at ᭺ Patients with atopy, especially those with eczema 60°C for 8 minutes, but antigen can withstand 100°C; ᭺ Patients with extensive exfoliative skin disease lyophilized virus maintains potency for 18 months at 4-6°C; virus may be stable when dried onto inanimate Vector and Reservoir Involved: surfaces; susceptible to 1% sodium hypochlorite, • No natural host 2% glutaraldehyde, and formaldehyde; disinfection of hands and environmental contamination with soap Blood Phase: and water are effective • Vaccinia DNA was detected by PCR in the blood in 6.5% of 77 military members from 1 to 3 weeks after Disease Name: smallpox (vaccinia) vaccination that resulted in a major skin reaction. • Progressive vaccinia (vaccinia necrosum or vaccinia • In the absence of complications after immunization, gangrenosum) recently published PCR and culture data suggest that • Generalized vaccinia viremia with current vaccines must be rare 3 weeks • Eczema vaccinatum after vaccination. -
Development of a Synthetic Poxvirus-Based SARS-Cov-2 Vaccine
bioRxiv preprint doi: https://doi.org/10.1101/2020.07.01.183236; this version posted July 2, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. 1 Development of a Synthetic Poxvirus-Based SARS-CoV-2 Vaccine 2 Flavia Chiuppesi1, Marcela d’Alincourt Salazar1, Heidi Contreras1, Vu H Nguyen1, Joy Martinez1, 3 Soojin Park1, Jenny Nguyen1, Mindy Kha1, Angelina Iniguez1, Qiao Zhou1, Teodora Kaltcheva1, 4 Roman Levytskyy1, Nancy D Ebelt2, Tae Hyuk Kang3, Xiwei Wu3, Thomas Rogers4, Edwin R 5 Manuel2, Yuriy Shostak5, Don J Diamond1*, Felix Wussow1* 6 1Department of Hematology and Transplant Center, City of Hope National Medical Center, 7 Duarte CA 91010, USA; 2Department of Immuno-Oncology and 3Genomic core facility, 8 Beckman Research Institute of the City of Hope, Duarte CA 91010, USA; 4University of 9 California San Diego, School of Medicine, Division of Infectious Diseases and Global Public 10 Health, 9500 Gilman Dr, La Jolla, CA 92093; Scripps Research, Department of Immunology and 11 Microbiology, 10550 N Torrey Pines Rd, La Jolla, CA 92037; 5Research Business Development, 12 City of Hope, Duarte CA 91010, USA 13 *co-corresponding and co-senior authors 14 One sentence summary: Chiuppesi et al. demonstrate the use of a uniquely designed and fully 15 synthetic poxvirus-based vaccine platform to rapidly develop a SARS-CoV-2 vaccine candidate 16 enabling stimulation of potent humoral and cellular immune responses to multiple antigens. -
210129 Geovax GV-MVA-VLP™ White Paper
GEOVAX MVA-VLP AND MVA PLATFORMS EXECUTIVE SUMMARY GeoVax utilizes Modified Vaccinia Ankara (MVA) as a recombinant viral vector to express vaccine antigens of interest in a format suitable for global use. Our MVA-Virus-Like Particle (GV-MVA-VLP™) platform combines the outstanding safety of MVA with the enhanced immunogenicity of vaccine antigens displayed on the surface of VLPs. The VLPs are generated in vivo within the vaccinated patients. Research in animal models has demonstrated vaccines based on the MVA-VLP platform to be safe, immunogenic and to induce immunity capable of protecting animals against a variety of disease-causing agents. For Ebola, Lassa Fever and Zika virus, single inoculations of GeoVax MVA-VLP based vaccines fully protected animals against lethal viral challenges. The MVA-VLP vaccines induce both humoral (antibody) and cellular (T-cell) immune responses characterized by high magnitude and durability. Our GOVX-B11 vaccine for HIV has demonstrated outstanding safety and immunogenicity in multiple clinical trials and is currently being tested in clinical trials as a component in preventive vaccine and as a therapeutic, working toward a “functional cure.” INTRODUCTION MVA is a highly attenuated strain of the vaccinia virus (VV) that was developed specifically for use in humans as a vaccine against smallpox. This viral vaccine vector is unable to replicate in human cells which imparts exceptional vaccine safety, while readily replicating in cells of avian origin, such as duck and chicken cell lines, facilitating efficient, high volume manufacturing. MVA is approved and licensed as a smallpox vaccine in Europe and the USA and is the preferred product for individuals that may not readily tolerate the VV vaccine, such as the elderly, immune compromised and those with various co-morbidities. -
Evaluation of Recombinant Vaccinia Virus—Measles Vaccines in Infant Rhesus Macaques with Preexisting Measles Antibody
Virology 276, 202–213 (2000) doi:10.1006/viro.2000.0564, available online at http://www.idealibrary.com on Evaluation of Recombinant Vaccinia Virus—Measles Vaccines in Infant Rhesus Macaques with Preexisting Measles Antibody Yong-de Zhu,*,1 Paul Rota,† Linda Wyatt,‡ Azaibi Tamin,† Shmuel Rozenblatt,‡,2 Nicholas Lerche,* Bernard Moss,‡ William Bellini,† and Michael McChesney*,§,3 *The California Regional Primate Research Center and §Department of Pathology, School of Medicine, University of California, Davis, California 95616; †Measles Virus Section, Respiratory and Enteric Viruses Branch, Division of Viral and Rickettsial Diseases, National Center for Infectious Diseases, Centers for Disease Control and Prevention, Atlanta, Georgia 30333; and ‡Laboratory of Viral Diseases, National Institute of Allergy and Infectious Diseases, National Institutes of Health, Bethesda, Maryland 20892 Received June 20, 2000; returned to author for revision July 28, 2000; accepted August 1, 2000 Immunization of newborn infants with standard measles vaccines is not effective because of the presence of maternal antibody. In this study, newborn rhesus macaques were immunized with recombinant vaccinia viruses expressing measles virus hemagglutinin (H) and fusion (F) proteins, using the replication-competent WR strain of vaccinia virus or the replication- defective MVA strain. The infants were boosted at 2 months and then challenged intranasally with measles virus at 5 months of age. Some of the newborn monkeys received measles immune globulin (MIG) prior to the first immunization, and these infants were compared to additional infants that had maternal measles-neutralizing antibody. In the absence of measles antibody, vaccination with either vector induced neutralizing antibody, cytotoxic T cell (CTL) responses to measles virus and protection from systemic measles infection and skin rash. -
(ACIP) General Best Guidance for Immunization
Appendix 1: Glossary Adverse event. An undesirable medical condition that occurs following vaccination which might be truly caused by a vaccine, or it might be pure coincidence. Adverse reaction. An undesirable medical condition that has been demonstrated to be caused by a vaccine. Evidence for the causal relation is usually obtained through randomized clinical trials, controlled epidemiologic studies, isolation of the vaccine strain from the pathogenic site, or recurrence of the condition with repeated vaccination (i.e., rechallenge); synonyms include side effect and adverse effect. Adjuvant. A vaccine component distinct from the antigen that enhances the immune response to the antigen. Antitoxin. A solution of antibodies against a toxin. Antitoxin can be derived from either human (e.g., tetanus immune globulin) or animal (usually equine) sources (e.g., diphtheria and botulism antitoxin). Antitoxins are used to confer passive immunity and for treatment. Hyperimmune globulin (specific). Special preparations obtained from blood plasma from donor pools preselected for a high antibody content against a specific antigen (e.g., hepatitis B immune globulin, varicella-zoster immune globulin, rabies immune globulin, tetanus immune globulin, vaccinia immune globulin, cytomegalovirus immune globulin, botulism immune globulin). Immune globulin. A sterile solution containing antibodies, which are usually obtained from human blood. It is obtained by cold ethanol fractionation of large pools of blood plasma and contains 15%-18% protein. Intended for intramuscular administration, immune globulin is primarily indicated for routine maintenance of immunity among certain immunodeficient persons and for passive protection against measles and hepatitis A. General Best Practice Guidelines for Immunization: Appendix 1: Glossary 189 Immunobiologic. Antigenic substances (e.g., vaccines and toxoids) or antibody- containing preparations (e.g., globulins and antitoxins) from human or animal donors. -
The Study of Thimerosal and Autism
The Study of Thimerosal and Autism Documentation and Codebook for the Child Vaccination Histories File: Cambridge, MA Lexington, MA Hadley, MA Bethesda, MD September 3, 2010 Chicago, IL Prepared for Frank DeStefano National Immunization Program Centers for Disease Control and Prevention Atlanta, GA 30329 Prepared by Cristofer Price Yeqin He Abt Associates Inc. Suite 800 North 4550 Montgomery Avenue Bethesda, MD 20814-3343 This documentation was prepared by Cristofer Price and Yeqin He of Abt Associates Inc. for the Immunization Safety Office (ISO) of the Centers for Disease Control and Prevention (CDC) Atlanta, GA 30333. Questions about the documentation, substantive questions, or technical issues regarding the data file should be directed to the CDC ISO, MS D26, 1600 Clifton Road, Atlanta, Georgia 30333 (404-639-8256). Suggested Citation for Study of Thimerosal and Autism Public Use Data Set: Price, C.S., He, Y. (2010) The Study of Thimerosal and Autism: Data Set Documentation. Bethesda MD: Abt Associates, Inc; Prepared for the National Immunization Program Centers for Disease Control and Prevention Atlanta, GA Abt Associates Inc. 1 Documentation and Codebook for the Child Vaccination Histories File 1. Introduction to the Child Vaccination Histories File............................................... 2 2. File Formats and Variable Descriptions................................................................... 4 1. Introduction to the Child Vaccination Histories File The Child Vaccination Histories File contains the data that were used to construct the measures of early childhood (postnatal) exposure to ethylmercury from thimerosal- containing vaccines and immune globulin preparations received by the study children during the age range spanning birth to 20 months. The Child Vaccination Histories File is provided with the public use data in order to make the calculation of exposure amounts transparent, and so that analysts have the potential to calculate alternative measures of exposure1. -
Investigator's Brochure: Vaccinia Immune Globulin
Use of Vaccinia Immune Globulin (VIG) For Treatment of vaccinia vaccine complications and for prophylaxis of unvaccinated individuals exposed to Orthopoxviruses responsive to VIG Investigational New Drug (IND) Proposal TABLE OF CONTENTS: 1. Introduction............................................................Page 2 2. Effects in Humans..................................................Pages 3 - 4 3. Nonclinical Studies.................................................Pages 5- 6 4. Rationale and Objectives.........................................Page 7 5. Study Design... .......................................................Page 8 6. Additional Information - Selected References..........Pages 9 - 15 Page -1- INVESTIGATOR’S BROCHURE INTRODUCTION This Investigational New Drug Application is being filed in order to make existing stocks of Vaccinia Immune Globulin available for treatment of complications of vaccinia vaccination or exposure to vaccinia or related pox viruses. Vaccinia Immune Globulin (VIG) (Human) is an isotonic sterile solution of the immunoglobulin fraction of plasma from persons vaccinated with vaccinia vaccine. The current lot, 0448A101A, was released as a licensed product by Baxter Healthcare Corporation in 1995. In 1998 a slight discoloration was noted in this product and the FDA placed a hold on its release. Consequently, VIG can no longer be entered into interstate commerce under terms of the approved license and must therefore revert to IND (investigational new drug) status. CDC follows the June 22, 2001 Recommendations of the Immunization Practices Advisory Committee (ACIP) for Vaccinia (Smallpox) Vaccine. Since 1983 CDC has provided vaccinia vaccine for laboratory workers directly involved with smallpox or closely related orthopox viruses (e.g., monkeypox and vaccinia). Due to clinical trials involving recombinant vaccinia virus vaccines, health-care workers (e.g., physicians and nurses) may now be exposed to vaccinia and recombinant vaccinia viruses and may be considered for vaccinia vaccination. -
Mass Vaccination: When and Why
CTMI (2006) 304:1–16 Mass Vaccination: When and Why D. L. Heymann (u)·R.B.Aylward World Health Organization, 1211 Geneva 27, Switzerland [email protected] 1 The Concept of Mass Vaccination ............................. 2 2 Mass vaccination in the Twentieth Century—Smallpox Eradication .... 3 3 Routine Immunization and Mass Vaccination Today— A Necessary Alliance ..................................... 4 4 Preventing Emerging Outbreaks ............................. 5 4.1 Meningitis............................................. 6 4.2 Influenza.............................................. 7 4.3 YellowFever............................................ 8 4.4 DisplacedPersons....................................... 8 4.5 ThreatofDeliberatelyCausedOutbreaks....................... 9 5 Mass Vaccination to Accelerate Disease Control .................. 10 5.1 NewVaccineIntroduction.................................. 11 5.2 Eradication............................................ 12 5.3 MortalityReduction...................................... 13 5.3.1 Measles............................................... 13 5.3.2 MaternalandNeonatalTetanus.............................. 13 6 Mass Vaccination in the Twenty-First Century .................... 13 References .................................................. 14 Abstract With increased demand for smallpox vaccination during the nineteenth cen- tury, vaccination days—early mass vaccination campaigns—were conducted over time-limited periods to rapidly and efficiently protect maximum numbers of suscepti- ble persons. -
Impact of Vaccine Type on HIV-1 Vaccine Elicited Antibody Durability
www.nature.com/scientificreports OPEN Impact of vaccine type on HIV‑1 vaccine elicited antibody durability and B cell gene signature Rohith Palli1,2,15, Kelly E. Seaton3,15, Michael S. Piepenbrink4, John Hural5, Paul A. Goepfert4, Fatima Laher6, Susan P. Buchbinder7, Gavin Churchyard8, Glenda E. Gray6,9, Harriet L. Robinson10, Yunda Huang5, Holly Janes5,11, James J. Kobie4, Michael C. Keefer12, Georgia D. Tomaras3 & Juilee Thakar13,14* Efcacious HIV‑1 vaccination requires elicitation of long‑lived antibody responses. However, our understanding of how diferent vaccine types elicit durable antibody responses is lacking. To assess the impact of vaccine type on antibody responses, we measured IgG isotypes against four consensus HIV antigens from 2 weeks to 10 years post HIV‑1 vaccination and used mixed efects models to estimate half‑life of responses in four human clinical trials. Compared to protein‑boosted regimens, half‑lives of gp120‑specifc antibodies were longer but peak magnitudes were lower in Modifed Vaccinia Ankara (MVA)‑boosted regimens. Furthermore, gp120‑specifc B cell transcriptomics from MVA‑boosted and protein‑boosted vaccines revealed a distinct signature at a peak (2 weeks after last vaccination) including CD19, CD40, and FCRL2‑5 activation along with increased B cell receptor signaling. Additional analysis revealed contributions of RIG‑I‑like receptor pathway and genes such as SMAD5 and IL‑32 to antibody durability. Thus, this study provides novel insights into vaccine induced antibody durability and B‑cell receptor signaling. While vaccine-elicited antibody durability has been achieved for licensed vaccines such as yellow fever, measles, smallpox, and Hepatitis B, elicitation of long-lived, functional antibody responses with candidate HIV-1 vac- cine regimens remains elusive1,2. -
Chapter 7. Developments in Vaccination and Control Between
CHAPTER 7 DEVELOPMENTS IN VACCINATION AND CONTROL BETWEEN 1900 AND 1966 Contents Page Introduction 277 Vaccine production and quality control before 1967 278 Production of vaccine lymph 279 Preparation of liquid vaccine 282 Preparation of dried vaccine 283 Quality control 289 Vaccination techniques before 1967 291 Vaccination site 291 Methods of vaccination 292 Age for primary vaccination 293 Interpretation of the results of vaccination 294 Complications of vaccination 296 Types of complication 299 Frequency of complications 302 Contraindications to vaccination 307 Prevention and treatment of complications 308 Reconsideration of vaccination policies in non-endemic countries 309 Complications : the overall picture 310 Programmes for vaccination and revaccination 311 Vaccination and revaccination of the general public 311 Simultaneous vaccination with several antigens 311 Vaccination of international travellers 312 INTRODUCTION The latter half of the 19th century saw the emergence of microbiology and immunology By the year 1900 vaccination was in as scientific disciplines . Because of their widespread use throughout the industrialized familiarity with vaccination, many of the countries as well as in some cities in what were pioneers in these new sciences used vaccinia then the colonies of various European virus for their studies (see Chapter 2) . In powers . Although variolation was no longer consequence, the empirical practices of Jenner practised in Europe and North America, it and his early followers were placed on a more was still widely employed in many parts of scientific basis . Vaccine production was no Africa and Asia . Smallpox persisted as an longer the province of the local physician, endemic disease in virtually every country of who had maintained the virus by arm-to-arm the world (see Chapter 8, Fig. -
INTRODUCTION We Invite You to Take Part in a Research Study at The
CONSENT TO PARTICIPATE IN A CLINICAL RESEARCH STUDY MEDICAL RECORD • Adult Patient or • Parent, for Minor Patient INSTITUTE: National Cancer Institute STUDY NUMBER: 16-C-0035 PRINCIPAL INVESTIGATOR: Ravi Madan, M.D. STUDY TITLE: Prostvac in Patients with Biochemical Recurrent Prostate Cancer Continuing Review Approved by the IRB on 09/23/20 Amendment Approved by the IRB on 06/12/18 (H) Date posted to web: 9/26/20 Standard INTRODUCTION We invite you to take part in a research study at the National Institutes of Health (NIH). First, we want you to know that: Taking part in NIH research is entirely voluntary. You may choose not to take part, or you may withdraw from the study at any time. In either case, you will not lose any benefits to which you are otherwise entitled. However, to receive care at the NIH, you must be taking part in a study or be under evaluation for study participation. You may receive no benefit from taking part. The research may give us knowledge that may help people in the future. Second, some people have personal, religious or ethical beliefs that may limit the kinds of medical or research treatments they would want to receive (such as blood transfusions). If you have such beliefs, please discuss them with your NIH doctors or research team before you agree to the study. Now we will describe this research study. Before you decide to take part, please take as much time as you need to ask any questions and discuss this study with anyone at NIH, or with family, friends or your personal physician or other health professional.