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E-Mail: Aggelos@Iesl.Forth.Gr , Phone Number: 2810391128

Aggelos Xomalis - Curriculum Vitae Personal data: Name: Aggelos Xomalis Nationality: Greek Home address: Mixelidaki 21, Heraklion, Crete Greece Contact info: Address: Institute of Electronic Structure and Laser, Foundation for Research and Technology - Hellas, P.O. Box 1385, 71110 Heraklion, Crete E-mail: [email protected] , phone number: 2810391128 Current position: MSc Candidate Dept. of Materials Science and Technology, Univ. of Crete / Research Assistant at IESL-FORTH Education: 2013: Bachelor: Department of Materials Science and Technology, University of Crete, Greece. 2013-…: Master studies: Department of Materials Science and Technology, University of Crete, Greece. Experience: 2011-12: 3 months work experience in the microelectronics lab. I was involved in: Construction and characterization of pn diode-Construction of thin films with dc magnetron sputtering. 2010-2011: 3 months work experience in the soft matter lab. I was involved in: Synthesis and characterization on polymeric materials (styrene). 01/02/2013-01/08/2013: Undergraduate research assistant at Non-linear lithography lab at the IESL-FORTH. 2012-13: Carrying out a project concerning the negative index materials, under the supervision of Professor Maria Kafesaki (Associate Professor at the Department of Material Science and Technology) - Training in non-linear lithography with the team of Dr. Maria Farsari at the IESL-FORTH. Conference: June 9-11, 2011: Participation on Wave-Pro symposium, on the occasion of Costas Soukoulis 60th birthday, Crete, Greece. School: June 17-21, 2013: EUPROMETA – European Doctoral Programmes on Metamaterials: 22nd school, Glasgow, Scotland, UK July 15-19, 2013: “The Onassis Foundation Science Lecture Series’’. The 2013 Lectures in Physics and Chemistry: Nanoscience and Nanotechnology, Heraklion, Crete Computer and Language skills: -Linux/ UNIX, FORTRAN 77, AUTOCAD, Control and Automation Metering Systems, Microsoft office, CST microwave studio. -Computer: Certificate of Competency in Windows Skills, University of Cambridge. -English: Certificate of Competency in English (ECCE-lower), University of Michigan. .

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Bending Back Light the Science of Negative Index Materials
Bending Back Light The Science of Negative Index Materials Costas M. Soukoulis Using the right type of man-made materials, light can be made to bend, or refract, backwards. After years of painstakingly developing and testing the necessary materials, hen light enters specially engineered materials scientists are now called metamaterials, it takes a sharp turn to the looking to translate W left—a negative turn—bending in the opposite direction of light going through natural materials. Scientists fre- negative refraction into quently refer to these unique synthetic materials as left-handed positive applications materials (LHMs) or negative index materials (NIMs). Since the first demonstration of an artificial negative refrac- such as sub-wavelength, tive index material in 2000, metamaterials have drawn consid- high-resolution erable attention from scientists because of their broad range of potential applications. For example, they may one day lead to imaging across the the development of a flat superlens that operates in the visible electromagnetic spectrum, which would offer superior resolution over conven- tional technology and provide images much smaller than one spectrum. wavelength of light. Photo by Timothy Finegan 16 | OPN June 2006 1047-6938/06/06/0016/6-$15.00 ©OSA Costas Soukoulis examines one of the photonic crystals that was construct- ed to observe negative refraction and superlensing in the microwave region of the electromagnetic spectrum. Photo by Dennis Sailsbury, Ames Lab They also have many promising applications for defense magnetic responses in materials naturally occur over different and security. Because NIMs can match the impedance, or the frequency ranges, making their overlap unlikely.
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