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1 English Package Insert BCG VACCINE (Freeze-Dried)
English Package insert BCG VACCINE (Freeze-Dried) DESCRIPTION BCG Vaccine is a live freeze-dried vaccine derived from attenuated strain of Mycobacterium bovis, (Bacillus Calmette Guerin) used for the prevention of tuberculosis. It contains Sodium Glutamate as stabilizer. The vaccine meets requirements of WHO when tested by the methods outlined in WHO, TRS 979 (2013). COMPOSITION Live, attenuated BCG Vaccine (Bacillus Calmette Guerin strain) Each 0.1 ml contains between: 2x105 and 8 x 105 C.F.U. Reconstitute with Sodium Chloride Injection Dose: 0.05 ml, Intradermal for infants under one year old 0.1 ml, Intradermal for children over one year of age and adult. RECONSTITUTION BCG vaccine vial of 20 doses (0.05 ml) for infants under one year old/ 10 doses (0.1 ml) for children over one year of age and adult to be reconstituted by adding the entire content of the supplied container of diluents (Sodium Chloride Injection). Carefully invert the vial a few times to resuspend freeze-dried BCG. Gently swirl the vial of resuspended vaccine before drawing up each subsequent dose. The resulting suspension should be homogenous, slightly opaque and colourless. Reconsitute only with diluent provided by manufacture. Using an incorrect diluent any result in damage to the vaccine and / or serious reactions to those receiving the vaccine. Use immediately after reconstitution. If the vaccine is not used immediately then it should be stored in the dark at 2º to 8º C for no longer than 6 hours (1 immunisation session). Any opened vial remaining at the end of a vaccination session (within six hours of reconstitution) must be discard. -
DRAFT Landscape of COVID-19 Candidate Vaccines – 10 August 2020
DRAFT landscape of COVID-19 candidate vaccines – 10 August 2020 28 candidate vaccines in clinical evaluation COVID-19 Vaccine Number of Route of Clinical Stage Vaccine platform Type of candidate vaccine Timing of doses developer/manufacturer doses Administration Phase 1 Phase 1/2 Phase 2 Phase 3 PACTR202006922165132 Non-Replicating University of Oxford/AstraZeneca ChAdOx1-S 1 IM 2020-001072-15 2020-001228-32 ISRCTN89951424 Viral Vector Interim Report NCT04383574 Sinovac Inactivated Inactivated 2 0, 14 days IM NCT04456595 NCT04352608 Wuhan Institute of Biological Inactivated Inactivated 2 0,14 or 0,21 days IM ChiCTR2000031809 ChiCTR2000034780 Products/Sinopharm Beijing Institute of Biological Inactivated Inactivated 2 0,14 or 0,21 days IM ChiCTR2000032459 ChiCTR2000034780 Products/Sinopharm NCT04283461 NCT04405076 NCT04470427 Moderna/NIAID RNA LNP-encapsulated mRNA 2 0, 28 days IM Interim Report 2020-001038-36 BioNTech/Fosun Pharma/Pfizer RNA 3 LNP-mRNAs 2 0, 28 days IM NCT04368728 ChiCTR2000034825 CanSino Biological Inc./Beijing Institute Non-Replicating ChiCTR2000030906 ChiCTR2000031781 Adenovirus Type 5 Vector 1 IM of Biotechnology Viral Vector Study Report Study Report Anhui Zhifei Longcom Adjuvanted recombinant protein 0,28 or 0,28,56 Protein Subunit 2 or 3 IM NCT04445194 NCT04466085 Biopharmaceutical/Institute of (RBD-Dimer) days DISCLAIMER: These landscape documents have been prepared by the World Health Organization (WHO) for information purposes only concerning the 2019-2020 pandemic of the novel coronavirus. Inclusion of any particular product or entity in any of these landscape documents does not constitute, and shall not be deemed or construed as, any approval or endorsement by WHO of such product or entity (or any of its businesses or activities). -
Editorial 10.5005/Ijmb-24-3-Iv
Editorial 10.5005/ijmb-24-3-iv COVID-19 Vaccines: Lets Go for It SARS CoV-2, also christened as COVID-19 is an acute respiratory illness caused by a novel coronavirus which originated from Wuhan China in 2019 and within a short span affected virtually each and every country around the globe, throwing healthcare preparedness and economy out of gear. The world was faced with a pandemic leading to overcrowded hospitals and overflowing mortuaries. Lockdowns imposed in countries jeopardized routine life never to normalize again. India has been among the top three countries with the maximum number of afflicted people. Thankfully , our statistics with respect to mortality is better as compared to the western world. The last year 2020 was completely COVIDISED if we may say so. The world economy is in doldrums and the health infrastructure is overstretched and fatigued. Everytime we feel that the disease is under control, the virus cleverly mutates to become more infective and develops increased ability to escape the immune surveillance. Efforts to develop a vaccine against this scourge were initiated at a war footing across the globe. A number of vaccines were approved for emergency use since the scientific committee didn’t have the time to wait further. In India, two vaccines- Covaxin and Covishield have been approved by the Government of India for mass vaccination. The mammoth program was initiated with first preference for the healthcare workers and frontline warriors. In the next phases, elderly population followed by the rest of the population in a phased manner was planned. It is really incredible and praiseworthy about the immaculate planning and implementation of the initiative in our country where the diversity is both a boon as well as bane. -
Meningococcal a Conjugate Vaccine Into the Routine Immunization Programme
GUIDE TO INTRODUCING MENINGOCOCCAL A CONJUGATE VACCINE INTO THE ROUTINE IMMUNIZATION PROGRAMME GUIDE TO INTRODUCING MENINGOCOCCAL A CONJUGATE VACCINE INTO THE ROUTINE IMMUNIZATION PROGRAMME This publication was jointly developed by the WHO Regional Office for Africa and WHO headquarters. Guide to introducing meningococcal A conjugate vaccine into the routine immunization programme ISBN 978-92-4-151686-0 © World Health Organization 2019 Some rights reserved. This work is available under the Creative Commons Attribution-NonCommercial- ShareAlike 3.0 IGO licence (CC BY-NC-SA 3.0 IGO; https://creativecommons.org/licenses/by-nc- sa/3.0/igo). Under the terms of this licence, you may copy, redistribute and adapt the work for non-commercial purposes, provided the work is appropriately cited, as indicated below. In any use of this work, there should be no suggestion that WHO endorses any specific organization, products or services. The use of the WHO logo is not permitted. If you adapt the work, then you must license your work under the same or equivalent Creative Commons licence. If you create a translation of this work, you should add the following disclaimer along with the suggested citation: “This translation was not created by the World Health Organization (WHO). WHO is not responsible for the content or accuracy of this translation. The original English edition shall be the binding and authentic edition”. Any mediation relating to disputes arising under the licence shall be conducted in accordance with the mediation rules of the World Intellectual Property Organization. Suggested citation. Guide to introducing meningococcal A conjugate vaccine into the routine immunization programme. -
Edical Sciences Esearch (IJAMSCR)
Dr. N. Sriram et al / Int. J. of Allied Med. Sci. and C lin. Research Vol-9(1) 2021 [ 1-10] International Journal of Allied Medical Sciences and Clinical Research (IJAMSCR) ISSN: 2347 -6567 IJAMSCR |Volume 9 | Issue 1 | Jan - Mar - 2021 www.ijamscr.com Review article Medical research Development of new covid -19 vaccines from india : A systematic review 1Dr. N. Sriram, 2S. Kameshwaran , 3Asokkumar DS , 4N. Elavarasan, 5M. Sarbudeen 1Department of Pharmaceutics, Hits College of Pharmacy, Bogaram, Ghatkesar, Hyderabad, Telangana, India 2-5 Excel college of Pharmacy, Komarapalayam, Namakkal, Tamilnadu – 637303. *Corresponding Author :Dr. N. Sriram email: [email protected] ABSTRACT Extreme acute respiratory syndrome Coronavirus 2 (SARS -CoV-2) is an extremely pathogenic new virus that has triggered the current worldwide coronavirus disease pandemic (COVID -19). Currently, substantial effort has been made to produce successful and safe medicines and SARS-CoV-2 vaccines. To avoid more morbidity and death, a successful vaccine is important. Though some regions which deploy COVID -19 vaccines on the basis of protection and immunogenicity data alone, the aim of vaccine research is to obtain d irect proof of vaccine effectiveness in protecting humans against SARS-CoV -2 and COVID-19 infections in order to selectively increase the production of effective vaccines. A SARS-CoV-2 candidate vaccine can function against infection, illness, or transmiss ion and a vaccine that is capable of minimising all of these components may lead to disease control. In this study, we discussed the Bharat Biotech and Covishield Serum Institute of India's Covaxin - India's First Indigenous Covid -19 Vaccine. -
'Astrazeneca' Covid-19 Vaccine
Medicines Law & Policy How the ‘Oxford’ Covid-19 vaccine became the ‘AstraZeneca’ Covid-19 vaccine By Christopher Garrison 1. Introduction. The ‘Oxford / AstraZeneca’ vaccine is one of the world’s leading hopes in the race to end the Covid-19 pandemic. Its history is not as clear, though, as it may first seem. The media reporting about the vaccine tends to focus either on the very small (non-profit, academic) Jenner Institute at Oxford University, where the vaccine was first invented, or the very large (‘Big Pharma’ firm) AstraZeneca, which is now responsible for organising its (non-profit) world-wide development, manufacture and distribution. However, examining the intellectual property (IP) path of the vaccine from invention to manufacture and distribution reveals a more complex picture that involves other important actors (with for-profit perspectives). Mindful of the very large sums of public money being used to support Covid-19 vaccine development, section 2 of this note will therefore contextualise the respective roles of the Jenner Institute, AstraZeneca and these other actors, so that their share of risk and (potential) reward in the project can be better understood. Section 3 provides comments as well as raising some important questions about what might yet be done better and what lessons can be learned for the future. 2. History of the ‘Oxford / AstraZeneca’ vaccine. 2.1 Oxford University and Oxford University Innovation Ltd. The Bayh-Dole Act (1980) was hugely influential in the United States and elsewhere in encouraging universities to commercially exploit the IP they were generating by setting up ‘technology transfer’ offices. -
The Meningitis Vaccine Project: Frequently Asked Questions
The Meningitis Vaccine Project Frequently asked questions June 2011 The disease What is meningococcal disease? Meningococcal disease is an infection of the meninges, the thin lining that surrounds the brain and the spinal cord. It is usually caused by a virus or bacterium (meningococcus). It is transmitted through droplets of respiratory or throat secretions. Bacterial meningitis, such as meningococcal disease, can be very serious because it evolves rapidly and can kill in a few hours. Even with appropriate treatment, around 10 percent of patients die, and up to 20 percent of survivors have serious permanent health problems as a result of the disease (deafness, epilepsy, cerebral palsy, or mental retardation). What is the extent of meningococcal meningitis in Africa? Sub-Saharan Africa has been experiencing explosive and repeated meningococcal epidemics for more than a hundred years. Group A meningococcus is the main cause of meningitis epidemics and accounts for an estimated 80 to 85 percent of all cases. These deadly epidemics occur at intervals of 8–10 years in the 25 countries of the "meningitis belt," a strip of land that extends from Senegal in the west to Ethiopia in the east. Around 450 million people in this area are at risk of disease. More than one million cases of meningitis have been reported in Africa since 1988. In 1996–1997, one of the largest epidemic waves ever recorded in history swept across Africa, causing more than 250,000 cases and 25,000 deaths. The vaccine What is the expected public health impact of this new vaccine? If introduced in all 25 countries of the African meningitis belt, this vaccine is expected to eliminate the primary cause of epidemic meningitis, group A meningococcus, from the entire region, with an estimated 1 million cases of disease prevented and 150 000 young lives saved by 2020. -
Meningococcal a Conjugate Vaccine Roll-Out in the African Meningitis Belt
Meningococcal A conjugate vaccine roll-out in the African meningitis belt Summary update prepared by the Meningitis Vaccine Project & partners SAGE, October 2014 Background Over the last century sub-Saharan Africa has been plagued by repeated epidemics of meningococcal meningitis. Almost all of the major outbreaks have been caused by group A Neisseria meningitidis . Reactive immunizations with polysaccharide vaccines have been used for the last 30 years but have not succeeded in controlling the problem. After the disastrous 1996–1997 epidemic with more than 250,000 cases and 25,000 deaths, there arose renewed interest in developing a preventive strategy based on new meningococcal conjugate vaccines. In June 2001, the Bill & Melinda Gates Foundation provided core funding for the establishment of the Meningitis Vaccine Project (MVP), a partnership between PATH and the World Health Organization (WHO), with the goal of eliminating epidemic meningitis as a public health problem in sub-Saharan Africa through the development, testing, licensure, and widespread introduction of meningococcal conjugate vaccines. A monovalent group A meningococcal (MenA) conjugate vaccine, MenAfriVac, a registered trademark of the Serum Institute of India, was developed through the MVP. The vaccine was licensed, for use in individuals aged 1 to 29 years, in 2009 and prequalified by WHO in 2010. Comprehensive mass immunization campaigns of 1- to 29-year olds with a single dose of MenAfriVac have been a cornerstone of the MenA conjugate vaccine introduction plan. This strategy aims to strongly and immediately protect individuals directly and reduce bacterial carriage and transmission, and thereby rapidly reduce overall disease-related morbidity and mortality rates within the community. -
BCG Vaccination and Immunity Against COVID-19: a Fact Or Fiction
Published online: 2020-11-13 THIEME Commentary 239 BCG Vaccination and Immunity against COVID-19: A Fact or Fiction Rajendra Prasad1 Rishabh Kacker1 Huda Shamim1 Nikhil Gupta2 1Department of Pulmonary Medicine, Era’s Lucknow Medical College & Hospital, Lucknow, Uttar Pradesh, India 2Department of General Medicine, Dr. Ram Manohar Lohia Institute of Medical Sciences, Lucknow, Uttar Pradesh, India Ann Natl Acad Med Sci (India):2020;56:239–241 The first case of the novel Coronavirus disease, named doses of BCG vaccine are not recommended. BCG is prefer- COVID-19, was reported in Wuhan, China, on December 31, ably given at birth to provide protection in the early years 2019. The illness has variable manifestations, ranging from when infection can often lead to diseases such as miliary common cold to the more severe Middle East respiratory TB or tubercular meningitis. By the late 1940s, several stud- syndrome (MERS) and severe acute respiratory syndrome ies had appeared, providing evidence in favor of the utility (SARS). While the mortality rates of SARS and MERS was of BCG in protection against TB. In 1950s, major trials were estimated to be approximately 12% and 30%, respectively, set up by the Medical Research Council in the United King- the mortality rates in cases of COVID-19 is estimated to be dom and by the Public Health Service in the United States. much lower at around 4.03%.1 Nevertheless, the pandemic Soon it became evident that the procedure employed in the of COVID-19 is an issue that needs to be taken seriously. United Kingdom was highly efficacious against TB,4 whereas However, there are striking differences on how COVID-19 is that in the United States provided little or no protection.5 On behaving in different countries. -
Immunization Strategies: Eradicating Meningitis in Sub-Saharan Africa
CIGI JUNIOR FELLOWS POLICY BRIEF NO. 1 AUGUST 2012 IMMUNIZATION KEY POINTS STRATEGIES: • Meningitis epidemics are highly concentrated in a 25-country area ERADICATING of Sub-Saharan Africa known as the “meningitis belt” and result in MENINGITIS IN SUB- an average of approximately 5,000 confirmed deaths in the region each SAHARAN AFRICA year. SARAH CRUICKSHANK AND SAMANTHA GRILLS • A new, low-cost vaccine called MenAfriVac™, developed by an innovative international health alliance INTRODUCTION to specifically target the source of these epidemics, has been shown to Meningitis epidemics are a major concern in the 25-country area from be highly effective, with no new cases of meningitis reported in those who Senegal to Ethiopia known as the “meningitis belt.” A communicable have received one dose of the vaccine. disease, meningitis affects large portions of the population, causes high • As the MenAfriVac™ vaccination rates of death and disability, and worsens the plight of families and campaign expands, three strategies are recommended that will bring the communities in a region marked by extreme poverty. MenAfriVac™ vaccine to hard-to-reach populations is the least expensive and longest lasting meningitis vaccine created and ensure that its full potential to date, and is the best medicinal tool currently available to the global is achieved. By employing these strategies and adapting them to health community to combat this serious disease. Developed through local conditions, the MenAfriVac™ a partnership between the Programme for Appropriate Technology in campaign will have the greatest chance of eliminating meningitis epidemics in Health (PATH), an international non-governmental organization, and Sub-Saharan Africa. -
GRADE Table 01. Efficacy of a Single-Dose Mena Conjugate Vaccination in Immunocompetent Children (9 to 24 Months of Age) Against Serogroup a Meningococcal Disease
GRADE Table 01. Efficacy of a single-dose MenA conjugate vaccination in immunocompetent children (9 to 24 months of age) against serogroup A meningococcal disease Population : Immunocompetent children aged 9–24 months Intervention: Single-dose MenA conjugate vaccine (5 µg dosage) Comparison: No MenA vaccination Outcome : Serogroup A meningococcal disease What is the scientific evidence concerning the efficacy of a single dose of MenA conjugate vaccine (versus no Men A vaccination) against serogroup A meningococcal disease in immunocompetent children aged 9–24 months? Rating Adjustment to rating 21/ RCT No. of studies/starting rating 4 Limitation in None serious 0 study design Factors Inconsistency None serious 0 decreasing 2 Indirectness None serious 0 confidence Imprecision None serious 0 Publication bias None serious 0 Large effect Not applicable 0 Quality Assessment Quality Factors Dose-response Not applicable 0 increasing Antagonistic confidence bias and Not applicable 0 confounding Final numerical rating of quality of 4 evidence We are very confident that the true effect lies close to the Statement on quality of evidence estimated effect on health outcome. We are very confident that the administration of a single dose of MenA conjugate vaccine in children Conclusion aged 9–24 months prevents serogroup A Findings Summary of of Summary meningococcal disease. 1 Two double blind, randomized, controlled clinical studies were conducted – a phase II dose ranging study (PsA-TT-004) in 1200 healthy infants and toddlers in Ghana and a phase III study (PsA-TT-007) in 1500 healthy infants and young children in Mali. Both studies examined various dosages and schedules of MenA conjugate vaccine co-administered with other vaccines routinely administered in this age range. -
(Meningitis a Vaccine) in a Controlled Temperature Chain (CTC) During Campaigns
WHO/IVB/13.04 Use of MenAfriVac™ (meningitis A vaccine) in a controlled temperature chain (CTC) during campaigns Guidance for immunization programme decision-makers and managers Immunization, Vaccines and Biologicals WHO/IVB/13.04 Use of MenAfriVac™ (meningitis A vaccine) in a controlled temperature chain (CTC) during campaigns Guidance for immunization programme decision-makers and managers Immunization, Vaccines and Biologicals The Department of Immunization, Vaccines and Biologicals thanks the donors whose unspecified financial support has made the production of this document possible. This document was produced by the Expanded Programme on Immunization (EPI) of the Department of Immunization, Vaccines and Biologicals This document forms part 1 of 3 parts of the training guide for the Use of MenAfriVac™ (meningitis A vaccine) in a controlled temperature chain (CTC) during campaigns Ordering code: WHO/IVB/13.04 Printed: July 2013 This publication is available on the Internet at: www.who.int/vaccines-documents/ Copies of this document as well as additional materials on immunization, vaccines and biologicals may be requested from: World Health Organization Department of Immunization, Vaccines and Biologicals CH-1211 Geneva 27, Switzerland • Fax: + 41 22 791 4227 • Email: [email protected] • © World Health Organization 2013 All rights reserved. Publications of the World Health Organization can be obtained from WHO Press, World Health Organization, 20 Avenue Appia, 1211 Geneva 27, Switzerland (tel: +41 22 791 3264; fax: +41 22 791 4857; email: [email protected]). Requests for permission to reproduce or translate WHO publications – whether for sale or for noncommercial distribution – should be addressed to WHO Press, at the above address (fax: +41 22 791 4806; email: [email protected]).