A technology enabling the pseudo-formation of micro-parts of the human body, with potential applications in a wide range of fields including drug discovery research and personalized medicine.

As part of our efforts to contribute to carbon neutrality, TOPPAN is conducting research and development of catalyst coated membranes (CCMs) and membrane electrode assemblies (MEAs).

We are developing materials for reducing radio wave interference and leakage, enabling ultra-high-speed, ultra-low-latency, and multiple simultaneous connections, as well as space design utilizing these materials.

We are applying the printing technology we have accrued to the IT domain, addressing issues for color-related information communication on PCs and smartphones.

Our proprietary technology is based on electron beam technology used in semiconductor manufacturing. It helps to prevent counterfeiting and facilitate a safe and secure society.

This is a transparent barrier film developed based on coating and vapor deposition technologies. It is used in a wide range of domains including the food, medical, and pharmaceutical sectors.

We aim to contribute to advanced medical care by developing diagnostic platforms that apply microfabrication, fluid simulation, and test reagent development technologies.

Utilizing the liquid crystal technology cultivated by our display business, we develop liquid crystal films that switch between transparent and opaque when the power supply is turned on and off.

We aim to contribute to a sustainable society by developing and manufacturing non-food-based bioethanol made from waste paper for sustainable aviation fuel (SAF).

This is a technology that controls resin crystallization with materials nanonized using a special method jointly developed through industry-academia collaboration. It enhances the performance of decorative sheets.

We have developed microfluidic chip manufacturing technology using photolithography and are conducting joint research with external organizations in healthcare, environmental monitoring, and various other areas.

These sensors recognize the shape and movement of objects in 3D by measuring the flight time of light. We use a hybrid method suitable for sensing over a wide range of distances.

Digital technologies contribute to our lives while evolving toward the future. Here, we introduce some of TOPPAN’s initiatives in a series of columns, including fundamental technologies, future predictions, and examples of applications.