Measuring Innovation: Laboratory Infrastructure to Deliver Essential HIV Clinical Trial Results

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This blog is the fifth in a series about the future of NIAID's HIV clinical research enterprise. For more information, please visit the HIV Clinical Research Enterprise page.

The outcomes of HIV clinical trials are often determined by precisely and accurately measuring how specific interventions work biologically in people. Whether tracking immune responses to a preventive vaccine candidate, monitoring changes to the amount of virus in the body, or screening for certain adverse events after administering a novel therapeutic, study teams routinely interact with clinical trial participants to safely obtain, store, transport, and analyze tissue and bodily fluid samples to answer important scientific questions about the impact of an HIV intervention in a laboratory. High quality, reliable laboratory infrastructure is critical to the accuracy and validity of clinical trial results. 

More than 150 NIAID-supported laboratories in 20 countries are addressing the diverse scientific programs of the four clinical trials networks in the Institute’s HIV clinical research enterprise. Since the start of HIV clinical research, laboratory capacities have grown in scope to support an increasing number of global clinical trials, emerging complexities in study protocol design and laboratory testing demands and evolving regulatory requirements for research and licensure.

NIAID is engaging research partners, community representatives, and other public health stakeholders in a multidisciplinary evaluation of its HIV clinical trials networks’ progress toward short- and long-term scientific goals. This process assesses knowledge gained since the networks were last awarded in 2020 to identify an essential path forward based on the latest laboratory and clinical evidence. Future NIAID HIV clinical research investments build on the conclusions of these discussions. 

In the next iteration of HIV clinical trials networks, laboratory functions will continue to evolve to align with scientific priorities and research approaches. Networks will support small early-phase trials, large registrational trials and implementation science research to examine preventive vaccine candidates and non-vaccine prevention interventions, antiviral treatments, HIV curative strategies, and therapies to improve the clinical outcomes of people affected by and living with HIV. Selected studies also will rely on high quality laboratory resources to examine interventions for tuberculosis, hepatitis, mpox and other infectious diseases. Clinical trial networks will need to employ a variety of laboratory types to achieve these objectives.  To increase flexibility and ensure the timeliness and the high quality standards the HIV field relies on for evidence that informs science, licensure and equitable practice, NIAID will have the ultimate authority for laboratory selection and approval.

Efficiency and Versatility 

Laboratory assays for HIV clinical trials continue to expand in quantity and complexity and require proportionate technical expertise and management. Future clinical research needs will include immunologic, microbiologic, and molecular testing, as well as standard chemistries and hematologic assays, with fluctuating volumes across a global collection of research sites. Balancing capacity, efficiency, scalability, and cost will require a mixed methods approach. These may include centralized laboratory testing where feasible and advantageous for protocol-specified tests; standardized processes for rapid assessment and approval of new network laboratories; and validated third-party outsourcing of routine assays to ensure timely turnaround when demands surge. 

Quality and Standardization

Ensuring consistent laboratory operations and high quality laboratory data will require continued compliance with the NIAID Division of AIDS Good Clinical Laboratory Practices and other applicable regulatory guidelines, ongoing external quality assurance monitoring, strong inventory management, importation and exportation expertise, and data and specimen management.

The research community plays an essential role in shaping NIAID’s scientific direction and research enterprise operations. We want to hear from you. Please share your questions and comments at NextNIAIDHIVNetworks@mail.nih.gov.

About NIAID’s HIV Clinical Trials Networks

The clinical trials networks are supported through grants from NIAID, with co-funding from and scientific partnerships with NIH’s National Institute of Mental Health, National Institute on Drug Abuse, National Institute on Aging, and other NIH institutes and centers. There are four networks—Advancing Clinical Therapeutics Globally for HIV/AIDS and Other Infections, the HIV Vaccine Trials Network, the HIV Prevention Trials Network, and the International Maternal Pediatric Adolescent AIDS Clinical Trials Network.

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Contribute to Development of a Universal Influenza Vaccine

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NIAID issued a Notice of Special Interest (NOSI): Advancing Research Needed to Develop a Universal Influenza Vaccine with the aim of continuing to foster new and innovative scientific endeavors related to Universal Influenza Vaccine Research that advance the three major research areas defined in our Strategic Plan for the Development of a Universal Influenza Vaccine

  • Improve understanding of transmission, natural history, and pathogenesis of influenza virus infection. 
  • Characterize influenza immunity and correlates of immune protection. 
  • Support rational design of universal influenza vaccines. 

Background and Research Objectives 

Vaccines remain the greatest public health tool to protect against influenza illness and disease. However, to more effectively protect the public against seasonal and pandemic influenzas, improved vaccines with broader, more durable protection are needed. To directly address this need, the NOSI is requesting grant applications proposing scientific projects in areas that include, but are not limited to: 

  • Expand understanding of how viral, host, and environmental factors contribute to viral transmission. 
  • Define the role of anti-hemagglutinin (HA) stem and anti-neuraminidase (NA) antibodies in prevention of transmission. 
  • Identify factors associated with the severity of influenza. 
  • Precisely characterize circulating influenza viruses to assess the breadth of protection required from vaccines. 
  • Improve understanding of antigenic drift and immunodominance of various influenza antigens. 
  • Investigate interrelated roles of T and B cells in influenza responses to vaccination and infection. 
  • Characterize immune responses in diverse populations (including but not limited to different ages, sex, pregnancy, obesity, presence of co-infections or other comorbidities, and compromised immunity). 
  • Identify factors that determine immunodominant hierarchies of B cell responses. 
  • Characterize antibody responses to HA and NA and their contribution to immune protection. 
  • Define how the initial encounter with an influenza virus (i.e., immune imprinting) affects B and T cell responses, including immunologic responses to subsequent influenza virus infection. 
  • Identify major influenza epitopes that elicit broadly protective T cell immunity. 
  • Determine T cell effector function(s) necessary to enhance protective immunity or to modulate disease severity. 
  • Determine whether T cells require localization in lymph nodes or mucosal tissue to be protective. 
  • Rational design of new immunogens, and mechanistic characterization of vaccines with greater breadth and durability than currently licensed vaccines. 
  • Utilize new vaccine approaches that elicit both humoral and cell-mediated responses. 
  • Employ novel delivery mechanisms or vaccine regimens that result in improved mucosal or tissue resident responses. 
  • Incorporate novel adjuvants, with a specific emphasis on combination adjuvants and mucosal adjuvants, to enhance vaccine responses. 
  • Test controlled-release vaccine strategies to improve the breadth and durability of vaccine responses. 
  • Develop animal models to test T-cell targeting vaccine platforms. 
  • Compare data from human challenge studies with data from studies of natural infection. 
  • Utilize existing datasets from human cohorts and animal models to better predict protective responses to infection and/or vaccination.

Application and Submission Information 

This notice applies to application receipt dates on or after February 5, 2025, and subsequent receipt dates through November 16, 2027. 

Submit applications for this initiative using one of the following notices of funding opportunities (NOFOs) or any reissues of these announcements through the expiration date of this notice. Your budget and project period limits will be determined by which NOFO you select for your application.  

For funding consideration, applicants must include “NOT-AI-24-081" (without quotation marks) in the Agency Routing Identifier field (box 4B) of the SF 424 R&R form. Applications without this information in box 4B will not be considered for this initiative. Refer to the NOSI for additional instructions. 

Direct scientific questions to Dr. Jennifer Gordon at jennifer.gordon2@nih.gov or 301-761-6805 or Dr. Kentner Singleton at kentner.singleton@nih.gov or 240-669-5499.

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Email us at deaweb@niaid.nih.gov for help navigating NIAID’s grant and contract policies and procedures.

Vaccines stimulate the immune system to produce immune responses that protect against infection. Vaccines provide a safe, cost-effective and efficient means of preventing illness, disability and death from infectious diseases.

Vaccines have saved millions of lives worldwide and dramatically reduced the prevalence of many life-threatening infectious diseases. Yet there remains a need for new and improved vaccines against existing infectious diseases, as well as a need for rapid development of experimental vaccines to address emerging infectious diseases. NIAID supports and conducts research to identify new vaccine candidates to prevent a variety of infectious diseases, including those for which no vaccines currently exist. NIAID-supported research also aims to improve the safety and efficacy of existing vaccines.

Vaccine Research at NIAID

NIAID conducts and supports numerous stages of the vaccine development process, ranging from basic immunology research to clinical testing of candidate vaccines. Basic research aims to understand the complex interactions between pathogens and their human hosts and generate the knowledge essential for developing safe and effective vaccines. Preclinical research helps advance promising vaccine candidates into human testing. Clinical trials evaluate the safety, tolerability and efficacy of investigational vaccines in people.

Related Public Health and Government Information

For general health information about vaccines, visit Vaccines.gov and the Centers for Disease Control and Prevention’s Vaccines & Immunizations site. Vaccines are held to very high safety standards; for more information, see the Vaccine Safety page on Vaccines.gov. 

a vile and syringe
Vaccines
Page Summary
Vaccines stimulate the immune system to produce immune responses that protect against infection. Vaccines provide a safe, cost-effective and efficient means of preventing illness, disability and death from infectious diseases.

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