Organoid Medicine Project
In what way should we bring back basic research findings to society? Norikazu Saeki, an expert in systems biology, uses iPS cell technologies to tie patients with researchers, tie basic research with clinical research and finally to tie academia with industry.
Utilizing "miniature organs" to create and develop treatments for intractable diseases
We, members of the T-CiRA Organoid Medicine Project led by Dr. Takanori Takabe who is the principal investigator, use miniature organs derived from iPS cells to develop new systems that represent what happens physiologically in the bodies of patients.
I am focusing on blood vessels that connect organs, and I am trying to develop a new miniature organ technology that represents vasculature and blood vessel cells that are typically found in the liver. With the T-CiRA project, we would like to use this new technology to study how drugs cause adverse reactions affecting the liver, which is referred to as drug-induced liver injury (DILI), and create ways to prevent and treat DILI.
"Who will use the technology?" "How will this technology affect society" We ask ourselves these very questions by working closely with patients.
I started my research from a field known as systems biology which is an approach to understand behavior of the components of biological system based on mass data obtained using information technology, mathematics and experimental biology. Using such complex data, I have modeled the metabolism of cells in the human body on a computer. I then developed an interest as to how cells are differentiated into organs. I am now engaged in biomedical research using miniature organ technologies. I have used advanced technologies such as artificial intelligence (AI), DNA sequencers and iPS cells. However, I often felt that there was a significant time lag before the achievements of these technologies used by many researchers to give something back to society.
My starting point
As a senior high student, I often wondered why different people learn sport techniques differently. I wanted to study sports science to teach sports to help everyone enjoy sport and study motor neuron development in children, and studied hard to prepare for my university examination.
Material for my first research presentation during first year of university. While I studied sports science and biology at university, I was really interested in a study at Masaru Tomita Laboratory in Keio University where computer science and biology were used.
iPS cell technology helps researchers tie with patients
Patients and their family members who expect a lot from iPS cell technologies closely communicate with researchers and have participated in actual research projects by providing their cells. iPS cell technology is playing a role as a catalyst to tie researchers with patients in an organic manner. This is very impressive.
These expectations and organic ties drive our research forward and remind us of the importance of our mission "to develop treatments that are truly beneficial for patients." It is also, of course, our mission to contribute to the health of patients. However, I am also very pleased when we can help patients act more proactively through our ties with patients.
Experts tie together to ensure the safest use of individual iPS cell lines in the future
The ultimate goal of iPS cell technologies is to provide personalized treatment to each individual patient who needs it. As one solution to achieve this goal, researchers at the CiRA Foundation of Kyoto University, are leading research to develop technologies that allow the use of cells obtained from a patient and to establish the patient's own iPS cell line at a low cost. In the future, more people will provide their cells for iPS cell creation, which will in turn require even more rigorous methods to maintain and use iPS cells properly.
iPS cell technology in a futuristic city
When iPS cell technology becomes a commodity, every person might well be able to receive his or her optimal healthcare solutions. I am interested in data-driven smart cities including automobility and telemedicine, of which many countries are trying to develop utilizing AI and IoT technologies. I believe it is very likely that iPS cell technologies will be used to provide important personal healthcare information, which will be essential for individual healthcare in the future. iPS cell technology might appear remote from a futuristic city. However, both technologies require a safe and secure information system and flexible digital platforms (so-called Urban OS) that help use an extremely large amount of personal information in a cross-sectional way. I feel there is a close affinity between the two. We very much need diverse expert teams to address these challenges.
T-CiRA and me
I actively communicate about how to "making smart" biology, i.e., making research achievements as available, affordable and accessible to all. I believe that the T-CiRA project is a smart platform that help move from basic research to new drug/treatment creation in an agile manner.
Research in pharmaceutical industry to develop new treatments in a more efficient manner
This T-CiRA project provides me an opportunity to take on a significant challenge. As T-CiRA is a place of basic research for new treatment creations, we are able to work fully on our basic research to create new treatments for patients in efficient ways. By collaborating with researchers from the pharmaceutical industry, we can better see the R&D process from the viewpoints of both science and business.
To my future colleagues
Make your vision and research visible
Project Assistant Professor at the Organ and Tissue Neogenesis Consortium, the Division of Advanced Multidisciplinary Research, Tokyo Medical and Dental University
Doctor of Medicine. In 2018, joined the T-CiRA Organoid Medicine Project. Utilizing his diverse expertise in theoretical biology, information analysis and experiments, he is developing organoid platforms for new drug discoveries, personalized medicine and transplant medicine. His main areas of research include stem cell biology, blood and vascular biology and systems biology. He is also interested in the development of digital, AI and IoT based systems to assist with smart, affordable and accessible solutions in the life sciences.