PHYS 101 - General Physics I: Fall 2009, Fall 2010,
Fall 2011, Fall 2012, Fall 2013, Fall 2014, Fall 2016
(May the force be with you. Kendi düşen serbest
PHYS 102 - General Physics II: Spring 2010, Spring
2011, Spring 2012, Spring 2013, Spring 2014, Spring 2015, Spring
2016, Spring 201x
(The force is an energy field created by all living things, it surrounds us, it penetrates us, and it binds the galaxy together.)
PHYS 301 - Statistical Physics: Fall 2015, Fall 2016.
PHYS 302 / ELEC 206 - Electromagnetism: Spring 2012, Spring 2013.
PHYS 312 / ELEC 403 - Advanced Electromagnetism: Spring 2010.
PHYS 403 / ELEC 403 - Solid State Physics: Fall 2011, Fall 2012, Spring 2015, Spring 2016, Spring 2017
PHYS 409 / PHYS 509 - Condensed Matter Physics I:
Spring 2014. [Di(ü)zi(ü)lenler yani atomlar ve onları di(ü)zen parametrelerin zengin dünyası:]
PHYS 501 - Classical Mechanics: Fall 2009, Fall 2010.
PHYS 503 - Advanced Quantum Mechanics I: Fall 2013, Fall 2014
PHYS 550 - Reading courses on (i) Ultracold Quantum Fields: Fall 2011 and Spring 2011; (ii) Superconductivity, Superfluids and Condensates: Fall 2012.
With the ultimate success of techniques for trapping and cooling
atoms developed and improved gradually since the 1980s, first atomic
Bose gases and then atomic Fermi gases have emerged as unique
testing grounds for many theories of exotic matter in nature,
allowing for the creation of complex yet very accessible and
controllable many-body quantum systems. These atomic systems
offer unique opportunities as opposed to condensed matter systems
in which the lack of precise experimental control has hindered
the development of techniques that could systematically probe
the effects of strong correlations. In particular, I am currently interest in
Many-body cold-atom physics in general (Hubbard models, superfluidity, BEC, etc.)
Atomic Fermi-Fermi, Bose-Bose and Bose-Fermi mixtures.
Topological phases of matter.
Artificial Abelian and non-Abelian gauge fields.
Ph.D. work (BCS-BEC crossover): The focus of my Ph.D. research was on
the analysis of the BCS-BEC evolution in superfluid Fermi gases. When the
interaction between atoms is varied, the ground state evolves from
Bardeen-Cooper-Schrieffer (BCS) limit of largely overlapping Cooper
pairs to the limit of tightly bound small composite molecules which
undergo Bose-Einstein condensation (BEC). This is an important topic
of current research not only for the atomic and molecular physics
communities, but also for the condensed matter, nuclear, high energy
and astrophysics communities, where models for superfluidity have been
investigated in various contexts.
Group members: Here is the complete list of former and current MS/PhD students, Postdocs and Visitors.
Possibly You! - send me an email (2016-201x).
Nur Aslan: PhD supported by TUBITAK 1001 (2015-2016).
Dr. Onur Rıfat Umucalılar: Postdoc supported by TUBITAK 2232. Moved to another Postdoc at Koç University (2014-2016).
Dr. Ahmet Tuna Bölükbaşı: Postdoc supported by TUBITAK 3501, 2218, 1001. Moved to UCLA for a second Postdoc (2012-2015).
Enis Doko: PhD supported by TUBITAK 2215 and Koç University. Moved to XXXX (2010-2016).
Selahattin Kalafat: MS supported by Koç University. Moved to Sabancı University for PhD (2010-2012).
Funding: Here is the complete list of completed and ongoing projects.
Science Academy's Young Scientist Awards (BAGEP) Program (2016-2018).
TUBITAK Research Grant - 1001 - 114F232 (2014-2017).
EC Marie Curie International Reintegration Grant - FP7-PEOPLE-IRG-2010-268239 (2010-2014).
TUBITAK Career Grant - 3501 - 110T839 (2011-2014).
Turkish Academy of Science's TUBA-GEBIP award (2011-2014).