Research Lab Results
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Rahul Koka Lab
Research in the Rahul Koka Lab focuses on pediatric airways, patient safety and health disparities. Recent studies have focused on the relationship between socioeconomic status and perioperative outcomes and patient safety factors related to interoperative cardiac arrests. We also performed effects analyses of the maintenance and repair of anesthetic equipment in various medical environments. -
Safety and Functionality Eye Research (SAFER)
The SAFER lab is studying how the home environment affects a person’s fall risk and functionality at home. -
Sean T. Prigge Lab
Current research in the Sean T. Prigge Lab explores the biochemical pathways found in the apicoplast, an essential organelle found in malaria parasites, using a combination of cell biology and genetic, biophysical and biochemical techniques. We are particularly focused on the pathways used for the biosynthesis and modification of fatty acids and associated enzyme cofactors, including pantothenate, lipoic acid, biotin and iron-sulfur clusters. We want to better understand how the cofactors are acquired and used, and whether they are essential for the growth of blood-stage malaria parasites.
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Adam D. Sylvester Lab
Research in the Adam D. Sylvester Lab primarily focuses on the way in which humans and primates move through the environment, with the aim of reconstructing the locomotor repertoire of extinct hominins and other primates. We use a quantitative approach that involves the statistical analysis of three-dimensional biological shapes, specifically musculoskeletal structures, and then link the anatomy to function and function to locomotor behavior. -
Auditory Brainstem Laboratory
The overall goal of the Auditory Brainstem Library is to understand how abnormal auditory input from the ear affects the brainstem, and how the brain in turn affects activity in the ear through efferent feedback loops. Our emphasis is on understanding the effects of different forms of acquired hearing loss (genetic, conductive, noise-induced, age-related, traumatic brain injury-related) and environmental noise. We are particularly interested in plastic changes in the brain that compensate for some aspects of altered auditory input, and how those changes relate to central auditory processing deficits, tinnitus, and hyperacusis. Understanding these changes will help refine therapeutic strategies and identify new targets for treatment. We collaborate with other labs in the Depts. of Otolaryngology, Neuroscience, Neuropathology, the Wilmer Eye Institute, and the Applied Physics Laboratory at Johns Hopkins, in addition to labs outside the university to increase the impact and clinical relevance of our research. -
Peter Abadir Lab
The Abadir Lab focuses on uncovering the molecular mechanisms underlying frailty, resilience, and age-related diseases to bridge the gap between basic science and clinical applications. Grounded in translational research, the lab investigates the intricate interplay between mitochondrial biology, the renin-angiotensin system (RAS), and chronic inflammation, with an emphasis on their roles in physical and cognitive decline.
Key Areas of Research
- Mitochondrial and Angiotensin Biology
- Discovery and exploration of the mitochondrial angiotensin system (MAS) as a critical regulator of cellular energy, inflammation, and resilience.
- Investigating age-related mitochondrial dysfunction and its contribution to frailty, chronic inflammation, and neurodegeneration.
- Biomarker Development
- Identification of novel biomarkers for aging-related frailty and resilience, including cell-free DNA fragments and kynurenine metabolites.
- Development of diagnostic tools for early detection of physical and cognitive decline.
- Innovative Therapeutics and Bioengineering
- Designing nano-delivery systems for targeted drug delivery to mitochondria, enhancing wound healing and reversing cellular senescence.
- Integration of artificial intelligence and engineering to create advanced diagnostic tools for assessing frailty and aging-related conditions.
- AI and Technology in Aging
- Leveraging artificial intelligence and bioengineering to address challenges in geriatric medicine through collaborations with the Johns Hopkins AI & Technology Collaboratory for Aging Research (AITC) and the Gerotech Incubator Program.
Our Approach
The Abadir Lab employs a multidisciplinary methodology, combining molecular biology, bioinformatics, and engineering to tackle the pressing health challenges of aging populations. By fostering collaboration between clinicians, scientists, and engineers, the lab ensures that discoveries translate into tangible benefits for older adults.
Translational Impact
With a focus on frailty, inflammation, and cognitive decline, the Abadir Lab contributes to the development of personalized interventions and precision medicine approaches. Our work has laid the foundation for:
- Repurposing drugs like losartan and valsartan for treating aging-related chronic wounds.
- Unveiling the role of mitochondrial dysregulation in Alzheimer’s disease and frailty.
- Innovating tools for clinical assessments of resilience and functional decline.
Collaborations and Mentorship
The Abadir Lab is committed to training the next generation of scientists, fostering an interdisciplinary environment where students and postdocs explore cutting-edge aging science. Collaborations with the Johns Hopkins GeroTech Incubator Program and the Translational Aging Research Training Program (T32) further enrich this ecosystem of innovation.
Join Us
Whether you're a researcher, student, or collaborator, the Abadir Lab welcomes individuals passionate about transforming aging research into clinical practice.
- Mitochondrial and Angiotensin Biology
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Alan Scott Lab
Research in the Alan Scott Lab involves several important areas of genomics. Our team collaborates on a study to investigate the exon and genome sequence variants that determine phenotype, with a specific focus on the genetic bases of cleft lip and palate. We are also involved in assessing and improving genomic technologies to provide next-generation sequencing and analysis of sequence data to the clinical environment. In addition, we have a longstanding interest in the problem of gene annotation and the evolutionary genomics of vertebrates, especially endangered species.
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Johns Hopkins University Dermatology, Allergy and Clinical Immunology (DACI) Reference Laboratory
The mission of the Johns Hopkins University Dermatology, Allergy and Clinical Immunology (DACI) Reference Laboratory is to provide comprehensive, high-quality diagnostic allergy and immunology testing to patients throughout North America with asthma, allergy and immunologic disorders. We offer an extensive menu of laboratory tests that includes allergen-specific IgE measurements to approximately 300 pollen, epidermal, mold spore, mite, food, drug, venom and occupational allergen specificities. We specialize in Hymenoptera (insect sting) venom-specific IgE and IgG antibody measurements. In addition, the DACI Laboratory performs hypersensitivity pneumonitis precipitin panels, serum cotinine, and environmental mold measurements. -
Josef Coresh Lab
Research in the Josef Coresh Lab focuses on cardiovascular epidemiology, kidney disease and genetic epidemiology. Our team uses innovative methods to quantify disease burden and consequences in the population; studies the causes and consequences of vascular disease in the heart, kidneys and brain; and works to develop a strong scientific basis for quantifying the burden, causes and consequences of kidney disease. Working in collaboration with leading laboratories and specialists, we also aim to quantify the interplay of genes and environment in health and disease. -
John Sampson Lab
Researchers in the John Sampson Lab investigate relevant, appropriate, affordable and sustainable ways to improve anesthesia and perioperative care in low-resource settings. The team’s research interests include the Universal Anesthesia Machine; interpersonal relationships between anesthesia providers and their patients; how the quality of those relationships impacts professionalism, autonomy, anxiety, patient cooperation and patient satisfaction; how disease influences cerebrovascular reactivity as measured by MRI; and how education and communication can improve medical care in Africa and other austere environments. The team is currently working with clinicians in Ghana, Ethiopia and Kenya.