Tuğba Melissa Öztürk

Professional with strong technical knowledge and analytical skills in test and medical informatics. I have extensive experience in software testing processes, quality control, data analysis, and the management of medical IT systems. I actively contributed to the Pusula HBYS application by negotiating development items, determining priorities, planning sprints, and managing testing processes. Additionally, I supported and monitored business workflows within the Pathology Management Application (Virasoft) processes.

In the integration of pathology devices, I facilitated software development by analyzing requirements and coordinating with external companies to deliver innovative solutions. I have successfully implemented projects focused on addressing user needs, optimizing workflows, and enhancing operational efficiency. With strong communication skills and a collaborative mindset, I aim to bridge the gap between technology and the healthcare sector, driving improvements in both technical and operational domains.

An interface for processing digital images was developed using MATLAB/App Designer. The software was programmed within the MATLAB environment, enabling efficient image processing and analysis functionalities.

Within the scope of the project, two equivalent half-wave dipole antennas were designed and developed to serve as the transmitter and receiver. The frequency response and S-parameters of the antennas were analyzed using a network analyzer to ensure precise characterization of their performance. For more accurate measurements, the antennas were positioned in insulated chambers at the TÜBİTAK BİLGEM Gebze campus. In this controlled environment, an advanced network analyzer device was employed to recalculate and verify the S-parameters, ensuring the reliability and accuracy of the results.

During the field scanning process, acceleration and position estimation were performed using an IMU sensor combined with a Kalman filter.

In the project, six different microwave circuits were designed, constructed, and simulated. The circuits were designed in planar form and implemented using microstrip lines. AWR Cadence software was utilized for the simulations, and the results were compared using an RF Spectrum Analyzer device.

In this company, which is an A-type inspection body accredited by TURKAK to provide periodic inspection services, I have conducted periodic inspections, reporting, occupational health and safety assessments, energy efficiency evaluations, and technical inspections. Additionally, I have also been involved in the sales and planning department.

In this project, undertaken as part of the Microprocessors course, an NTC10K waterproof temperature sensor was used to measure the temperature of materials in various states. The pins and ports of the STM32F072B-DISCO microprocessor board were configured for the project. For displaying the measured values, a QAPASS-LCD screen was utilized.

In this project, conducted as part of the Electromagnetic Wave Theory course, a servo motor, coil, neodymium magnet, and oscilloscope were utilized. An electromagnetic field was generated by rotating the neodymium magnet between two coils using the servo motor. The waveform of the field was displayed and analyzed on the oscilloscope.

In this project, conducted as part of the Electromagnetic Field Theory course, basic materials were used to construct fundamental circuit components that operate with high efficiency.

This company specializes in PCB design and manufacturing.
I have worked on areas such as Altium Designer, assembly, testing, and microcontroller-based product development within the company.