Precision Mechatronics & Motion Control
Sub-micron repeatable positioning, mechanism design and multi-axis motorized systems.
Semiconductor · Superconductor · Biomedical
I design and build precision test, measurement and automation systems — from system architecture and control electronics to optomechanics and real-time software.
R&D Lead, Systems & Instrumentation · Founder of Mikrofab
Semiconductor Characterization
My doctoral thesis was on transparent thin-film transistors (TFTs): a 5-layer mask design with ITO, SiO₂, IGZO, ZnO and AZO, and RF/DC magnetron sputtering. The Iᴅs–Vᴅs output curves of this family — the transition from the triode region to saturation — are a direct measure of device quality.
The Mikrofab Suite and measurement systems I developed combine buffered J–V/I–V acquisition with Keithley SMUs (2400/2450/2612A), plus van der Pauw, Hall and 4-point sheet resistance, in a single workflow.
About
I am a PhD-level R&D specialist and company founder with over a decade of experience in advanced instrumentation, precision test/measurement systems and electromechanical device development, with a background in semiconductor and superconductor physics. My core expertise is not in a single discipline but at their intersection: taking an idea and uniting mechanical design, control electronics, embedded/desktop software, optomechanics and measurement methodology into one working device architecture.
I began my career in 2010 with research at Ege University's Quantum Device Laboratory, and in 2016 I founded Mikrofab to turn that expertise into products. The systems I have developed are in use at various universities and R&D centers as alternatives to imported equipment.
What holds this broad range together is a recurring skill set present in all of it: precision motion control, low-noise signal acquisition and real-time measurement automation.
From Idea to Product
I run every stage that carries an R&D idea from a laboratory prototype to a reproducible device. The typical flow consists of six stages.
I translate the measurement requirement into a technical specification and plan the mechanical, electronic, optical and software subsystems under one architecture from the outset.
Mechanical design in SolidWorks / Fusion 360, electronics in Eagle, and semiconductor design in L-Edit / T-Spice / Silvaco — guided by Design-for-Manufacturing (DFM).
CNC machining, sheet-metal bending, 3D printing (FDM/SLA), PCB fabrication and assembly — largely with in-house capabilities.
Embedded/desktop software in LabVIEW and Python (PySide6), SCPI/Modbus instrument control, real-time test automation and reporting.
Validation testing, calibration, user interface and service/maintenance — bringing the device to field readiness.
Productization, patenting and funding through public R&D grants — the idea → prototype → validated device → product/patent chain.
Core Competencies
I bring together, in one place, the engineering disciplines that make a device work and get it validated.
Sub-micron repeatable positioning, mechanism design and multi-axis motorized systems.
Sensor integration, data acquisition, embedded/control electronics and instrumentation architecture.
Windows software in LabVIEW and Python (PySide6), SCPI instrument control and workflow automation.
Optical setup design, image processing, microscope fabrication and optoelectronic design.
Translational prototyping, precision liquid handling, diagnostic devices and commercialization.
RF/DC sputtering, photolithography and electrical/optical/magnetic characterization (I–V, van der Pauw, Hall).
Measurement & Characterization
From electrical, magnetic and optical characterization to biopotential signal processing — often all three measurement classes on a single platform, as a function of temperature.
Tc measurement; resistance falling to zero with temperature. Cryostat + probe station, Keithley SMU.
Diode, PV cell and device sweeps. Buffered acquisition, GUM uncertainty calculation.
200–1100 nm transmittance/absorbance; optical band-gap determination.
3× PT100 + custom heater, PID control; 0.1 °C precision, 10⁻⁶ mbar vacuum.
Low-noise acquisition, biocompatible electrode, motion-intent analysis. Applicable to ECG/EEG.
Resistivity, carrier concentration and mobility; Helmholtz field up to 200 mT.
Biological & Physiological Signal
Hands-on experience in acquiring and processing biopotential signals from human subjects: I design the full chain end to end — from the biocompatible electrode interface and low-noise pre-amplification to digital filtering and real-time processing.
Across two projects — a bionic hand prosthesis and a muscle detection device — signal acquisition, reusable electrodes and motion-intent analysis. A proven, completed capability.
The core infrastructure I use for EMG — electrode interface, pre-amplification, digital filtering, high-resolution acquisition — applies directly to other physiological signals.
Impedance-based detection of bacteria in food samples; device integration of qPCR molecular-diagnostic workflows using cell-free DNA from exhaled breath condensate (EBC).
Selected Projects
A selection from the measurement software I developed and 11 publicly funded R&D projects backed by TÜBİTAK and TÜSEB. Each represents work spanning concept to a validated device.
A desktop measurement and analysis platform I developed for semiconductor and thin-film characterization. Its PySide6 interface manages laboratory instruments in one place and unites measurement, analysis and reporting in a single workflow. It is built with an automated test suite, type checking, licensing and update infrastructure.
An open-cycle LN₂ cryostat with precise control of temperature, magnetic field and optical conditions. I developed it from concept to field use; it was productized, used at several universities and became the company's first product.
A hybrid system combining 365 nm UV-laser maskless patterning and automatic mask alignment on a single platform; designed as an alternative to imported photolithography systems. I developed the motor-control software, the alignment algorithm and the interface from scratch.
End-to-end automation of dilution, inoculation, incubation and colony counting without an operator. Built around a SCARA robotic arm; a discrete flow path prevents cross-contamination while gravimetric verification confirms every transfer by weight. The core method is patented.
Non-invasive, blood-free detection of lung-cancer mutations using cell-free DNA from exhaled breath condensate (EBC); integration of a dedicated EBC collection device with the qPCR workflow.
An EMG-controlled, 6-motor electromechanical hand architecture enabling independent motion of all five fingers; signal-processing infrastructure and a dedicated finger-motion validation test system.
A biomedical device that detects muscle tissue; EMG data acquisition and signal processing, a biocompatible reusable electrode and clinical efficacy evaluation. Resulted in a granted patent (TR2024/018372).
Full automation of a patented method for analyzing pollutants in drinking water; closed-loop heating-cooling, thermal-control optimization and an automated pipetting/syringe system.
Combining different fluids at controlled flow rate and temperature and dispensing them into vials with nL–µL–mL precision; peristaltic pump, heating system and Cartesian filling architecture.
A modular, optical-table probe station for electrical/optical/magnetic testing of microchips, thin films and materials across −196 / +180 °C; motorized micromanipulator and Helmholtz-coil integration.
YBCO superconducting heterostructures and Josephson junctions on silicon wafers using CeO₂, YSZ and STO buffer layers; Tc > 85 K through thin-film process optimization.
Fabrication and characterization of high-temperature-superconductor (HTS) YBCO-SQUID detectors; magnetic-field sensitivity analysis with an XY-scanning, low-temperature-stable cryostat.
Products & Applications
I grouped my products and systems by function into seven groups; most were developed as alternatives to imported systems and are in field use.
Professional Experience
Mikrofab Engineering, Consultancy & Software Ltd. · Denizli / İzmir
Company-level R&D leadership for universities and R&D centers: system architecture, mechanical/electronic design, embedded and control software, prototype fabrication and execution of publicly funded projects.
Pamukkale University · Biomedical Engineering
Impedance-based detection of bacteria in food samples; measurement methodology, instrumentation and microbiological analysis workflows.
Ege University · Quantum Device Laboratory
Thin-film and TFT fabrication, superconducting devices, low-temperature test setups; process optimization in YBCO-SQUID and Si-wafer Josephson-junction fabrication.
Education
Ege University · Physics
Investigation of Channel Semiconductors Used in Transparent Thin-Film Transistors. 5-layer mask; RF/DC sputtering with ITO, SiO₂, IGZO, ZnO, AZO.
Ege University · Physics
Design and Fabrication of ZnO-Based Transparent Thin-Film Transistors. Fabrication and testing of a 6-layer 5×5 TFT array.
Ege University · Physics
Superconducting YBCO DC-SQUIDs and Their Applications. Research at the Quantum Device Laboratory from the third undergraduate year.
Publications
Thin-Film Biosensors in Public Health: Review for E. coli Detection
Kuran, Ö. et al. · Gazi Univ. J. of Science · 2025 · DOI 10.35378/gujs.1550992
Antibiotics: environmental impact and degradation techniques
Takanoğlu Bulut, D., Kuran, Ö. et al. · J. Innov. Eng. Nat. Sci. · 2024 · DOI 10.61112/jiens.1473203
Fabrication of Superconducting YBa₂Cu₃O₇₋ₓ Thin Films on Si-Wafer via YSZ/CeO₂ Buffer Layers
Uzun, Y., Kuran, O., Avci, I. · J. Supercond. Nov. Magn. · 2016 · DOI 10.1007/s10948-016-3846-y
Performance Analysis of Direct Gold Wire-Bonding on Superconducting YBa₂Cu₃O₇₋ₓ Thin Films and Devices
Avci, I., Kuran, O., Uzun, Y. · IEEE Trans. Appl. Supercond. · 2016 · DOI 10.1109/TASC.2015.2427355
Patents
9 applications in total — 2 granted, 7 under examination.
Teknik Araçlar & Yöntemler
Contact
I'm open to collaboration and consultancy for your test, measurement, automation or biomedical-device projects.