!_Laboratory of Biosensors and Bioinstruments

BIOSENSORS AND BIOINSTRUMENTS LABORATORY

At the Laboratory of Biosensors and Bioinstruments, we focus on advancing research and development in biosensor technology. Our work spans optical biosensors, biophysical sensors for medical devices, and electrochemical biosensors. We aim to provide innovative solutions for detecting biomarkers of various diseases, including diabetic retinopathy, breast cancer, viruses, and environmental issues such as water waste. We have a successful track record of producing high-quality research, publishing in international journals and conferences, and training researchers who contribute to the global scientific community. Our team comprises highly educated professionals with degrees from renowned universities in the UK, Italy, USA, Canada, and France. We work closely with experts in nanotechnology, biotechnology, and electrical engineering to develop cutting-edge biosensor platforms, and we are actively involved in commercialization efforts to bring these technologies to market. We aim to bridge the gap between scientific research and practical applications, ultimately improving healthcare and environmental monitoring.

MEMBERS

Daniele Tosi, PhD

Professor and Lab Head
Bakhyt Matkarimov, PhD

Leading Researcher
Kulzhan Berikkhanova, PhD

Professor and Leading Researcher
Aliya Bekmurzayeva, PhD

Senior Researcher
Yeldar Baiken

Researcher
Zhannat Ashikbayeva, PhD

Researcher

EQUIPMENT

The laboratories provide researchers with all the necessary equipment and a clean, well-organized space for comfortable work. There is specific lab equipment for the fabrication and calibration of optical fiber sensors, ranging from fiber splicers and CW lasers to reflectometers and fiber optic sensor interrogators. This enables researchers to have access to the latest tools for developing biosensors.

Optical backscatter reflectometer (Luna OBR4600) with software dev. kit

The Optical Backscatter Reflectometer (OBR) 4600, developed by Luna, is a cutting- edge device used for optical time-domain reflectometry. It offers precise measurement and visualization of reflections within optical fibers, enabling detailed analysis of fiber optic networks. The OBR 4600's Software Development Kit (SDK) provides a powerful framework for developers to create custom applications and integrate the OBR's capabilities into existing systems. This equipment is crucial in various industries, including telecommunications, aerospace, and oil and gas, as it allows for accurate characterization of fiber optic cables, detection of faults or degradation, and optimization of network performance. The OBR 4600 with its SDK empowers professionals to enhance reliability, efficiency, and maintenance of critical optical infrastructure.

Glass splicing station with CO2 laser (Fujikura LZM-100)

The Glass Splicing Station with CO2 laser, specifically the Fujikura LZM-100, is a cutting-edge piece of equipment used in the field of glass processing and manufacturing. This advanced technology enables precise and efficient splicing of glass fibers using a high-powered CO2 laser. The importance of this equipment lies in its ability to seamlessly join glass fibers together, facilitating the transmission of data and signals in various industries such as telecommunications and optical networking. The CO2 laser ensures a clean and reliable fusion, minimizing loss and maximizing the efficiency of data transfer. With its exceptional precision and speed, the Glass Splicing Station with CO2 laser significantly enhances productivity, reduces downtime, and ensures the quality of spliced glass fiber connections, making it an invaluable tool in the glass processing industry.

Fiber optic sensor interrogator (Micron Optics si255) with software dev. kit

The Micron Optics si255 is a vital tool in the field of optical sensing. This equipment enables precise and reliable measurements of physical parameters using fiber optic sensors. By utilizing advanced light-based technology, it can capture and analyze data with exceptional accuracy and speed. The software development kit further enhances the equipment's significance by providing developers with a comprehensive framework to create custom applications, algorithms, and data processing techniques. This empowers researchers and engineers to tailor the system to their specific needs, expanding its versatility and applicability across various industries, including aerospace, structural monitoring, and more. Overall, the Fiber optic sensor interrogator plays a pivotal role in advancing scientific research, optimizing industrial processes, and ensuring the safety and reliability of critical infrastructure.

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