66 results on '"Davey, Victoria J"'
Search Results
52. Intravenous aviptadil and remdesivir for treatment of COVID-19-associated hypoxaemic respiratory failure in the USA (TESICO): a randomised, placebo-controlled trial
- Author
-
Brown, Samuel M, Barkauskas, Christina E, Grund, Birgit, Sharma, Shweta, Phillips, Andrew N, Leither, Lindsay, Peltan, Ithan D, Lanspa, Michael, Gilstrap, Daniel L, Mourad, Ahmad, Lane, Kathleen, Beitler, Jeremy R, Serra, Alexis L, Garcia, Ivan, Almasri, Eyad, Fayed, Mohamed, Hubel, Kinsley, Harris, Estelle S, Middleton, Elizabeth A, Barrios, Macy A G, Mathews, Kusum S, Goel, Neha N, Acquah, Samuel, Mosier, Jarrod, Hypes, Cameron, Salvagio Campbell, Elizabeth, Khan, Akram, Hough, Catherine L, Wilson, Jennifer G, Levitt, Joseph E, Duggal, Abhijit, Dugar, Siddharth, Goodwin, Andrew J, Terry, Charles, Chen, Peter, Torbati, Sam, Iyer, Nithya, Sandkovsky, Uriel S, Johnson, Nicholas J, Robinson, Bryce R H, Matthay, Michael A, Aggarwal, Neil R, Douglas, Ivor S, Casey, Jonathan D, Hache-Marliere, Manuel, Georges Youssef, J, Nkemdirim, William, Leshnower, Brad, Awan, Omar, Pannu, Sonal, O'Mahony, Darragh Shane, Manian, Prasad, Awori Hayanga, J W, Wortmann, Glenn W, Tomazini, Bruno M, Miller, Robert F, Jensen, Jens-Ulrik, Murray, Daniel D, Bickell, Nina A, Zatakia, Jigna, Burris, Sarah, Higgs, Elizabeth S, Natarajan, Ven, Dewar, Robin L, Schechner, Adam, Kang, Nayon, Arenas-Pinto, Alejandro, Hudson, Fleur, Ginde, Adit A, Self, Wesley H, Rogers, Angela J, Oldmixon, Cathryn F, Morin, Haley, Sanchez, Adriana, Weintrob, Amy C, Cavalcanti, Alexandre Biasi, Davis-Karim, Anne, Engen, Nicole, Denning, Eileen, Taylor Thompson, B, Gelijns, Annetine C, Kan, Virginia, Davey, Victoria J, Lundgren, Jens D, Babiker, Abdel G, Neaton, James D, Lane, H Clifford, Tierney, John, Vogel, Susan E., McNay, Laura A., Cahill, Kelly, Crew, Page, Sardana, Ratna, Segal Raim, Sharo, Shaw-Saliba, Katy, Atri, Negin, Miller, Mark, Vallee, David, Chung, Lucy, Delph, Yvette, Adam, Stacey J., Read, Sarah, Draghia-Akli, Ruxandra, Harrigan, Rachel, Carlsen, Amy, Carter, Anita, DuChene, Alain, Eckroth, Kate, Frase, Alex, Harrison, Merrie, Meger, Sue, Quan, Kien, Quan, Siu Fun, Reilly, Cavan, Thompson, Greg, Walski, Jamie, Moskowitz, Alan J., Bagiella, Emilia, Moquete, Ellen, O'Sullivan, Karen, Marks, Mary E., Accardi, Evan, Kinzel, Emily, Bedoya, Gabriela, Gupta, Lopa, Overbey, Jessica R., Padillia, Maria L., Santos, Milerva, Gillinov, Marc A., Miller, Marissa A., Taddei-Peters, Wendy C., Fenton, Kathleen, Smith, Peter K., Vekstein, Andrew M., Ko, Emily R., Al-Hegelan, Mashael S., McGowan, Lauren M., Motta, Mary, Howell, Shauna, Bent, Francine, Kalager, Rachel, Chan, Emmanuel, Aloor, Heather L., Griffin, S. Michelle, Covington, Anna, McLendon-Arvik, Beth, Bussadori, Barbara, Miller-Bell, Mary, Sampey, Cathy, Gaver, Vincent, Hollister, Beth A., Giangiacomo, Dana M., Pauley, Alena, Patel, Aashay, Classon, Chris, Frazier, Madison, Osborne, Robyn, Conlon, Debbi H., Joshi, Marybeth, Gottlieb, Robert L., Mack, Michael, Berhe, Mezgebe, Haley, Clinton, Dishner, Emma, Bettacchi, Christopher, Golden, Kevin, Duhaime, Erin, Ryan, Madison, Tallmadge, Catherine, Estrada, Lorie, Jones, Felecia, Villa, Samantha, Wang, Samantha, Robert, Raven, Coleman, Tanquinisha, Clariday, Laura, Baker, Rebecca, Hurutado-Rodriguez, Mariana, Iram, Nazia, Fresnedo, Michelle, Davis, Allyson, Leonard, Kiara, Ramierez, Noelia, Thammavong, Jon, Duque, Krizia, Turner, Emma, Fisher, Tammy, Robinson, Dianna, Ransom, Desirae, Maldonado, Nicholas, Lusk, Erica, Killian, Aaron, Palacios, Adriana, Solis, Edilia, Jerrow, Janet, Watts, Matthew, Whitacre, Heather, Cothran, Elizabeth, Bender, William, Miller, Jeffrey, Nugent, Katherine, Farrington, Woodrow, Baio, Kim T., McBride, Mary K., Fielding, Michele, Mathewson, Sonya, Porte, Kristina, Haley, Elizabeth, Rogers, Susan, Tyler, Derrick, Perin, Emerson, Costello, Briana, Postalian, Alexander, Sohail, Rizwan, Hinsu, Punit, Watson, Carolyn, Kappenman, Casey, Chen, James, Walker, Kim, Fink, Melyssa, Phillip, Gabrielle, Mahon, Kim, Sturgis, Lydia, Maher, Patrick, Rogers, Linda, Ng, Nicole, Marshall, Jason, Bassily-Marcus, Adel, Cohen, Ivy, Ramoo, Shamini, Malhotra, Aryan, Kessler, Jonathan, Goetz, Rebekah, Badhwar, Vinay, Hayanga, Jeremiah, Giblin Sutton, Lisa, Williams, Roger, Berry Bartolo, Elizabeth, Walker, Dmitry, Bunner, Robin, Glaze, Chad, Aucremanne, Tanja, Bishop, James, Kelley, Macey, Peterson, Autumn, Sauerborn, Erica, Reckart, Robin, Miller, Brittany, Mittel, Aaron, Darmanian, Anita, Rosen, Amanda, Madahar, Purnema, Schicchi, John, Gosek, Katarzyna, Dzierba, Amy, Wahab, Romina, Eng, Connie, Al-Saadi, Mukhtar, Zahiruddin, Faisal, Syed, Mohi, George, Michael, Patel, Varsha, Onwunyi, Chisom, Barroso da Costa, Rosa, North, Crystal, Ringwood, Nancy, Fitzgerald, Laura, Muzikansky, Ariela, Morse, Richard, Brower, Roy G., Reineck, Lora A., Bienstock, Karen, Hou, Peter, Steingrub, Jay S., Tidswell, Mark A., Kozikowski, Lori-Ann, Kardos, Cynthia, De Souza, Leslie, Talmor, Daniel, Shapiro, Nathan, Hibbert, Kathryn, Brait, Kelsey, Kone, Mamary, Hendey, Gregory, Kangelaris, Kirsten N., Ashktorab, Kimia, Gropper, Rachel, Agrawal, Anika, Timothy, Kelly, Zhou, Hanjing, Hughes, Alyssa, Garcia, Rebekah, Torres, Adrian, Hernandez-Almaraz, Maria Elena, Vojnik, Rosemary, Perez, Cynthia, McDowell, Jordan, Chang, Steven Y., Vargas, Julia, Moss, Marc, McKeehan, Jeffrey, Higgins, Carrie, Johnson, Emily, Slaughter, Suzanne, Wyles, David, Hiller, Terra, Oakes, Judy, Garcia, Ana, Gravitz, Stephanie, Lyle, Carolynn, Swanson, Diandra, Gong, Michelle Ng., Richardson, Lynnne D., Chen, Jen-Ting, Moskowitz, Ari, Mohamed, Amira, Lopez, Brenda, Amosu, Omowunmi, Tzehaie, Hiwet, Boujid, Sabah, Bixby, Billie, Lopez, Anitza A., Durley, JaVon, Gilson, Boris, Hite, R. Duncan, Wang, Henry, Wiedemann, Hebert P., Mehkri, Omar, Ashok, Kiran, King, Alexander, Brennan, Connery, Exline, Matthew C., Englert, Joshua A., Karow, Sarah, Schwartz, Elizabeth, So, Preston, So, Madison, Krol, Olivia F., Briceno Parra, Genesis I., Mills, Emmanuel Nii Lantei, Oh, Minn, Pena, Jose, Martínez, Jesús Alejandro, Jackman, Susan E., Bayoumi, Emad, Pascual, Ethan, Caudill, Antonina, Chen, Po-En, Richardson, Tabia, Clapham, Gregg J., Herrera, Lisa, Ojukwu, Cristabelle, Fine, Devin, Gomez, Millie J., Choi-Kuaea, Yunhee, Weissberg, Gwendolyn, Isip, Katherine, Mattison, Brittany, Tran, Dana, Emilov Dukov, Jennifer, Chung, Paul, Kang, Bo Ran, Escobar, Lauren, Tran, Trung, Baig, Saba, Wallick, Julie A., Duven, Alexandria M., Fletcher, Dakota D., Gundel, Stephanie, Fuentes, Megan, Newton, Maranda, Peterson, Emily, Jiang, Kelsey, Files, D. Clark, Miller, Chadwick, Lematty, Caitlin, Rasberry, April, Warden, Ashley, Bledsoe, Joseph, Knowlton, Kirk, Knox, Daniel B., Klippel, Carolyn, Armbruster, Brent P., Applegate, Darrin, Imel, Karah, Fergus, Melissa, Rahmati, Kasra, Jensen, Hannah, Aston, Valerie T., Jeppson, Joshua, Marshall, J. Hunter, Lumpkin, Jenna, Smith, Cassie, Burke, Tyler, Gray, Andrew, Paine, Robert, Callahan, Sean, Yamane, Misty, Waddoups, Lindsey, Rice, Todd W., Johnson, Jakea, Gray, Christopher, Hays, Margaret, Roth, Megan, Musick, Sarah, Miller, Karen, Semler, Matthew W., Popielski, Laura, Kambo, Amy, Viens, Kimberly, Turner, Melissa, Vjecha, Michael J., Denyer, Rachel, Khosla, Rahul, Rajendran, Bindu, Gonzales, Melissa, Moriarty, Theresa, Biswas, Kousick, Harrington, Cristin, Garcia, Amanda, Bremer, Tammy, Burke, Tara, Koker, Brittany, Pittman, David, Vasudeva, Shikha S., Anholm, James D., Specht, Lennard, Rodriguez, Aimee, Ngo, Han, Duong, Lien, Previte, Matthew, Raben, Dorthe, Nielsen, Charlotte B., Friis Larsen, Jakob, Peters, Lars, Matthews, Gail, Kelleher, Anthony, Polizzotto, Mark, Carey, Catherine, Chang, Christina, Dharan, Nila, Hough, Sally, Virachit, Sophie, Davidson, Sarah, Bice, Daniel J., Ognenovska, Katherine, Cabrera, Gesalit, Flynn, Ruth, Abdelghany, Mazin, Baseler, Beth, Teitelbaum, Marc, Holley, H. Preston, Jankelevich, Shirley, Adams, Amy, Becker, Nancy, Doleny, Suzanne, Hissey, Debbie, Simpson, Shelly, Kim, Mi Ha, Beeler, Joy, Harmon, Liam, Vanderpuye, Sharon, Yeon, Lindsey, Frye, Leanna, Rudzinski, Erin, Buehn, Molly, Eccard-Koons, Vanessa, Frary, Sadie, MacDonalad, Leah, Cash, Jennifer, Hoopengardner, Lisa, Linton, Jessica, Nelson, Michaela, Spinelli-Nadzam, Mary, Proffitt, Calvin, Lee, Christopher, Engel, Theresa, Fontaine, Laura, Osborne, CK, Hohn, Matt, Galcik, Michael, Thompson, DeeDee, Sandrus, Jen, Manchard, Jon, Giri, Jiwan, Kopka, Stacy, Chang, Weizhong, Sherman, Brad T., Rupert, Adam W., Highbarger, Helene, Baseler, Michael, Lallemand, Perrine, Rehman, Tauseef, Imamichi, Tom, Laverdure, Sylvain, Paudel, Sharada, Cook, Kyndal, Haupt, Kendra, Hazen, Allison, Badralmaa, Yunden, Highbarger, Jeroen, McCormack, Ashley, Gerry, Norman P., Smith, Kenneth, Patel, Bhakti, Domeraski, Nadia, Hoover, Marie L., DuChateau, Nadine, Flosi, Adam, Nelson, Rich, Stojanovic, Jelena, and Wenner, Christine
- Abstract
There is a clinical need for therapeutics for COVID-19 patients with acute hypoxemic respiratory failure whose 60-day mortality remains at 30-50%. Aviptadil, a lung-protective neuropeptide, and remdesivir, a nucleotide prodrug of an adenosine analog, were compared with placebo among patients with COVID-19 acute hypoxaemic respiratory failure.
- Published
- 2024
- Full Text
- View/download PDF
53. Influenza Surveillance in the Department of Veterans Affairs (VA): 2012-2013 Influenza Season
- Author
-
Lucero-Obusan, Cynthia A., primary, Winters, Mark, additional, Schirmer, Patricia, additional, Oda, Gina, additional, Martinello, Richard A., additional, Davey, Victoria J., additional, and Holodniy, Mark, additional
- Published
- 2014
- Full Text
- View/download PDF
54. 2010 Conference on Infectious Disease Modeling Sponsored by the U.S. Department of Defense
- Author
-
JOHNS HOPKINS UNIV LAUREL MD APPLIED PHYSICS LAB, Feighner, Brian H., Kircher, Amy, Davey, Victoria J., Burke, Ronald L., Gaydos, Joel C., JOHNS HOPKINS UNIV LAUREL MD APPLIED PHYSICS LAB, Feighner, Brian H., Kircher, Amy, Davey, Victoria J., Burke, Ronald L., and Gaydos, Joel C.
- Abstract
Advances in infectious disease modeling may offer opportunities to mitigate the effect of emerging infectious diseases upon military readiness. Concerned that opportunities for collaboration might be missed and unintended redundancy might be occurring, the U.S. Defense Department (DoD) Global Emerging Infections Surveillance and Response System (GEIS) sponsored conferences in August 2005 and May 2008 for infectious disease modelers engaged in DoD projects or on models useful to the DoD. Several recommendations were made at these conferences, to include the identification of organizations with "...demonstrated expertise in model development and operation for collaboration with the DoD and civilian organizations that are developing simulation models or conducting exercises. Despite these recommendations, infectious disease modeling efforts in support of the DoD have remained somewhat disjointed., Published in Military Medicine, v175 n6 p388-390, 2010. Performed in cooperation with the Office of the Command Surgeon, Peterson AFB, CO; the Department of Veterans Affairs, Washington, D.C.; and the Armed Forces Health Surveillance Center, Silver Spring, MD.
- Published
- 2010
55. Cigarette Smoking and Sociodemographic, Military, and Health Characteristics of Operation Enduring Freedom and Operation Iraqi Freedom Veterans: 2009-201 1 National Health Study for a New Generation of US Veterans.
- Author
-
Cypel, Yasmin S., Hamlett-Berry, Kim, Barth, Shannon K., Christofferson, Dana E., Davey, Victoria J., Eber, Stephanie, and Schneiderman, Aaron I.
- Subjects
AGE distribution ,ALCOHOLISM ,CHI-squared test ,CONFIDENCE intervals ,MENTAL depression ,PROBABILITY theory ,QUESTIONNAIRES ,RACE ,REGRESSION analysis ,RESEARCH funding ,STATISTICAL sampling ,SELF-perception ,SEX distribution ,SMOKING ,T-test (Statistics) ,PSYCHOLOGY of veterans ,LOGISTIC regression analysis ,BODY mass index ,DATA analysis software ,DESCRIPTIVE statistics ,ODDS ratio - Abstract
Objective: We examined the sociodemographic, military, and health characteristics of current cigarette smokers, former smokers, and nonsmokers among Operation Enduring Freedom (OEF) / Operation Iraqi Freedom (OIF) veterans and estimated smoking prevalence to better understand cigarette use in this population. Methods: We analyzed data from the US Department of Veterans Affairs (VA) 2009-201 1 National Health Study for a New Generation of US Veterans. On the basis of a stratified random sample of 60 000 OEF/OIF veterans, we sought responses to a 72-item questionnaire via mail, telephone, or Internet. Cigarette smoking status was based on self-reported cigarette use in the past year. We used multinomial logistic regression to evaluate associations between smoking status and sociodemographic, military, and health characteristics. Results: Among 19 91 1 veterans who provided information on cigarette smoking, 5581 were current smokers (weighted percentage: 32.5%, 95% confidence interval [CI]: 31.7-33.2). Current smokers were more likely than nonsmokers or former smokers to be younger, to have less education or income, to be separated/divorced or never married/single, and to have served on active duty or in the army. Comparing current smokers and nonsmokers, some significant associations from adjusted analyses included the following: having a Mental Component Summary score (a measure of overall mental health) above the mean of the US population relative to below the mean (adjusted odds ratio [aOR] = 0.81, 95% CI: 0.73-0.90); having physician-diagnosed depression (aOR = 1.52, 95% CI: 1.33-1.74), respiratory conditions (aOR = 1.16, 95% CI: 1.04-1.30), or repeated seizures/blackouts/convulsions (aOR = 1.80, 95% CI: 1.22-2.67); heavy alcohol use vs never use (aOR = 5.49, 95% CI: 4.57-6.59); a poor vs excellent perception of overall health (aOR = 3.79, 95% CI: 2.60-5.52); and being deployed vs nondeployed (aOR = 0.87, 95% CI: 0.78-0.96). Using health care services from the VA protected against current smoking. Conclusion: Mental and physical health, substance use, and military service characteristics shape cigarette-smoking patterns in OEF/OIF veterans. [ABSTRACT FROM AUTHOR]
- Published
- 2016
- Full Text
- View/download PDF
56. 2010 Conference on Infectious Disease Modeling Sponsored by the U.S. Department of Defense
- Author
-
Feighner, Brian H., primary, Kircher, Amy, additional, Davey, Victoria J., additional, Burke, Ronald L., additional, and Gaydos, Joel C., additional
- Published
- 2010
- Full Text
- View/download PDF
57. Infectious Disease Modeling and Military Readiness
- Author
-
Feighner, Brian H., primary, Eubank, Stephen, additional, Glass, Robert J., additional, Davey, Victoria J., additional, Chrétien, Jean-Paul, additional, and Gaydos, Joel C., additional
- Published
- 2009
- Full Text
- View/download PDF
58. Effective, Robust Design of Community Mitigation for Pandemic Influenza: A Systematic Examination of Proposed US Guidance
- Author
-
Davey, Victoria J., primary, Glass, Robert J., additional, Min, H. Jason, additional, Beyeler, Walter E., additional, and Glass, Laura M., additional
- Published
- 2008
- Full Text
- View/download PDF
59. The emergency department as part of a successful strategy for increasing adult immunization
- Author
-
Polis, Michael A, primary, Davey, Victoria J, additional, Collins, Eric D, additional, Smith, Jeffrey P, additional, Rosenthal, Robert E, additional, and Kaslow, Richard A, additional
- Published
- 1988
- Full Text
- View/download PDF
60. A Phase I/II Trial of Zidovudine, Interferon-{alpha}, and Granulocyte-Macrophage Colony-Stimulating Factor in the Treatment of Human Immunodeficiency Virus Type 1 Infection
- Author
-
Davey, Richard T., Davey, Victoria J., Metcalf, Julia A., Zurlo, John J., Kovacs, Joseph A., Falloon, Judith, Polis, Michael A., Zunich, Kathryn M., Masur, Henry, and Lane, H. Clifford
- Abstract
Twenty-four patients infected with human immunodeficiency virus type 1 (HIV-1) who had CD4+ counts of O.2–0.5 × 109 cells/l received granulocyte-macrophage colony-stimulating factor (GM-CSF) in combination with zidovudine plus escalating doses of daily subcutaneous interferon-α. Mean neutropenia-inducing doses of interferon-α were 9.4 × 106 and 10.6 × 106 IU/day for groups receiving 100 or 200 mg zidovudine every 4 h, respectively. Mean GM-CSF doses used to reverse neutropenia were 0.64 and 0.63 µg/kg/day for these two groups, respectively, although the mean minimum effective GM-CSF dose for both was only 0.30 µg/kg/day. Serum p24 antigen declined >70% in all 5 antigenemic patients. Toxicities included a dose-dependent increase in lymphokine-like side effects (100%), anorexia and weight loss (42%), fatigue (42%), and anemia (50%). While toxicities of the combination can be significant, low-dose GM-CSF readily ameliorated neutropenia associated with zidovudine and interferon-α therapy without adversely affecting the antiviral properties of the combination.
- Published
- 1991
- Full Text
- View/download PDF
61. ACTIV trials: cross-trial lessons learned for master protocol implementation.
- Author
-
Keshtkar-Jahromi M, Adam SJ, Brar I, Chung LK, Currier JS, Daar ES, Davey VJ, Denning ET, Gelijns AC, Higgs ES, Jagannathan P, Javan AC, Jensen TO, Jilg N, Kalomenidis I, Kim P, Nayak SU, Newell M, Taiwo BO, Yokum T, and Delph Y
- Abstract
The United States Government (USG) public-private partnership "Accelerating COVID-19 Treatment Interventions and Vaccines" (ACTIV) was launched to identify safe, effective therapeutics to treat patients with Coronavirus Disease 2019 (COVID-19) and prevent hospitalization, progression of disease, and death. Eleven original master protocols were developed by ACTIV, and thirty-seven therapeutic agents entered evaluation for treatment benefit. Challenges encountered during trial implementation led to innovations enabling initiation and enrollment of over 26,000 participants in the trials. While only two ACTIV trials continue to enroll, the recommendations here reflect information from all the trials as of May 2023. We review clinical trial implementation challenges and corresponding lessons learned to inform future therapeutic clinical trials implemented in response to a public health emergency and the conduct of complex clinical trials during "peacetime," as well., Competing Interests: None., (© The Author(s) 2024.)
- Published
- 2024
- Full Text
- View/download PDF
62. Best Practices in Recruitment and Outreach to Women and Diverse Veterans for Coronavirus Research at the U.S. Department of Veterans Affairs.
- Author
-
Klote MM, Gutierrez CG, Deen JE, Churby LL, Bateman P, and Davey VJ
- Abstract
In September 2020, the Department of Veterans Affairs (VA) launched a novel volunteer research registry to rapidly recruit eligible study participants for research on SARS-CoV-2 and COVID-19 vaccines and treatments at VA Medical Centers selected as study sites for COVID-19 clinical trials. Targeted multimedia outreach campaigns were used to recruit diverse populations, including those historically under-represented in medical research. By November 2022, 58,561 volunteers were enrolled in the registry, 19% of whom were women, 9% Hispanic/Latino, and 8% Black. The registry's strategic approach to outreach proved successful in recruiting diverse volunteers, with geotargeted e-mails recruiting the most diversity., Competing Interests: No competing financial interests exist., (© Mary M. Klote et al., 2023; Published by Mary Ann Liebert, Inc.)
- Published
- 2023
- Full Text
- View/download PDF
63. Potentially traumatic events and health among lesbian, gay, bisexual and heterosexual Vietnam veterans: Results from the Vietnam Era Health Retrospective Observational study.
- Author
-
Blosnich JR, Hilgeman MM, Cypel YS, Akhtar FZ, Fried D, Ishii EK, Schneiderman A, and Davey VJ
- Subjects
- Adult, Child, Female, Heterosexuality, Humans, Male, Quality of Life, Sexual Behavior, Vietnam, Sexual and Gender Minorities, Veterans
- Abstract
Objectives: To examine differences in potentially traumatic events (PTEs), probable PTSD, and health-related quality of life (HRQoL) between lesbian, gay, and bisexual (LGB) and heterosexual Vietnam Era veterans. Method: Data are from the 2016-2017 Vietnam Era Health Retrospective Observational study survey ( n = 18,866; 45% response rate). PTEs were defined using the 10-item Brief Trauma Questionnaire and a dichotomous item about whether respondents witnessed sexual assault during military service. Current probable PTSD was measured with the Primary Care PTSD Screen, and mental and physical HRQoL was assessed with the SF-8™. Multivariable regression analyses were first adjusted for sociodemographic and military-related characteristics, and then with PTEs as a count variable ranging from 0-11. Survey weights accounted for the complex sampling design and nonresponse. Results: Approximately 1.5% of veterans were LGB. Compared to heterosexual veterans, LGB veterans were more likely to report exposure to natural disasters, childhood physical abuse, adulthood physical assault, and sexual assault, and they were less likely to report combat exposure, witnessing someone being seriously injured or killed, or witnessing sexual assault while in the military. Compared to heterosexual veterans, LGB veterans had greater odds of current probable PTSD (adjusted odds ratio [ aOR ] = 1.50, 95% CI [1.04, 2.16]) and poorer mental HRQoL ( B = -1.70, SE = .72, p = .018). PTEs attenuated sexual orientation differences in probable PTSD ( aOR = 1.27, 95% CI [.82, 1.97]) and poorer mental HRQoL ( B = -1.22, SE = .67, p = .067). Conclusions: Among Vietnam Era veterans, PTEs differ based on sexual orientation, and contribute to LGB veterans' greater prevalence of current probable PTSD and poorer mental HRQoL relative to heterosexual veterans. (PsycInfo Database Record (c) 2022 APA, all rights reserved).
- Published
- 2022
- Full Text
- View/download PDF
64. Responses to a Neutralizing Monoclonal Antibody for Hospitalized Patients With COVID-19 According to Baseline Antibody and Antigen Levels : A Randomized Controlled Trial.
- Author
-
Lundgren JD, Grund B, Barkauskas CE, Holland TL, Gottlieb RL, Sandkovsky U, Brown SM, Knowlton KU, Self WH, Files DC, Jain MK, Benfield T, Bowdish ME, Leshnower BG, Baker JV, Jensen JU, Gardner EM, Ginde AA, Harris ES, Johansen IS, Markowitz N, Matthay MA, Østergaard L, Chang CC, Goodman AL, Chang W, Dewar RL, Gerry NP, Higgs ES, Highbarger H, Murray DD, Murray TA, Natarajan V, Paredes R, Parmar MKB, Phillips AN, Reilly C, Rupert AW, Sharma S, Shaw-Saliba K, Sherman BT, Teitelbaum M, Wentworth D, Cao H, Klekotka P, Babiker AG, Davey VJ, Gelijns AC, Kan VL, Polizzotto MN, Thompson BT, Lane HC, and Neaton JD
- Subjects
- Adenosine Monophosphate adverse effects, Adenosine Monophosphate therapeutic use, Aged, Alanine adverse effects, Alanine therapeutic use, Antibodies, Monoclonal, Humanized adverse effects, Antibodies, Neutralizing adverse effects, Antibodies, Neutralizing blood, Antigens, Viral blood, Antiviral Agents adverse effects, Biomarkers blood, COVID-19 blood, COVID-19 virology, Double-Blind Method, Drug Therapy, Combination, Female, Humans, Male, Medical Futility, Middle Aged, RNA, Viral blood, SARS-CoV-2, Treatment Failure, Adenosine Monophosphate analogs & derivatives, Alanine analogs & derivatives, Antibodies, Monoclonal, Humanized therapeutic use, Antibodies, Neutralizing therapeutic use, Antiviral Agents therapeutic use, COVID-19 Drug Treatment
- Abstract
Background: In a randomized, placebo-controlled, clinical trial, bamlanivimab, a SARS-CoV-2-neutralizing monoclonal antibody, given in combination with remdesivir, did not improve outcomes among hospitalized patients with COVID-19 based on an early futility assessment., Objective: To evaluate the a priori hypothesis that bamlanivimab has greater benefit in patients without detectable levels of endogenous neutralizing antibody (nAb) at study entry than in those with antibodies, especially if viral levels are high., Design: Randomized, placebo-controlled trial. (ClinicalTrials.gov: NCT04501978)., Setting: Multicenter trial., Patients: Hospitalized patients with COVID-19 without end-organ failure., Intervention: Bamlanivimab (7000 mg) or placebo., Measurements: Antibody, antigen, and viral RNA levels were centrally measured on stored specimens collected at baseline. Patients were followed for 90 days for sustained recovery (defined as discharge to home and remaining home for 14 consecutive days) and a composite safety outcome (death, serious adverse events, organ failure, or serious infections)., Results: Among 314 participants (163 receiving bamlanivimab and 151 placebo), the median time to sustained recovery was 19 days and did not differ between the bamlanivimab and placebo groups (subhazard ratio [sHR], 0.99 [95% CI, 0.79 to 1.22]; sHR > 1 favors bamlanivimab). At entry, 50% evidenced production of anti-spike nAbs; 50% had SARS-CoV-2 nucleocapsid plasma antigen levels of at least 1000 ng/L. Among those without and with nAbs at study entry, the sHRs were 1.24 (CI, 0.90 to 1.70) and 0.74 (CI, 0.54 to 1.00), respectively (nominal P for interaction = 0.018). The sHR (bamlanivimab vs. placebo) was also more than 1 for those with plasma antigen or nasal viral RNA levels above median level at entry and was greatest for those without antibodies and with elevated levels of antigen (sHR, 1.48 [CI, 0.99 to 2.23]) or viral RNA (sHR, 1.89 [CI, 1.23 to 2.91]). Hazard ratios for the composite safety outcome (<1 favors bamlanivimab) also differed by serostatus at entry: 0.67 (CI, 0.37 to 1.20) for those without and 1.79 (CI, 0.92 to 3.48) for those with nAbs., Limitation: Subgroup analysis of a trial prematurely stopped because of futility; small sample size; multiple subgroups analyzed., Conclusion: Efficacy and safety of bamlanivimab may differ depending on whether an endogenous nAb response has been mounted. The limited sample size of the study does not allow firm conclusions based on these findings, and further independent trials are required that assess other types of passive immune therapies in the same patient setting., Primary Funding Source: U.S. government Operation Warp Speed and National Institute of Allergy and Infectious Diseases.
- Published
- 2022
- Full Text
- View/download PDF
65. Design and implementation of an international, multi-arm, multi-stage platform master protocol for trials of novel SARS-CoV-2 antiviral agents: Therapeutics for Inpatients with COVID-19 (TICO/ACTIV-3).
- Author
-
Murray DD, Babiker AG, Baker JV, Barkauskas CE, Brown SM, Chang CC, Davey VJ, Gelijns AC, Ginde AA, Grund B, Higgs E, Hudson F, Kan VL, Lane HC, Murray TA, Paredes R, Parmar MKB, Pett S, Phillips AN, Polizzotto MN, Reilly C, Sandkovsky U, Sharma S, Teitelbaum M, Thompson BT, Young BE, Neaton JD, and Lundgren JD
- Abstract
Background: Safe and effective therapies for COVID-19 are urgently needed. In order to meet this need, the Accelerating COVID-19 Therapeutic Interventions and Vaccines (ACTIV) public-private partnership initiated the Therapeutics for Inpatients with COVID-19 (TICO). TICO is a multi-arm, multi-stage (MAMS) platform master protocol, which facilitates the rapid evaluation of the safety and efficacy of novel candidate anti-viral therapeutic agents for adults hospitalized with COVID-19. Four agents have so far entered the protocol, with rapid answers already provided for three of these. Other agents are expected to enter the protocol throughout 2021. This protocol contains a number of key design and implementation features that, along with challenges faced by the protocol team, are presented and discussed., Protocol Design and Implementation: Three clinical trial networks, encompassing a global network of clinical sites, participated in the protocol development and implementation. TICO utilizes a MAMS design with an agile and robust approach to futility and safety evaluation at 300 patients enrolled, with subsequent expansion to full sample size and an expanded target population if the agent shows an acceptable safety profile and evidence of efficacy. Rapid recruitment to multiple agents is enabled through the sharing of placebo as well as the confining of agent-specific information to protocol appendices, and modular consent forms. In collaboration with the Food and Drug Administration, a thorough safety data collection and DSMB schedule was developed for the study of agents with limited in-human data., Challenges: Challenges included ensuring drug supply and reliable recruitment allowing for changing infection rates across the global network of sites, the need to balance the collection of data and samples without overburdening clinical staff, and obtaining regulatory approvals across a global network of sites., Conclusion: Through a robust multi-network partnership, the TICO protocol has been successfully used across a global network of sites for rapid generation of efficacy data on multiple novel antiviral agents. The protocol design and implementation features used in this protocol, and the approaches to address challenges, will have broader applicability. Mechanisms to facilitate improved communication and harmonization among country-specific regulatory bodies are required.
- Published
- 2021
- Full Text
- View/download PDF
66. A Neutralizing Monoclonal Antibody for Hospitalized Patients with Covid-19.
- Author
-
Lundgren JD, Grund B, Barkauskas CE, Holland TL, Gottlieb RL, Sandkovsky U, Brown SM, Knowlton KU, Self WH, Files DC, Jain MK, Benfield T, Bowdish ME, Leshnower BG, Baker JV, Jensen JU, Gardner EM, Ginde AA, Harris ES, Johansen IS, Markowitz N, Matthay MA, Østergaard L, Chang CC, Davey VJ, Goodman A, Higgs ES, Murray DD, Murray TA, Paredes R, Parmar MKB, Phillips AN, Reilly C, Sharma S, Dewar RL, Teitelbaum M, Wentworth D, Cao H, Klekotka P, Babiker AG, Gelijns AC, Kan VL, Polizzotto MN, Thompson BT, Lane HC, and Neaton JD
- Subjects
- Adenosine Monophosphate analogs & derivatives, Adenosine Monophosphate therapeutic use, Adult, Aged, Alanine analogs & derivatives, Alanine therapeutic use, Antibodies, Monoclonal, Humanized adverse effects, Antibodies, Neutralizing adverse effects, Antiviral Agents adverse effects, COVID-19 mortality, Double-Blind Method, Drug Therapy, Combination, Female, Glucocorticoids therapeutic use, Hospitalization, Humans, Intention to Treat Analysis, Male, Middle Aged, Treatment Failure, Antibodies, Monoclonal, Humanized therapeutic use, Antibodies, Neutralizing therapeutic use, Antiviral Agents therapeutic use, COVID-19 Drug Treatment
- Abstract
Background: LY-CoV555, a neutralizing monoclonal antibody, has been associated with a decrease in viral load and the frequency of hospitalizations or emergency department visits among outpatients with coronavirus disease 2019 (Covid-19). Data are needed on the effect of this antibody in patients who are hospitalized with Covid-19., Methods: In this platform trial of therapeutic agents, we randomly assigned hospitalized patients who had Covid-19 without end-organ failure in a 1:1 ratio to receive either LY-CoV555 or matching placebo. In addition, all the patients received high-quality supportive care as background therapy, including the antiviral drug remdesivir and, when indicated, supplemental oxygen and glucocorticoids. LY-CoV555 (at a dose of 7000 mg) or placebo was administered as a single intravenous infusion over a 1-hour period. The primary outcome was a sustained recovery during a 90-day period, as assessed in a time-to-event analysis. An interim futility assessment was performed on the basis of a seven-category ordinal scale for pulmonary function on day 5., Results: On October 26, 2020, the data and safety monitoring board recommended stopping enrollment for futility after 314 patients (163 in the LY-CoV555 group and 151 in the placebo group) had undergone randomization and infusion. The median interval since the onset of symptoms was 7 days (interquartile range, 5 to 9). At day 5, a total of 81 patients (50%) in the LY-CoV555 group and 81 (54%) in the placebo group were in one of the two most favorable categories of the pulmonary outcome. Across the seven categories, the odds ratio of being in a more favorable category in the LY-CoV555 group than in the placebo group was 0.85 (95% confidence interval [CI], 0.56 to 1.29; P = 0.45). The percentage of patients with the primary safety outcome (a composite of death, serious adverse events, or clinical grade 3 or 4 adverse events through day 5) was similar in the LY-CoV555 group and the placebo group (19% and 14%, respectively; odds ratio, 1.56; 95% CI, 0.78 to 3.10; P = 0.20). The rate ratio for a sustained recovery was 1.06 (95% CI, 0.77 to 1.47)., Conclusions: Monoclonal antibody LY-CoV555, when coadministered with remdesivir, did not demonstrate efficacy among hospitalized patients who had Covid-19 without end-organ failure. (Funded by Operation Warp Speed and others; TICO ClinicalTrials.gov number, NCT04501978.)., (Copyright © 2020 Massachusetts Medical Society.)
- Published
- 2021
- Full Text
- View/download PDF
Catalog
Discovery Service for Jio Institute Digital Library
For full access to our library's resources, please sign in.