Cebeci Research Group Sabancı University
Time sequence of a water droplet detaching from a treated surface, imaged in silhouette
LbL: Functional Surfaces

Building a surface one layer at a time

Layer-by-layer assembly sets surface chemistry and nanoporosity independently, so one method gives antifogging, superhydrophobic, icephobic and anti-corrosion coatings.

Scanning electron micrograph of bundled boron nitride nanofibrils
Atmospheric water harvesting

Toward water and power from dry air

MOF-303 hybridized with boron nitride nanostructures, designed so that the heat of adsorption drives a thermoelectric module while the sorbent pulls water out of low-humidity air.

Scanning electron micrograph of an electrospun sulfonated poly(ether ether ketone) nanofiber mat
Structural energy storage

A separator that also carries load

Boron nitride-reinforced sulfonated PEEK nanofiber membranes, electrospun as separators for structural lithium batteries and supercapacitors.

Schematic of a two-tank CO2 capture loop with electrospun fiber mats and a hydrodynamic cavitation device
Carbon capture

Capture and release in one loop

CO2-philic electrospun mats capture the gas in a pressurized tank; a hydrodynamic cavitation device strips the loaded sorbent, so the same circuit captures and regenerates.

Scanning electron micrograph of faceted hexagonal boron nitride platelets
Boron nitride

White graphene from boron minerals

Low-temperature routes to h-BN platelets, nanofibers and nanotubes, with freeze-drying used as a design parameter to set the architecture before pyrolysis.

High-speed image sequence of bubbles passing through a fiber mat over sixty milliseconds
Cavitation

Engineering collapse

High-speed imaging of bubbles meeting a fiber mat at ten-millisecond intervals, used to intensify mass transfer and to exfoliate two-dimensional materials.

We build functional nanomaterials, and the thin films, fibers and functional assemblies that put them to work.

Our research runs from molecular assembly through materials synthesis to prototype systems: layer-by-layer thin films that control how surfaces wet, freeze and corrode; boron nitride and carbon nanostructures grown from low-cost precursors; electrospun membranes that conduct ions or adsorb carbon dioxide; and integrated systems for energy storage, CO2 capture and atmospheric water harvesting.

What holds it together is a materials-first approach to problems usually treated at the system level. A structural battery is limited by its separator. An atmospheric water harvester is limited by its sorbent. A carbon capture unit is limited by how gas meets liquid. We work on the material, then build the assembly that tests it.

Principal investigator
Prof. Fevzi Çakmak Cebeci
Department
Materials Science and Nano Engineering, Faculty of Engineering and Natural Sciences
Laboratories
Sabancı University campus and SUNUM Nanotechnology Research Center, Istanbul
Program
Coordinator, Materials Science and Nano Engineering, since 2024

Recent news

Latest from the group.

    Research

    From molecule to system

    Eight active lines of work. They share a way of working rather than a single method: design the material, synthesize it, characterize it honestly, then integrate it into a functional assembly that tests whether the material-level claim holds at the system level.

    Time sequence of a water droplet detaching from a nanofibrous surface
    Droplet detachment on a nanofibrous surface, imaged in silhouette over 10 s.
    01 / Surfaces

    LbL: Functional Surfaces

    Alternating adsorption of polyelectrolytes and nanoparticles builds a film one molecular layer at a time, so surface chemistry and nanoporosity can be set independently. This is where the group started and it still underpins much of the rest.

    We have used it to make superhydrophobic and nanoporosity-driven superhydrophilic antifogging coatings, patterned biomimetic surfaces after the Namib desert beetle, corrosion resistant coatings for aerospace, phthalocyanine and porphyrin thin films, and slippery liquid-infused porous surfaces with tuned ice adhesion.

    • polyelectrolyte multilayers
    • superhydrophobic and superhydrophilic
    • icephobic SLIPS
    • anti-corrosion
    • transfer printing
    Scanning electron micrograph of bundled boron nitride nanofibrils
    Boron nitride nanofibrils: high surface area and high thermal conductivity in one filler.
    02 / Water and energy

    Atmospheric water harvesting and thermoelectric generation

    Our newest line aims to integrate water harvesting and power generation in a single system. MOF-303, a metal-organic framework with high water uptake at low relative humidity, is hybridized with boron nitride nanostructures for thermal transport and chemical stability.

    In the target design, the heat released as the sorbent takes up moisture drives the hot side of a thermoelectric module while BN-based radiative cooling holds the cold side. The goal is a single assembly that supplies potable water and electricity, day and night, in dry environments.

    • MOF-303 and BN hybrids
    • sorption-driven AWH
    • thermoelectric generation
    • radiative cooling
    Cross-section schematic of a structural battery laminate
    Structural battery laminate: carbon fiber electrodes with a load-bearing separator and electrolyte between them.
    03 / Systems

    Structural energy storage and power composites

    A structural battery stores energy inside a load-bearing part, and the concept pays off only if the combined component weighs less than the separate structure and battery it replaces. The trade-off between stiffness and charge storage sits mostly in the separator and the electrolyte.

    We develop ionically conductive prepreg interleaves: electrospun sulfonated PEEK separators, boron nitride fillers that immobilise anions and raise the lithium transference number, and multifunctional electrolytes. These are assembled with modified carbon fabrics into lab-scale structural supercapacitors and cells, and scored against a multifunctionality index.

    • sPEEK separators
    • structural supercapacitors
    • multifunctionality index
    • VACNT electrodes
    Schematic of the CO2 capture and regeneration loop with cavitation device
    Capture and regeneration loop: fiber mats in a pressurized tank, a cavitation microchannel, and a regeneration tank with optical access.
    04 / Separation

    CO2 capture and hydrodynamic cavitation

    Capture performance is limited as much by how gas meets liquid as by the sorbent itself. We pair CO2-philic electrospun nanofiber mats and amine-functionalized carbon adsorbents with hydrodynamic cavitation devices that generate intense, controllable bubble populations, then measure adsorption isotherms, kinetics, selectivity and cycling.

    The same cavitation platform is being extended to continuous exfoliation of two-dimensional materials and to controlled fragmentation of microfibers.

    • PMMA-PEG-SiO2 nanofibers
    • PEI-modified activated carbon
    • cavitation on chip
    • bubble and membrane systems
    Reaction scheme: melamine diborate pyrolysed in argon yields boron nitride fibers
    Melamine diborate pyrolysed to boron nitride fibers; the hexagonal lattice is retained.
    05 / Materials

    Boron nitride nanomaterials and morphology control

    Hexagonal boron nitride is graphite's insulating twin: the same layered lattice, but electrically insulating, thermally conductive and chemically stable to high temperature. We study low-temperature synthesis of nanotubes, nanofibers and platelets from boron minerals, including the role of sulfur compounds in lowering the growth temperature, and grow BNNTs directly on ceramic and SiC fibers to engineer composite interfaces.

    Morphology is treated as a variable in its own right. Recent work shows that freeze-dryer condenser temperature alone can set the fiber architecture of the melamine diborate precursor, and that the pyrolysed boron nitride inherits it.

    • BNNT, BNNF, h-BN
    • growth vapor trapping BOCVD
    • melamine diborate route
    • freeze-drying control
    • fuzzy fiber interfaces
    Scanning electron micrograph of a vertically aligned carbon nanotube forest in cross-section
    Vertically aligned carbon nanotube forest in cross section, grown by CVD; scale bar 30 micrometers.
    06 / Synthesis

    Synthesis of nanomaterials

    Most of the work above depends on making the material ourselves rather than buying it. We grow vertically aligned carbon nanotube forests and boron nitride nanotubes by chemical vapor deposition, controlling forest height, alignment and areal density through bimetallic iron and nickel catalysts, and we grow nanotubes directly onto glass, ceramic and SiC fibers to build fuzzy fiber interfaces.

    Alongside the CVD work we run solution synthesis: colloidally stable amine-functionalized silica nanoparticles for layer-by-layer assembly, sulfonation of PEEK to controlled degrees for ion-conducting membranes, molecularly imprinted polymers, and conducting polymers grown electrochemically on carbon fiber microelectrodes.

    • CVD and BOCVD
    • VA-CNT forests
    • bimetallic catalysts
    • functional silica nanoparticles
    • sulfonated PEEK
    Scanning electron micrographs of electrospun nanofiber mats with fiber diameter histograms
    Electrospun mats with fiber diameter distributions measured from segmented micrographs.
    07 / Platform

    Electrospinning and nanofiber engineering

    Electrospinning is the workhorse behind most of the areas above: it gives high porosity, interconnected pores and enormous accessible surface area, in a form that laminates. We work on the process itself, including solution and core-shell formulation, filler dispersion, and process windows that transfer between materials.

    We also work on quantitative morphology, with semi-automated fiber-diameter measurement from micrographs, so that reported distributions reflect fibers rather than pixels.

    • core-shell electrospinning
    • process optimization
    • graphene and rGO composites
    • image-based morphometry
    Scanning electron micrographs with corresponding energy dispersive X-ray elemental maps
    Electron micrographs with matched energy dispersive X-ray maps, used to confirm where a functional species actually sits.
    08 / Active materials

    Electroactive polymers, sensors and bioelectrochemical systems

    A long-running line of work on materials that respond. Conducting polymers and EDOT based comonomers as supercapacitor electrode materials, polyaniline nanofiber and ionic polymer-metal composite actuators, and molecularly imprinted polymers as selective sensors for theophylline and for mercury ions in water.

    With collaborators we also work on bioelectrochemical systems: Schiff base cobalt and iron complexes as microbial fuel cell cathode catalysts, and bioelectricity generation from human neuronal-like cells in single-chamber cells.

    • conducting polymers
    • IPMC actuators
    • molecularly imprinted polymers
    • microbial fuel cells
    People

    The group

    A postdoctoral researcher, graduate students and alumni working across materials synthesis, thin-film assembly, membranes and system integration.

    Portrait of Prof. Fevzi Çakmak Cebeci

    Fevzi Çakmak Cebeci

    Professor · Principal investigator

    Fevzi Çakmak Cebeci is Professor of Materials Science and Nano Engineering at Sabancı University, where he has led the group since 2010, and has coordinated the Materials Science and Nano Engineering program since 2024. He trained as a chemist and polymer scientist at Istanbul Technical University, cross registered at MIT's Department of Materials Science and Engineering during his doctorate, and returned to MIT as a postdoctoral associate from 2007 to 2010. That work produced the layer-by-layer superhydrophobic and antifogging coatings the group still builds on.

    He has been principal investigator on seven TÜBİTAK projects and has served on the TÜBİTAK Chemistry and Biology Research Programme board. He was named a Turkish Academy of Sciences Young Investigator (TÜBA-GEBİP) in 2013 and holds five patents and invention disclosures.

    Researchers and students

    Current members of the group.

    Rokhsareh Bakhtiari
    Rokhsareh Bakhtiari

    Postdoctoral researcher · since 2026

    Electrospun and carbon-based sorbents for CO2 capture, coupled to hydrodynamic cavitation for aqueous capture and controlled release.

    Yelda Yorulmaz
    Yelda Yorulmaz

    Ph.D. candidate · since 2022

    Synthesis of boron nitride fibers from melamine diborate, and freeze-drying as a route to controlled fiber morphology and surface area.

    Onur Zırhlı
    Onur Zırhlı

    Ph.D. candidate · since 2022

    Boron nitride-reinforced sulfonated PEEK nanofiber separators, and how filler geometry governs ionic transport in structural lithium batteries.

    Karya Kölgesiz
    Karya Kölgesiz

    M.Sc. · since 2025

    Atmospheric water harvesting: MOF and boron nitride hybrid sorbents, and their uptake and release behavior at low relative humidity.

    Doctoral alumni

    Completed Ph.D. dissertations supervised in the group.

    • 2026Rokhsareh BakhtiariRokhsareh BakhtiariPH.D.
      Harnessing electrospun nanofibers and hydrodynamic cavitation for enhanced carbon dioxide sequestration
    • 2021Deniz KökenDeniz KökenPH.D.
      h-BN nanostructures: synthesis and applications
    • 2020Araz Sheibani AghdamAraz Sheibani AghdamPH.D.
      Design and engineering of slippery liquid-infused porous surfaces by LbL technique for icephobic surfaces and hydrodynamic cavitation
    • 2019Yonca BelceYonca BelcePH.D.
      Functional thin film coatings of porphyrins and phthalocyanines by layer-by-layer assembly
    • 2018Shayan MehraeenShayan MehraeenPH.D. · CO-SUP.
      Bending actuators based on ionic electroactive polymers, with S. A. Gürsel and M. Papila
    • 2016Dilek ÇakıroğluDilek ÇakıroğluPH.D.
      Electrochemical performance of supercapacitors assembled with vertically aligned entangled carbon nanotube and conductive polymer

    Master's alumni

    Completed M.Sc. theses supervised and co-supervised.

    • 2024Amin Ranjbar AghjehkohalAmin Ranjbar AghjehkohalM.SC.
      Electrospun sulfonated PEEK separator for power composites
    • 2018Melike BarakMelike BarakM.SC.
      Synthesis and characterization of highly stable functional silica nanoparticles for LbL assembly
    • 2017Zeki Semih PehlivanZeki Semih PehlivanM.SC.
      Investigation of ozone treatment on mechanical behavior of oriented carbon nanotube/epoxy nanocomposites
    • 2016Deniz KökenDeniz KökenM.SC.
      Synthesis and optimization of boron nitride nanotubes for stable aqueous dispersions
    • 2015Sajjad GhobadiSajjad GhobadiM.SC. · CO-SUP.
      Development of rGO/PANI/PVA-based electrospun nanocomposites, with S. A. Gürsel and M. Papila
    • 2015Özge ÇavuşlarÖzge ÇavuşlarM.SC. · CO-SUP.
      Fluorescent nanohybrids based on asymmetrical cyanine dyes decorated carbon nanotubes, with H. Ünal
    • 2014Nihan OngunNihan OngunM.SC. · CO-SUP.
      Synthesis of waterborne, branched, functional poly(urethane)s and their applications, with S. Ünal
    Publications

    Publications

    Journal articles, book chapters and proceedings papers, most recent first, compiled from the ORCID record with DOIs and citation counts.

      Projects

      Funded research

      Competitively funded projects, mostly through the ARDEB programs of TÜBİTAK, the Scientific and Technological Research Council of Türkiye, with roles ranging from principal investigator to advisor.

      Active

      Currently running.

      125M7001001 · National
      PIAtmospheric water harvesting and thermoelectric energy generation in low humidity environments using MOF-303 and boron nitride hybrid structures
      Nov 2025
      to Nov 2028
      225M3201001 · National
      AdvisorContinuous exfoliation of two dimensional nanomaterials with a three stage rotary hydrodynamic cavitation reactor
      May 2026
      to May 2029
      126M4301001 · National
      AdvisorSynergistic effects of acoustic and hydrodynamic cavitation for enhanced microfiber fragmentation: mechanisms and chemical effects
      Joined
      Mar 2026
      988915Bilateral
      ResearcherHybrid multiscale bubble and membrane systems for liquid phase CO2 capture and release
      In progress

      As principal investigator

      Completed projects led by the group.

      221M5221001 · National
      Energy efficient CO2 capturing by a high performance separation unit equipped with a hydrodynamic cavitation microfluidic device and CO2-philic electrospun nanofibers
      Aug 2022
      to Feb 2025
      121M5521001 · National
      Development of novel ionically conductive prepreg interleaves with a multi scale engineering approach and its implementation in structural energy storage systems
      Feb 2022
      to Feb 2025
      112G0651007 · Industry
      Calcium chloride production technology and development of liquid anti-icing and de-icing formulations
      Feb 2014
      to Feb 2017
      115M4071001 · National
      Development of stable and high performance icephobic surfaces by LbL technique
      Feb 2014
      to Feb 2017
      112M6991001 · National
      Advanced corrosion resistant coatings for aerospace applications by LbL technique
      Aug 2013
      to Aug 2015
      111M5133501 · COST
      Fabrication and characterization of hybrid supercapacitors from vertically aligned carbon nanotubes and conducting polymers
      May 2012
      to May 2015

      As researcher and advisor

      Completed projects with partner institutions and industry.

      221N031International
      ResearcherDevelopment of structural energy storage composites
      Joined
      Jun 2021
      119M4951001 · National
      ResearcherEnergy efficient CO2 capturing with a hydrodynamic cavitation microfluidic device and CO2-philic electrospun nanofibers
      Dec 2019
      to Dec 2021
      115R1031000 · National
      ResearcherSabancı University research and development strategy document, nanotechnology research
      Jul 2016
      to Apr 2017
      213M0231003 · National
      AdvisorMembrane, electrode and catalyst development for polymer electrolyte membrane fuel cells operating at ultra low anode stoichiometry
      Aug 2014
      to Aug 2018
      113Y3761003 · Multi-site
      AdvisorInnovative forward osmosis and low pressure reverse osmosis membranes and module development for drinking water production
      Sep 2014
      to Mar 2018
      113Y3501003 · Multi-site
      AdvisorRecovery of water and chemicals from industrial wastewater by membrane technologies
      Jun 2014
      to Dec 2017
      113O8721003 · Industry
      AdvisorDevelopment of multifunctional and safe active food packaging materials
      Feb 2014
      to Feb 2016
      112M2911001 · COST
      AdvisorPANI nanofiber and nanoparticle based nanocomposites for artificial muscle applications
      Feb 2013
      to Feb 2016
      115Z1003001 · Starting R&D
      AdvisorReusable ion imprinted polymeric materials for selective detection and removal of uranyl ions
      May 2015
      to May 2016
      Patents

      Patents and invention disclosures

      Five filings, spanning the MIT-era superhydrophobic and superhydrophilic coatings through food packaging, boron nitride nanotube growth and bioelectrochemical energy conversion.

      • P5 · 2021

        Electrical energy production using stem cell lines, and a biofuel cell therefor. Atasever Arslan, B., Çatal, T., Akdoğan, E., Cebeci, F. Ç.

        European Patent Office · EP3891828A1
      • P4 · 2017

        Randomly distributed and/or aligned boron nitride nanotubes with controlled morphology on ceramic nanofibers (or fibers). Köken, D., Cebeci, F. Ç., Top, A., Solak, N., Özden-Yenigün, E., Cebeci, H.

        Türkiye · TR2017/22996 A2
      • P3 · 2016

        Food packaging material with antibacterial, ethylene scavenging and barrier properties. Ünal, H., Ünal, S., Menceloğlu, Y. Z., Cebeci, F. Ç.

        United States · US 9,332,751
      • P2 · 2007

        Superhydrophilic coatings. Zhai, L., Cebeci, F., Cohen, R. E., Rubner, M. F.

        United States · Application 11/268,547
      • P1 · 2006

        Superhydrophobic coatings. Zhai, L., Cebeci, F., Cohen, R. E., Rubner, M. F.

        United States · Application 10/912,576
      News

      Group news

      Papers, projects, conferences and dissertations.

        Positions

        Join the group

        We look for people who want to make materials with their hands and then argue carefully about what the data shows.

        MSCA Postdoctoral Fellowships

        I am glad to act as host supervisor for Marie Skłodowska-Curie Actions Postdoctoral Fellowship applications in my areas of expertise: layer-by-layer thin films and functional surfaces, boron nitride and carbon nanomaterials, electrospun membranes, structural energy storage, CO2 capture, and atmospheric water harvesting. MSCA European Postdoctoral Fellowships run 12 to 24 months, are open to researchers of any nationality who hold a doctorate and who relocate to Europe under the mobility rule, and are submitted jointly by the researcher and the host institution. Sabancı University provides the research infrastructure and the administrative support that these applications require.

        If you are considering a proposal with Sabancı University as host, write early. A competitive MSCA application needs a real scientific conversation, not a signature: several weeks to shape the research idea, the training and secondment plan, and the impact section around what you actually want to learn here.

        MSCA Postdoctoral Fellowships 2026 call →

        TÜBİTAK fellowship programs

        I also welcome enquiries from researchers applying to the TÜBİTAK international fellowship programs, including the 2232-B International Fellowship for Early Career Researchers and postdoctoral positions funded through MSCA COFUND programs supported by TÜBİTAK's 2236-B contribution fund, which is open to YÖK-designated research universities such as Sabancı University. Under 2236-B, TÜBİTAK adds research and institutional cost contributions on top of the European Commission living and mobility allowance.

        For any of these routes the practical question is the same: which of the group's active projects your work would connect to, and what equipment and consumables it needs. Tell me that in your first email and I can give you a straight answer about feasibility and timing.

        TÜBİTAK 2236-B program page →

        Ph.D. and M.Sc. applicants

        Graduate admission runs through the Materials Science and Nano Engineering program in the Faculty of Engineering and Natural Sciences, which offers funded M.Sc. and Ph.D. places on a competitive basis. Applicants come from materials science, chemistry, chemical engineering, mechanical engineering and physics. What matters more than the label on the degree is whether you are willing to learn a synthesis route properly and characterize it honestly.

        Openings in the group follow our active projects: atmospheric water harvesting with MOF and boron nitride hybrids, boron nitride fiber synthesis, ionically conductive separators for structural batteries, and cavitation assisted separation. If one of those is close to what you want to work on, write directly.

        PURE and summer internships

        PURE, the undergraduate research program at Sabancı University, treats undergraduates as researchers rather than observers: the emphasis is on learning to ask a question, investigate it and judge the evidence. Projects run in both summer and fall terms and are open to students from other universities as well.

        I welcome PURE students and summer interns as long as the lab has bench space and a supervisor with time for them, which in practice means a small number each term. The work is real, small and self-contained: a synthesis parameter, a measurement protocol, an image-analysis pipeline. Several such projects have ended up in published papers with the student as a co-author.

        PURE program →

        How to write

        Email fccebeci@sabanciuniv.edu with a CV, a transcript and a short paragraph on which of the group's research areas you want to work on and why. Concrete is better than enthusiastic: name a paper of ours you have read and say what you would do next.

        Teaching & service

        Teaching and academic service

        Two undergraduate courses this term, plus program coordination, graduate supervision, and service to journals, funding agencies and the university.

        Fall 2025-2026

        Both courses meet twice a week, with four office hours arranged by appointment, online or in person.

        MAT 305

        Polymer Engineering: Fundamentals

        Fall 2025-2026 · 2 sessions per week

        From how a polymer is made to why it fails. The course starts with synthesis and molecular structure, then follows the chain into the solid: crystallinity, glass transition, molecular orientation. The second half is mechanics, with rubber and network elasticity, creep and stress relaxation, the Maxwell and Zener models, and finally yielding, crazing and fracture. The aim is for students to be able to select a polymer for an engineering application and defend the choice on stiffness, temperature and fracture grounds.

        Meetings
        Thursday
        10:40 to 11:30 · FENS L062
        Friday
        10:40 to 12:30 · FENS 2019
        Office
        FENS 2069 · Thu 14:40 to 16:30
        TAs
        R. Bakhtiari, K. Kölgesiz
        Topics across 14 weeks
        • polymer synthesis
        • molecular structure
        • crystallinity and Tg
        • chain conformation
        • rubber elasticity
        • network elasticity
        • viscoelasticity
        • relaxation and DMA
        • Maxwell model
        • Zener model
        • selection and stress
        • crazing and fracture
        Grading
        • 2 midterms 60%
        • Final 30%
        • 4 homeworks 5%
        • Attendance 5%

        Main texts: McCrum, Buckley and Bucknall, Principles of Polymer Engineering; Ram, Fundamentals of Polymer Engineering; Odian, Principles of Polymerization.

        MAT 312

        Materials Characterization

        Fall 2025-2026 · lecture and laboratory

        Using heat, light, electrons and X-rays to find out what a material actually is. Each technique is introduced through the structural feature it can see and the question it can answer, then used in the laboratory: powder XRD and reciprocal lattice, optical and electron microscopy with EDS, UV-Vis, FTIR and Raman, DSC and dilatometry, TGA and DTG, dynamic mechanical analysis, and small and wide angle scattering. Ten labs and a team project connect the data back to structure, properties, processing and performance.

        Meetings
        Thursday
        12:40 to 13:30 · FENS L062
        Friday
        12:40 to 14:30 · FENS L055
        Office
        FENS 2069 · Thu 14:40 to 16:30
        TAs
        Y. Yorulmaz, O. Zırhlı
        Ten laboratories
        • XRD (powder)
        • optical microscopy
        • SEM and EDS
        • UV-Vis
        • FTIR (ATR)
        • Raman
        • DSC and dilatometry
        • TGA and DT-TGA
        • DMA
        • SAXS and WAXS
        Grading
        • Laboratory 40%
        • Midterm 20%
        • Final 20%
        • Participation 10%
        • Group project 10%

        Main texts: Atkins and de Paula, Physical Chemistry; Brandon and Kaplan, Microstructural Characterization of Materials; Callister, Materials Science and Engineering.

        Coordination and supervision

        Program
        Coordinator, Materials Science and Nano Engineering, Sabancı University, since 2024
        Ph.D. completed
        Five dissertations supervised, one co-supervised
        M.Sc. completed
        Four theses supervised, three co-supervised
        Current group
        One postdoctoral researcher, two Ph.D. candidates and one M.Sc. student

        Editorial and review service

        Advisory
        Board member, Chemistry and Biology Research Program, TÜBİTAK, 2018 to 2021
        Editorial
        AIP Conference Proceedings, Volume 2205, editorial preface, 2019 (PPS-35)
        Project review
        TÜBİTAK CBAG and EEEAG programs; European Interest Group (EIG); COST; internal research programs at Istanbul Technical University and Istanbul University
        Journal review
        ACS Applied Materials & Interfaces · Advanced Materials Interfaces · Langmuir · Macromolecules · Journal of Power Sources · Solar Energy Materials & Solar Cells · Scientific Reports · Journal of Materials Science · Materials Chemistry & Physics · Turkish Journal of Chemistry · Journal of Plastic Film and Sheeting · Journal of Environmental Science and Health Part A

        Honours

        • H2020 proposal evaluated above threshold, coordinator and PI role, 2020
        • Turkish Academy of Sciences Young Investigator Award, TÜBA-GEBİP, 2013 to 2016
        • Fellow, Massachusetts Institute of Technology, Department of Materials Science and Engineering, 2004
        • TÜBİTAK NATO-A2 Scholarship, 2003
        • Fellow, Istanbul Technical University, 2002

        University committee service

        • Research Facility Planning and Utilization Committee, 2020 and 2022 to 2023
        • Seminar Committee, 2021 to 2023
        • Graduation Project Committee, 2021 to 2023
        • Laboratory Safety Team Committee, 2013 to 2020; Occupational Health and Safety Board, 2018
        • Outreach Committee, 2020; Space Committee, 2017 to 2018
        • Faculty Development and Performance Committee, 2012 and 2017; Laboratory Committee, 2012
        • Curriculum Committee, 2010 to 2011; Web Committee, 2010
        Contact

        Find us

        The group is on the Sabancı University campus in Tuzla, on the Asian side of Istanbul, with shared instrumentation at the SUNUM Nanotechnology Research Center.

        Address

        Prof. Fevzi Çakmak Cebeci
        Faculty of Engineering and Natural Sciences
        Materials Science and Nano Engineering (MAT)
        Office FENS 2069
        Sabancı University
        Üniversite Cd. No: 27, Tuzla
        34956 Istanbul, Türkiye

        For prospective students, please read Positions before writing. It explains what to include.

        Sabancı University
        Üniversite Cd. No: 27, Tuzla, 34956 Istanbul

        Open in Google Maps

        Tuzla campus: about 20 minutes by car from Sabiha Gökçen Airport and about 70 minutes from Istanbul Airport.