Smart Materials, Photonics, Technologies, and Engineering Ecosystem

Science
Latvian scientists combining forces to innovate in photonics, smart materials, and robotics via co-creation research ecosystem.
Future
The future belongs to interdisciplinary research and innovation, where physics, biology, medicine, electronics, and information technology intersect.
Innovation
Innovations for environmental protection, robotics, and the Internet of Things (IoT) are just some of the directions being worked on within the framework of this project to commercialize them.
MAIN AREAS OF RESEARCH
The project is structured in four main directions:
01
The activities of the photonics research area within the project are focused on the creation
Photonics
02
Within the framework of this project, the researchers intend to develop a multi-organ chip
Microfluidics
03
This research area intends to cover the creation of new technologies to develop smart engineering systems
Robotics, IoT and Sensors
04
This research area focuses on developing innovative materials to reduce the use of fossil resources
Smart Materials
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The activities of the photonics research area within the project are focused on the creation of a polymer photonics platform, anticipating that it could serve as a basis for a new industry sector while contributing to the European Chips Act on behalf of Latvia. Also, the goal is to create an optical fiber-based sensor for signal processing systems that would be used for various purposes and needs. As part of this project research area, substantial work is being done on the development of sensitive sensors for the detection of unwanted chemical pollution in water, the improvement of the medical endoscope, the creation of an optical fiber module for diagnosing the state of skin health, new methods and equipment for the treatment and disinfection of devices, as well as the use of optical fibers for real-time monitoring of the infrastructure.
Within the framework of this project, the researchers intend to develop a multi-organ chip system that would predict the toxicity of medicinal substances in conditions close to human physiology. A liver-kidney-pancreas model is also being worked on, which would be the first of its kind worldwide. This research direction of the project covers not only microfluidics but also medicine and pharmacology, fluid dynamics, mathematical simulations, and innovative application of fluorescence. With the help of the technologies developed within the project, it is expected that the testing, efficiency, and speed of development of medicinal substances could be significantly improved.
This research area intends to cover the creation of new technologies to develop smart engineering systems with high-added value while focusing on innovative solutions for industry-driven problems. The main tasks are to improve the ability to perceive and understand the environment and voice commands and simplify the management system of multiple robots. The direction of the Internet of Things (IoT), in turn, focuses on the integration of various levels of critical infrastructure smart systems (IoT, Edge, Cloud) and the creation of a set of tools for safe use, as well as the development of high-density energy-efficient IoT data transmission solutions. Finally, for sensor systems, the emphasis remains on human-friendly systems, providing effective multi-level feedback while making these systems safe and energy efficient.
This research area focuses on developing innovative materials to reduce the use of fossil resources, thus reducing the negative impact on the environment. In the course of the project, the researchers intend to work on alternative biodegradable food packaging films to reduce the volume of packaging waste, as well as asphalt compositions and heat-insulating foams. Also, as part of the project, it is planned to develop smart materials capable of collecting lost heat and mechanical energy, which would provide new energy sources for sensors, including those built into clothes, as well as catalysts and systems for obtaining hydrogen by splitting water and reducing carbon dioxide, creating a commercialized new type of hydrogen-obtaining device and reaching other goals of the commercialization potential of this research area.
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    Project Smart Materials, Photonics, Technologies, and Engineering Ecosystem
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