OF OBJECTIVES: Boston University Medical Center (BUMC), a consortium of Boston University and Boston Medical Center, proposes a National Center for Emerging Infectious Diseases and Biodefense (NCEIDB). The primary objectives are: 1) To construct a safe, secure facility for cutting-edge basic, translational, animal and clinical research on emerging infectious diseases including category A, B and C agents integrated into the research and emergency-preparedness environments of BUMC, Boston, and the nation 2) To put into place comprehensive research, development and training programs to achieve the objectives of the NIAID's Strategic Plan for Biodefense Research. The NCEIDB incorporates 18 intramural core resources and expertise for basic molecular studies aimed at identifying target molecules, identifying small molecules and biologicals that interact with these molecules for diagnostic, preventative or therapeutic purposes, a plan for producing such products, facilites for assessment of the interaction of pathogens with these molecules in vitro, and a comprehensive approach for evaluations in vivo in animals and humans. The proposed NCEIDB is responsive to all of the required elements and is distinguished by unique features including: integration of the facility into a biomedical """"""""research park"""""""", an aggressive time-line for project completion, integration with a premier urban academic medical center, coordination with the New England Regional Primate Research Center to build dedicated non-human primate breeding and quarantine facilities, coordination with the Massachusetts Biological Laboratories for production of vaccines and biologicals under GMP conditions, coordination with unique resource to produce chemical libraries and extensive planning for the training mission of the NCEIDB.
Manhart, Whitney A; Pacheco, Jennifer R; Hume, Adam J et al. (2018) A Chimeric Lloviu Virus Minigenome System Reveals that the Bat-Derived Filovirus Replicates More Similarly to Ebolaviruses than Marburgviruses. Cell Rep 24:2573-2580.e4 |
Nelson, Emily V; Pacheco, Jennifer R; Hume, Adam J et al. (2017) An RNA polymerase II-driven Ebola virus minigenome system as an advanced tool for antiviral drug screening. Antiviral Res 146:21-27 |
Mounce, Bryan C; Olsen, Michelle E; Vignuzzi, Marco et al. (2017) Polyamines and Their Role in Virus Infection. Microbiol Mol Biol Rev 81: |
Olejnik, Judith; Nelson, Emily V (2017) Analyzing Apoptosis Induction and Evasion in Ebola Virus-Infected Cells. Methods Mol Biol 1628:227-241 |
Rossignol, Evan D; Peters, Kristen N; Connor, John H et al. (2017) Zika virus induced cellular remodelling. Cell Microbiol 19: |
Brauburger, Kristina; Cressey, Tessa; Mühlberger, Elke (2017) Nonradioactive Northern Blot Analysis to Detect Ebola Virus Minigenomic mRNA. Methods Mol Biol 1628:143-159 |
Ruedas, John B; Connor, John H (2017) Generating Recombinant Vesicular Stomatitis Viruses for Use as Vaccine Platforms. Methods Mol Biol 1581:203-222 |
Cressey, Tessa; Brauburger, Kristina; Mühlberger, Elke (2017) Modeling Ebola Virus Genome Replication and Transcription with Minigenome Systems. Methods Mol Biol 1628:79-92 |
Speranza, Emily; Connor, John H (2017) Host Transcriptional Response to Ebola Virus Infection. Vaccines (Basel) 5: |
Nelson, Emily V; Schmidt, Kristina M; Deflubé, Laure R et al. (2016) Ebola Virus Does Not Induce Stress Granule Formation during Infection and Sequesters Stress Granule Proteins within Viral Inclusions. J Virol 90:7268-7284 |
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