Bridging the Gap Between Laboratory and Clinical Care

Moving beyond theory to apply proven scientific innovations—to lower the cancer death toll.

About Me

My name is Joshua Raj

I am a high school senior and aspiring medical professional dedicated to bridging the gap between innovative research and patient care. My journey is driven by a commitment to academic excellence, evidenced by my status as a multi-year Pisgah Scholar, and a deep-seated passion for community service.

With over 250 hours of experience shadowing specialists in cardiology and vascular care, and volunteering at Memorial Hermann Hospital, I have seen firsthand the importance of applying advanced scientific knowledge in clinical settings. Beyond the lab and clinic, I am a Varsity soccer player, a student leader at Meals By Grace, and a volunteer at local assisted living facilities.

My goal is to leverage my background in science and leadership to ensure that life-saving technologies, like magnesium-based nanobots, become an immediate reality for those fighting cancer.

Connect Me

Mission

My mission is to bridge the gap between the laboratory and the hospital bed by turning proven cancer research into immediate clinical action.

Leadership

1 / Load Team Leader, Meals By Grace

Directed fellow volunteers in managing logistics for food distribution to those in need.

2 / Founder, Astronomy Club

Established a new organization to promote scientific interest among peers.

3 / Treasurer, HOSA Club

Managed financial operations for the future health professionals organization.

My Research Projects

My goal is to translate Scientific Innovation into Therapeutic Strategies

Translating Scientific Innovation into Therapeutic Strategies for Lung Cancer under Dr.Kathryn Wilwohl, University of Mississippi

Investigating the critical gap between emerging genetic breakthroughs and their clinical implementation for lung cancer, the world’s most fatal cancer due to late-stage detection. This research focuses on strategies to integrate new gene markers and therapeutic advancements into standard medical practice to overcome treatment resistance.

Comparative computational analysis of magnetically driven micro/nano-bots for tumor eradication/cancer cell therapy.

Developed a rigorous computational foundation for targeted cancer therapy using magnetically actuated magnesium-based nanobots designed for high-precision drug delivery. By simulating four distinct nanodevice architectures, this study provides a structural and magnetic framework for optimizing site-specific tumor eradication.

Cardiovascular Physiology & Clinical Diagnostics & Common Clinical Risk Factors.

Analyzing the fundamental components of cardiology, including anatomical physiology and common clinical risk factors. This project involves a comprehensive review of existing literature to synthesize research findings into a clinical presentation, demonstrating a deep understanding of cardiovascular diagnostics.