Helena Kelly

Publisher:朱苏静Release time:2024-04-26Views:370

Email: helenakelly@rcsi.com

Tel: +353 (0)1 402 8595

Add: 111 St. Stephens Green, Dublin 2, Ireland




Biography

Prof Helena Kelly is Associate Professor in the School of Pharmacy & Biomolecular Sciences (PBS). A registered pharmacist, Helena graduated with a BSc (Pharm) from Trinity College, Dublin (TCD) and subsequently undertook her PhD in the area of stimuli-responsive hydrogels and sustained drug delivery in the Department of Pharmaceutics, TCD. After completing her PhD, Helena spent eight years in the pharmaceutical and biopharmaceutical industry working across a range of areas including process development and scale up, technical manufacturing operations, clinical trial manufacture and the regulatory approval process.  Helena returned to academia in the School of Pharmacy at RCSI in 2008. In March 2022 she was appointed as Deputy Head (Programmes Innovation) in PBS with responsibility for the implementation of two new programmes, an MSc in Technologies and Analytics in Precision Medicine (TAPM) and a BSc in Advanced Therapeutic Technologies (ATT). The development of these programmes has been funded through a €7.8m HEA Human Capital Initiative award titled 'Enabling Future Pharma -Beyond the Pill'.  From a research perspective, Helena has a particular interest in the use of delivery platforms in translational research applications and is a principal investigator in the Tissue Engineering Research Group (TERG). She has been a Principal Investigator and deputy co-ordinator in two EU consortia, AMCARE (Advanced Materials for Cardiac Regeneration, FP7, 2013-2017) and DRIVE (Diabetes Reversing Implants for Enhanced Viability and long-term Efficacy, Horizon 2020, 2014-2018) where she led on the formulation of hydrogel delivery platforms for minimally invasive delivery clinical applications.   She is the inventor of ChemoGel, a thermoresponsive hydrogel platform for intratumoral drug delivery, the development of which has been funded through the Enterprise Ireland Commercialisation Fund. In 2019, she participated in the NSF-SFI Innovation Corps (iCorps) programme for entrepreneur scientists and has a strong interest in the role of innovation in the HE section. 


Research Interests

Helena's research interests are primarily focused on hydrogel technology in particular potential clinical applications for hydrogels as delivery vehicles or biomaterial carriers. She is particularly interested in developing integrated solutions for complex healthcare problems and collaborates with a multi-disciplinary team of people including clinicians, biomedical engineers and stem cell biologists. She has evaluated the potential of hydrogel platforms for applications across a range of clinical indications including tissue regeneration for cardiac applications, as an ECM to enhance cell viability, and for intra-tumoral delivery in oncology applications. The potential of hydrogel platforms in interventional oncology applications is a particular area of focus. Interventional oncology (IO) focuses on the diagnosis and treatment of cancer and cancer-related problems using targeted minimally invasive procedures performed under image guidance. Treatment for cancer is traditionally based around the three pillars of surgery, chemotherapy and radiation with immunotherapies playing an increasingly important role in certain cancers. Standard drug regimens are primarily delivered to the patient via intravenous (IV) injection, with the concomitant off-target toxic side effects leading to significant patient morbidity due to lack of specificity of treatment.   Applying the principles of IO, Helena has developed a thermoresponsive hydrogel platform for the intra-tumoral delivery of chemotherapeutics. This ChemoGel technology is a patent-protected platform that is currently being evaluated for its commercialisation potential. Intra-tumoral delivery of chemotherapeutics provides potential benefits to treatment including minimally invasive administration, localisation of chemical payload at tumor site and subsequent reduction in off-target side effects. The use of this approach in combination with specifically designed drug delivery platforms allows for optimisation of  this approach through improved delivery and retention at the tumour site, and prolonged duration of release and activity of drug.


Recent Publications