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I run end-to-end product development — system architecture, control electronics, optomechanics and real-time software — building cryogenic probe stations, maskless photolithography, automated liquid handling and diagnostic devices as local alternatives to imported equipment.
A PhD-level R&D specialist and company founder with over a decade in advanced instrumentation, precision test/measurement systems and electromechanical device development, with a background in semiconductor and superconductor physics. My core expertise is not a single discipline but their intersection: taking an R&D idea and uniting mechanical design, control electronics, embedded and desktop software, optomechanics and measurement methodology into one working device architecture.
I began in 2010 with superconductivity and thin-film research at Ege University's Quantum Device Laboratory, and founded Mikrofab in 2016 to turn that expertise into products. The systems I have developed are in active field use at universities and R&D centres as local, cost-effective alternatives to imported equipment.
What holds this broad range together is a recurring skill set: precision motion control, low-noise signal acquisition and real-time measurement automation.
Precision motion, low-noise acquisition and real-time automation — applied from cryogenic physics benches to clinical devices.
Sub-micron repeatable positioning, mechanism design and multi-axis motorized systems.
Sensor integration, buffered data acquisition, embedded control electronics and instrumentation architecture.
SCPI/TSP instrument control, real-time test automation and no-code laboratory workflows.
Optical setup design, image processing, microscope fabrication and optoelectronic design.
Translational prototyping, precision liquid handling, diagnostic devices and commercialization.
RF/DC magnetron sputtering, microfabrication and electrical/optical/magnetic characterization.
TÜBİTAK and TÜSEB funded R&D, commercial instruments and software platforms — filter by domain.
Mechanics, electronics, optics and software planned under one architecture from the outset — the difference between a lab demo and a device someone else can service.
Carried out end to end — both with systems I designed and with commercial instruments — often all three classes on one temperature-controlled platform.
Biopotential signal processing. The chain built for a semiconductor — electrode interface, low-noise pre-amplification, digital filtering, high-resolution acquisition — is the chain an EMG, ECG or EEG signal needs. Two projects took it into clinical work, with a granted patent.
See the recordOpen to collaboration and consultancy for test, measurement, automation and biomedical-device projects.
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