Objectives
The Imaging Unit offers cutting-edge imaging technology for in-depth exploration of animal and tissue models, emphasizing molecular imaging to support the development of drugs and tracers.
Areas of impact and applications in the field
Focusing on molecular imaging for drug and tracer development using micro-PET/CT is beneficial for the non-invasive investigation of animal models for the following reasons:
- information is obtained in the context of the entire organism and is digitized, allowing for better analysis and quantification (e.g., compared to histology)
- longitudinal studies can be carried out
- as PET/CT imaging is already employed in clinical and research studies in humans, existing preclinical techniques can be easily translated to the clinical arena.
- reverse translation from clinical to preclinical levels is also possible by simulating clinical cases in animal models and thereby improving clinical diagnosis, as well as researching the molecular processes involved in disease progression.
In this specific context, the Imaging Unit enhances AnkaTheraHub’s theranostic capabilities. It supports the demands of a diverse spectrum of investigators, particularly those who desire to use cutting-edge in-vivo imaging to progress their research.
Areas of impact and applications in the field
Regarding cancer research, synthetic biology seeks to re-design biological systems to perform novel functions in a predictable way. Recent advances in bacterial and mammalian cell engineering include the development of cells that function in biological samples or within the body as minimally invasive diagnostics or theranostics for the real-time regulation of complex pathological conditions. Ex-vivo and in-vivo cell-based biosensors and therapeutics have been developed to target a wide range of diseases including cancer.
A major milestone in the field of theranostic cell engineering was the 2017 FDA approval of tisagenlecleucel, the first gene therapy to be approved in the USA. Considering the above, this facility will work on preclinical applications of mammalian sensing and drug delivery platforms as well as underlying biological designs that could lead to new classes of cell diagnostics and therapeutics.
In the context of infectious diseases, there is a growing need for novel, specific, sensitive, and effective diagnostic and treatment procedures. Synthetic systems and devices are evolving into strong tools for treating human infections. The advancement of synthetic biology provides platforms for detecting and preventing infectious diseases that are efficient, accurate, and cost-effective.