Kuş, Anılcan

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https://hdl.handle.net/11147/16108
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Main Affiliation
01. Izmir Institute of Technology
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Scholarly Output

2

Articles

1

Views / Downloads

1655/835

Supervised MSc Theses

1

Supervised PhD Theses

0

WoS Citation Count

3

Scopus Citation Count

3

Patents

0

Projects

0

WoS Citations per Publication

1.50

Scopus Citations per Publication

1.50

Open Access Source

2

Supervised Theses

1

JournalCount
Beilstein Journal of Nanotechnology1
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2019 - 201912020 - 20211

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Author of Publication: search.filters.isAuthorOfPublication.f1d5f2f4-a9e7-4474-a486-98402b6a7a9c

Scholarly Output Search Results

Now showing 1 - 2 of 2
  • Article
    Citation - WoS: 3
    Citation - Scopus: 3
    Green Fabrication of Lanthanide-Doped Hydroxide-Based Phosphors: Y(oh)(3):eu3+ Nanoparticles for White Light Generation
    (Beilstein-Institut Zur Forderung der Chemischen Wissenschaften, 2019) Güner, Tuğrul; Kuş, Anılcan; Kuş, Anılcan; Demir, Mustafa Muammer; Özcan, Mehmet; Genç, Aziz; Genç, Aziz; Şahin, Hasan; Şahin, Hasan; Demir, Mustafa Muammer; 04.04. Department of Photonics; 03.09. Department of Materials Science and Engineering; 01. Izmir Institute of Technology; 03. Faculty of Engineering; 04. Faculty of Science
    Phosphors can serve as color conversion layers to generate white light with varying optical features, including color rendering index (CRI), high correlated color temperature (CCT), and luminous efficacy. However, they are typically produced under harsh synthesis conditions such as high temperature, high pressure, and/or by employing a large amount of solvent. In this work, a facile, water-based, rapid method has been proposed to fabricate lanthanide-doped hydroxide-based phosphors. In this sense, sub-micrometer-sized Y(OH)(3):Eu3+ particles (as red phosphor) were synthesized in water at ambient conditions in <= 60 min reaction time. The doping ratio was controlled from 2.5-20 mol %. Additionally, first principle calculations were performed on Y(OH)(3):Eu3+ to understand the preferable doping scenario and its optoelectronic properties. As an application, these fabricated red phosphors were integrated into a PDMS/YAG:Ce3+ composite and used to generate white light. The resulting white light showed a remarkable improvement (approximate to 24%) in terms of luminous efficiency, a slight reduction of CCT (from 3900 to 3600 K), and an unchanged CRI (approximate to 60) as the amount of Y(OH)(3):Eu3+ was increased.
  • Master Thesis
    Investigation of Microbial Biofilm Formation Using Electrochemical Impedance Spectroscopy and Equivalent Circuit Modelling
    (01. Izmir Institute of Technology, 2021) Kuş, Anılcan; Yıldız, Ümit Hakan; Yıldız, Ümit Hakan; 04.01. Department of Chemistry; 01. Izmir Institute of Technology; 04. Faculty of Science
    Bacterial biofilm is like a cooperative form of planktonic bacteria that colonize to acquire more nutritious and become resistant to surroundings. The communal organization results from the connection of bacteria by polysaccharides, lipids, or the extracellular matrix, which can provide a protective environment for living cells and communicate between them or allow specific types of chemicals inside through the matrix. 60%-80% of the infections are known to be biofilm-related. Bacterial biofilms are more resistant to antibiotics, and treating them with the wrong antibiotics might result in a thicker biofilm. In order to overcome these difficulties and researching new treatments for biofilm inflammation understanding the formation process is essential. For this manner, Electrochemical Impedance Spectroscopy (EIS) has potential uses in various fields such as biosensors, corrosion studies, healthcare owing to its facile operation and affordable devices to conduct electroanalysis. EIS calculates the excitation voltage and current generated with the oscillating frequency. Developing impedimetric methods are gaining attention due to the operation being label-free. Considering its label-free nature, EIS is a possible candidate to explain the electrodynamics of living systems such as cell-matrix interaction, biofilm formation in vitro. Detection of those is essential to prevent infections and to develop medical needs to cure them. The thesis focuses on understanding the electrodynamics of bacterial biofilm formation via electrochemical methods such as square wave voltammetry (SWV), Open Circuit Potential (OCP), and EIS. After carrying out the experiments, time-dependent circuit models for EIS were built, and the data were extracted to demonstrate changes in the bacterial system.