- Co-author of 20 scientific publications
- Participation in numerous national as well as international conferences
- Participation in the National Science Centre projects, completion of 4 scientific internships
- Index H 7
Current research initiatives focus on the synthesis of undoped diamond layers using the hot fiber chemical vapor deposition (HF CVD) method and their application in the design of prototype electrochemical and gas sensors, protective coatings, as well as in the role of materials that manifest photoluminescent properties.
As a substitute for traditionally used materials, diamond presents promising potential, primarily due to its unique properties, such as unparalleled stability and durability, which ensures that diamond-based sensors are resistant to degradation, which is extremely important for operation in aqueous environments of indeterminate composition and translates into increased reliability and longevity of sensor devices, especially in environmental and industrial applications. The use of diamond as a primary component in the sensors benefits the environment by eliminating the need for potentially harmful substances that could contribute to pollution or destabilization of ecosystems.
A distinctive feature of diamond sensors is their instant and effective response to changes in the monitored environment, which is crucial in the context of water quality monitoring and quick detection of potential hazards. Pure diamond layers can be functionalized by the termination with different functional groups, enhancing their ability to selectively bind biomolecules, enabling detection of a wide range of biohazards such as E. coli bacteria and toxins, which is crucial for water safety.
Unlike traditional sensors, which often contain dopants such as boron or nitrogen that increase conductivity but potentially degrade the material’s crystalline structure, pure diamond layers eliminate these risks while maintaining high detection efficiency. Compared to current materials used in sensor construction, such as latex, polystyrene, gold or glass, which are prone to biodegradation and exhibit low chemical stability, diamond as a material with higher durability offers a solution to these limitations, raising the performance standards of sensor systems.
In the context of increasing environmental and public health requirements, the properties of undoped diamond layers are becoming particularly important, opening up new prospects for technological innovation, safety and environmental protection.