Main Focus of Our Research
Our research team is dedicated to advancing science at the intersection of biotechnology, materials science, and electronics to tackle critical challenges in healthcare. We focus on developing innovative wearable devices designed for early diagnostics, continuous health monitoring, and therapeutic applications. By leveraging electrochemical and bioelectronic techniques, our work explores how these technologies can provide real-time insights into an individual's health status, enabling more personalized and effective medical interventions.
The Research Impact
The work we do aims to improve how we monitor and treat health conditions. Our research explores the potential of wearable sensors, and in-vitro systems, that can detect early signs of illness, monitor chronic conditions, and help guide therapeutic decisions. By making health monitoring more accessible and personalized, we hope to shift medical care toward more proactive, rather than reactive, approaches, ultimately improving patient outcomes and quality of life.
The Societal Benefits
Our research has broad societal implications, offering solutions that could transform healthcare systems worldwide. The development of sensor technologies for continuous health monitoring could help reduce healthcare costs, prevent disease progression, and enhance overall well-being. Additionally, our 3D in-vitro models provide an alternative to animal testing, offering more ethical and precise platforms for disease modeling and therapeutic testing. By focusing on practical, real-world applications, we aim to bridge the gap between cutting-edge science and everyday medical needs, making advancements in healthcare accessible to a wider population.
Ongoing Research
Our ongoing research focuses on several key areas:
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1. Wearable Health Monitoring: We are developing epidermal sensors capable of continuously monitoring biomarkers in wound healing, skin infection and related conditions such as inflammatory skin diseases and neurological disorders.
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2. Microneedle-based Therapeutic Devices: In addition to diagnostics, we are exploring wearable microneedle patches that can deliver targeted therapy in real time, adjusting to the user’s individual health needs.
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3. 3D vitro-systems for disease modeling: Our work introduces a 3D epidermal skin model integrated with sensor interfaces to replicate human skin's structure and monitor chemical physical changes in real-time. This innovative approach provides a more ethical and advanced alternative to traditional 2D models and animal studies, offering higher sensitivity and temporal resolution for skin research and biosensing applications.
Our team continually refines these innovations through both laboratory-based studies and real-world trials, allowing us to translate cutting-edge scientific advancements into viable healthcare solutions.
Parlak Team Kick-off Day 2024
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