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PROJECT FINAL REPORT
Grant Agreement number: 213390
Project acronym: PHOME
Project title: Photonic Metamaterials
Funding Scheme: ICT-FET
Period covered:
from
June 1, 2008
to August 31, 2011
Name of the scientific representative of the project's co-ordinator1, Title and Organisation:
Costas M. Soukoulis, Professor, Foundation for Research and Technology Hellas (FORTH),
Heraklion, Crete, Greece
Tel: +30 2810 391303 & +30 2810 391547
Fax: +30 2810 391569
E-mail: [email protected]
Project website address: http://esperia.iesl.forth.gr/~ppm/PHOME/
1
Usually the contact person of the coordinator as specified in Art. 8.1. of the Grant Agreement.
4.1
Final publishable summary report (no more than 40 pages)
Executive summary (up to 1 page)
The field of electromagnetic metamaterials is driven by fascinating and far-reaching theoretical visions
such as, e.g., perfect lenses, invisibility cloaking, and enhanced nonlinearities. This emerging field has seen
spectacular experimental progress in recent years. Yet, two major challenges remained: (i) realizing truly lowloss metamaterial structures. (ii) Realizing true 3D metamaterial structures that will give negative refractive
index, n, in different directions.
The PHOME project addressed those challenges and created many unique optical metamaterial
structures, both planar and 3D, both chiral and non-chiral, bringing optical metamaterials one-step closer to
their use in practical applications. Moreover it explored novel properties and possibilities of metamaterials,
such as enhanced nonlinearities, repulsive Casimir force, switching possibilities, giant optical activity etc.
Regarding the problem of losses, PHOME addressed many possible ways to minimize and overcome
losses: These include shape optimization of the structures, evaluation of the performance of different metals,
investigation and application of Electromagnetically Induced Transparency (EIT) ideas, as well as
incorporation of active (gain) media into the metamaterial to compensate for the losses. For the study of
metamaterials incorporating gain materials we developed a Finite Difference Time Domain (FDTD) scheme,
incorporating a set of auxiliary equations (for the description of the gain medium) into the source-free
Maxwell equations (describing the field propagation). Using FDTD simulations we studied the compensation
of losses in 2D and 3D metamaterials in a self-consistent way. Particular cases treated were a split ring
resonator (SRR) array with a gain layer underneath and 3D realistic fishnet structures. Results showed that the
magnetic resonances of the 2D split-ring resonators (SRRs) and the fishnet structures can be substantially
undamped by the gain material. Hence, the losses of the magnetic susceptibility, μ, are compensated. It was
demonstrated also that the gain medium in a metamaterial can give an effective gain much larger than its bulk
counterpart, due to the strong local-field enhancement inside the metamaterial designs.
Regarding the difficulties in the fabrication of full 3D metamaterials structures, rather than planar
metamaterials, the solution that we pursued was the further development of the direct laser writing (DLW)
approach (using the concept of stimulated-emission-depletion (STED) known from fluorescence microscopy)
and the development of advanced metallization procedures (chemical vapor deposition and electroplating) for
the metallization of the DLW-produced structures. Using this approach we fabricated many 3D optical
metamaterials, chiral and non-chiral, and we realized and investigated metamaterials that can be used for 3D
clocking, employing the carpet-cloaking approach. Moreover we developed helical chiral metamaterials that
offer extremely broadband polarization control and have the potential to be used as compact broadband
circular polarisers. Besides the DLW approach we also developed further the e-beam lithography approach
and we fabricated various planar structures, mainly chiral, demonstrating strong optical activity and giant
circular dichroism.
Exploring further the novel properties and possibilities of metamaterials, we adapted and applied the
transformation optics approach to nanoscale metallic systems (obtaining various system configurations that
resulted to giant field enhancement), we examined the Casimir force between chiral metamaterials (finding
possibility for repulsive Casimir force), we demonstrated switchable THz metamaterials employing photo
conducting materials, we demonstrated enhanced non-linear properties in metamaterials, like enhanced second
harmonic generation, etc.
All these advancements obtained thought PHOME project were widely disseminated, as the project
gave 138 publications in refereed journals, more than 200 talks in scientific meetings/conferences,
organization of more than 15 conferences on photonic metamaterials or sessions at international conferences,
four schools for students, and many appearances in public media (newspapers, radio etc).
All the activities of PHOME are mentioned in detail in the project web page, at
http://esperia.iesl.forth.gr/~ppm/PHOME
A summary description of project context and objectives (not exceeding 4 pages).
Complete control of an electromagnetic (EM) light wave requires both the ability to directly manipulate its
electric and its magnetic vector component. For decades if not centuries, however, this level of control has not
been possible because natural materials have essentially zero magnetic response at frequencies beyond the
microwave regime. Thus, at least one half of optics & photonics has been missing, obviously limiting the
opportunities regarding fundamental optical sciences as well as photonic components and devices. This
opportunity seems to be available now by using metamaterials.
Metamaterials are tailored man-made materials composed of sub-wavelength metallic building blocks of
proper shapes (“photonic atoms”) that are densely packed into an effective material. In this fashion, optical
properties become possible that simply do not occur in natural substances, and these properties depend mainly
on the geometry and shape of the photonic atoms, and can be engineered at the stage of fabrication. A
particularly important example of such a photonic atom is the split-ring resonator (SRR), essentially a tiny
electromagnet, which allows for artificial magnetism at elevated frequencies, enabling the formerly missing
control of the magnetic component of the light wave. The negative magnetic response (i.e., µ<0) above the
SRR eigenfrequency combined with a more usual negative electric response from metal wires (i.e., <0) can
lead to a negative index of refraction. Following the original theoretical proposal by Pendry et al. in 1999,
negative refractive index metamaterials (NIM) have been realized at microwave frequencies in 2000 and have
entered the optical regime (few micrometers wavelength to the visible) in 2004. In 2007, negative-index
metamaterials finally reached the red end of the visible spectrum by using variations of the SRR scheme. In
the following, we shall refer to metamaterials that operate at optical frequencies as “photonic metamaterials
(PMM)”. The fabrication of their sub-wavelength building blocks requires advanced nanofabrication
approaches and poses severe challenges regarding quantitative calculations with predictive power.
Although the first negative index optical PMMs were already available when the project started, many serious
obstacles had to be overcome before the impressive possibilities of such metamaterials could become real
applications. Probably the most serious among them is the question of losses, which needed to be reduced
significantly (e.g., by introducing gain media). Furthermore, truly three-dimensional (3D), ideally isotropic
PMM rather than just planar monolayer of photonic atoms needed to be addressed. One of the main challenges
concerns the fabrication of the 3D nm-scale components required. Addressing the issues of losses and
nanofabrication of 3D structures, then a practical material with negative index of refraction at optical
frequencies and the associated fascinating long-term dream of the “perfect lens” allowing for sub-wavelength
imaging would be within reach. In addition to this ambitious goal, other directions, possibly with more nearterm impact on real-world applications were: (a) development of chiral PMM with ultimate target the
development of thin-film optical isolators without the need for a static magnetic field, (b) study and
exploitation of optical non-linearities (e.g., second-harmonic generation) and optical switching in PMMs,
taking advantage of resonances and large local-field enhancements in such media, and targeting applications
such as tuneable filtering, electro-optic modulation etc.
It should be clear that addressing these challenges required a creative design process, in which experts from
theoretical and experimental physics as well as electrical engineers collaborate closely. Some of the objectives
we had set forth were inherently risky because they transcend the state-of-the-art by a large margin. However,
this risk was mitigated by the fact that we had assembled a team with some of the best experts in this field.
In what follows we describe the objectives of the proposal, as well the proposed ways/approaches to achieve
these objectives.
Main objectives of the proposed effort:
(a)
Design and realization of 3d photonic metamaterials.
(b)
Design and fabrication of chiral photonic metamaterials.
(c)
Realization of active optical materials with incorporation of gain and nonlinearity into photonic
metamaterials. Understanding and reducing the losses in photonic metamaterials.
(d)
Achievement of electro-optic modulation via photonic metamaterials , and explore other potential
applications of optical metamaterials.
Achievement of the above objectives required challenging fabrication processes, as well as challenging
theoretical and characterization efforts. For that, the proposed work was divided into three scientific work
packages, each of which was managed by a partner, plus a fourth work package (WP4) devoted to
dissemination of the project results and a fifth work package (WP5), run by the prime contractor, devoted to
the consortium management.
The three scientific work packages are:
WP1: Modelling and the theoretical issues in photonic metamaterials (PMM)
WP2: Fabrication of photonic metamaterials (GHz to THz)
WP3: Optical characterization and testing of PMMs),
Work package 1 (WP1) was devoted to new design concepts and their simulations; these designs should lead,
among other goals, to optimized low-loss, broad bandwidth PMMs to be fabricated in WP2 and characterized
in WP3. Development of new software and methods to model 3D chiral metamaterials was also part of the
WP1 efforts. In addition, development of a self-consistent theory of incorporating gain or nonlinearity in
PMMs was among the aims of this WP. Furthermore, blueprints for 3D metamaterials had to be developed
that acknowledge the conceptual boundary conditions of the novel corresponding fabrication approaches
pursued in WP2.
Work package 2 (WP2) was devoted to a systematic study of materials and processing methods to optimize
the quality of micro- and nanofabricated PMMs. This was planned through optimization of the current state of
the art approaches, including electron- and focused-ion-beam (FIB) lithography. Furthermore, the exploration
of new fabrication approaches for the creation of 3D structures was among the objectives of this WP. Such an
approach is the direct laser writing (DLW) approach with subsequent metallization, which is the most
promising approach for the fabrication of 3D structures. As PMMs are scaled to higher frequencies, the
quality of materials and fabrication becomes of increasing importance. Because PMMs are based on resonant
micro and nanostructured conductors, fabrication tolerance and surface quality are crucial. We aimed to
perform a careful and exhaustive study of the various figures-of-merit of NIM prototypes as a function of
fabrication conditions, including material deposition conditions, annealing and surface smoothness, and
quality as characterized by atomic-force microscopy. Correlating NIM performance with the physical
characteristics of the underlying “microscopic” structure offers a path to NIM optimization.
Work package 3 (WP3) was devoted to the characterization of the metamaterial structures designed by WP1
and fabricated in WP2, and to the demonstration thus of the fascinating optical properties and potential in
applications of those structures. The PMM characterization requires innovative approaches regarding the
retrieval of optical constants from experimentally accessible parameters. The available techniques (which
should be adapted to the study of metamaterials) include THz time-domain spectroscopy, optical transmittance
and reflectance spectroscopy, laser based interferometry, near-field optical spectroscopy, as well as nonlinear
optical spectroscopy.
With the combined efforts of Work packages 1-3, photonic metamaterials aim to make the step from lossy
sub-wavelength-thickness films towards truly 3d materials, which is an important step towards many ICT
relevant devices and demonstrators, e.g. “poor man’s” optical isolators, optical switching, and electro-optic
modulators.
Work package 4 (WP4) was devoted to the dissemination of the project results. It coordinated the
dissemination of knowledge gained and the scientific and technological results obtained in the work packages
WP1-WP3, as well as the actions for the use and exploitation of those results.
Work package 5 (WP5) was devoted to the consortium management. The management activities together
with the financial issues of the project and coordination of WP1-WP3 were the major tasks of WP5.
The above work packages, while having well-defined objectives of their own, were quite interrelated: WP1
defined theoretically desirable parameter sets for the fabrication of PMMs and negative index materials
(NIMs) in WP2. The experimental verification of these sample properties, actually achieved during the
fabrication of the structures in WP2, belonged to WP3. The knowledge gained during experimental fabrication
and characterization of the PMMs and NIMs in WP2 and WP3 guided WP1 towards better designs and
allowed for the verification of the numerical tools employed.
A description of the main S&T results/foregrounds (not exceeding 25 pages),
Below we describe the main steps for accomplishing the project objectives and the main achievements of the
PHOME project. The description is divided in the results of the different scientific work packages.
WP1: Theory and Simulation of photonic metamaterials (PMMs)
1. We developed a retrieval procedure for chiral metamaterials, to extract the effective parameters
(permittivity, ε, permeability, μ, chirality, κ, and refractive indices) for structures placed on a substrate,
and without substrate.
2. Many different novel chiral metamaterial designs have been devised and tested theoretically, which gave
large circular dichroism and strong optical activity in GHz, THz and IR regimes, as well as negative
index of refraction in GHz and THz [see Deliverable 3].
3. We made a thorough analysis of the Casimir force between chiral metamaterials, and we demonstrated for
the first time, theoretically and numerically, that the Casimir force between chiral metamaterials can be
repulsive if the chirality is sufficiently strong. This can have revolutionary impact in MEM systems.
4. Losses in metamaterials render the applications of such exotic materials less practical unless an efficient
way of reducing them is found. We developed two different techniques to reduce ohmic losses at both
lower and higher frequencies, based on geometric tailoring of the individual magnetic constituents. We
showed that an increased radius of curvature, in general, leads to the least losses in metamaterials.
Particularly at higher THz frequencies, bulky structures outperform the planar structures.
5. Working further on the loss issue, we tried to examine the potential of active materials to compensate
losses in metamaterials. For that, we have developed a self-consistent method to treat active materials in
dispersive media, like quantum dots in metamaterials. [see Deliverable 5]. The method is based on the
FDTD technique, where the gain material has been introduced as a four-level system, with rate equations
coupled to the standard FDTD equations. The method has been applied so far in 2D and 3D structures,
where it demonstrated the potential of the gain material to compensate losses at the magnetic resonance
[see Deliverable 8]. The application of the method to a split ring resonator (SRR) array with a gain layer
underneath gave results in good agreement with our experiments. Calculations of 3D realistic fishnet
structures have been also reported.
6. We have proposed and analyzed new bulk (non-planar) metamaterial designs that possess negative index
of refraction at telecom frequencies and are easy to fabricate with direct laser writing, which is the most
promising technique for the fabrication of truly 3D large scale optical metamaterials [see Deliverable 3].
7. We were able to mimic the quantum electromagnetically induced transparency (EIT) in classical systems
as coupled SRRs. We have introduced novel metamaterial designs that can support full dark resonant state
upon interaction with an EM beam and we present results of their frequency-dependent effective
permeability and permittivity. These results, showing a transparency window with extremely low
absorption and strong dispersion, can be used to reduce the losses in metamaterials and also can be used to
slow light with many applications, including pulse reshaping.
8. Using transformation optics, various plasmonic structures have been designed and studied analytically,
whereas, until now, only numerical tools were available for the study of such plasmonic structures. These
nanostructures exhibit considerable nanofocusing capabilities: our theory predicts a field enhancement
that can go beyond a factor of 104 over a broadband spectrum.
9. Novel physical insights have been provided regarding the resonant behavior and the nanofocusing
properties that can be expected with nanoparticle dimers. We analyzed 2D wedge-like structures, tapered
wave guides, open nanocrescents or overlapping cylinders than can be able to exhibit a singularity, which
may give rise to a divergence of the electric field, even in presence of dissipation losses. This singular
behavior had not been pointed out in the past and can be of great interest for single molecule detection
10. Based on conformal transformation, a general strategy is proposed to design plasmonic structures capable
of an efficient harvesting of light over a broadband spectrum.
WP2: Metamaterial fabrication
1. We have fabricated a bilayered metamaterial based on pairs of mutually twisted planar metal patterns in
parallel planes, which showed a negative index of refraction due to three-dimensional chirality as well as
exceptionally strong optical activity and circular dichroism [see Deliverable 10].
2. Following our theoretical suggestions and microwave experiments, we fabricated photonic metamaterials
composed of pairs of twisted gold crosses and 4-U’s structures, using two successive electron-beamlithography steps and intermediate planarization via a spin-on dielectric [see Deliverable 10]
3. We have fabricated a nonlinear photonic metamaterial by adding a nonlinear material (GaAs) to a splitring-resonator array, and demonstrated its nonlinear response.
4. We have studied arrays of silver split-ring resonators operating at around 1.5-μm wavelength coupled to
an MBE-grown single 12.7-nm thin InGaAs quantum well separated only 4.8 nm from the wafer surface.
The samples were held at liquid-helium temperature and were pumped by intense femtosecond optical
pulses at 0.81-μm centre wavelength in a pump-probe geometry. We observed much larger relative
transmittance changes (up to about 8%) on the split-ring-resonator arrays as compared to the bare
quantum well (not more than 1-2%). We also observed a much more rapid temporal decay component of
the differential transmittance signal of 15 ps for the case of split-ring resonators coupled to the quantum
well compared to the case of the bare quantum well, where we found about 0.7 ns.
5. We have fabricated photonic metamaterials incorporating properly semiconducting photoconductive
materials aimed to give dynamic metamaterial response at the THz regime. The achieved structures
produced blue-shift tunability, dual-band switch and broadband phase modulation.
6. Direct laser writing (DLW) can be viewed as the three-dimensional analogue of electron-beam
lithography. Fabrication of polymer structures by this approach is standard. In fact, we are using a
commercial instrument from Nanoscribe GmbH (a collaboration with Carl Zeiss) that has emerged out of
previous Karlsruhe work. Recently, we improved the spatial resolution of the DLW in all three
dimensions by combining it with the concept of stimulated-emission-depletion (STED) known from
fluorescence microscopy.
7. Infilling or coating the polymeric structures produced by the DLW with metal is not standard at all. We
have pursued chemical-vapor deposition of silver and silver shadow evaporation, with great success in the
fabrication of 2D metamaterial structures.
8. We fabricated for the first time a three-dimensional gold-helix photonic metamaterial - via direct laser
writing into a positive-tone photoresist and subsequent infilling with gold via electroplating [see
Deliverable 10].
9. Finally, reaching beyond the original goals of PHOME, first 3D invisibility cloaking structures have been
realized – another striking demonstration of the future possibilities of our direct laser writing approach for
making 3D metamaterials at optical frequencies.
WP3: Metamaterials characterization
1. We have studied in detail the transmission properties of the bilayered form of chiral metamaterials, like
twisted-crosses and 4-U structures, for left-handed (LCP) and right-handed (RCP) circular polarizations.
The structures showed exceptionally strong circular dichroism and strong rotation angle. Pure optical
activity, i.e., polarization azimuth rotation without any change of ellipticity, was achieved between
resonances, where the absolute rotation was about 800° per wavelength (6 GHz) and about 400° per
wavelength (105 THz) for 4-U’s and about 60° per wavelength (220 THz) for twisted-crosses. For the
GHz and few THz chiral structures negative refractive index was also observed.
2. Characterizing and analyzing split-ring resonator (SRR) structures on crystalline GaAs semiconductor
substrates, we found strong coupling between the electromagnetic near-fields of the split rings and the
underlying GaAs substrate, resulting in measured second-harmonic generation (SHG) that is about 25
times stronger than that we have previously found for split-ring-resonator arrays on glass substrate.
3. Strong interaction between the SRRs and the underlying semiconductor is also crucial for compensating
metamaterial losses by introducing gain. In our corresponding design studies, we have considered SRRs
on top of a thin gain layer. Various gain layers were used, i.e., single quantum wells, three quantum wells,
layers of quantum dots, or thin bulk films. A dedicated low-temperature femtosecond pump/probe
experiment has been assembled. In this setup, pulses centered around 800-nm wavelength derived from a
Ti:sapphire laser are used as the optical pump. Average powers around 100 mW focused to spots on the
sample with diameters around 20-30 µm enable extremely strong pumping conditions, for which quantum
well (QW) gain is expected. Fortunately, under these intense, essentially continuous-wave, pumping
conditions, no sample deterioration has been observed. The probe pulses are derived from an optical
parametric oscillator (OPO) that is tunable at around 1500-nm wavelength. The setup allows for detecting
pump-induced changes in transmittance. The samples were cooled in a He-flow cryostat to increase the
anticipated material gain. However, under conditions of intense pumping and at low temperatures, we
have so far not found any “SPASING” action, which would be a clear-cut proof of complete
compensation of metamaterial losses by the gain.
4. THz time-domain spectroscopy of metamaterials incorporating photoconducting media (which were
fabricated within the PHOME), using synchronized femtosecond near-infrared laser pulses, revealed
blushift tunability of the metamaterials, broadband phase modulation and dual band switching
capabilities.
5. Finally, metamaterial-based enhanced transmission through sub-wavelength apertures has also
demonstrated.
Potential impact of the project
Electromagnetic waves play a critical role in almost any aspect of our lives. From every-day life-aspects, such
as lightning and heating, to communications, imaging and sensing for health-care and biological applications,
security etc.
All the advances in the above mentioned aspects (like, e.g. mobile communications, MRI Imaging,
satellite communications etc.) exploit the interaction of the electromagnetic radiation with the matter, and the
current limitations in the related technologies result to a large extend from limitations in the electromagnetic
response of the materials involved. To this end metamaterials, which are structured materials offering
electromagnetic properties beyond those of natural materials, promise one step further in almost all the issues
and technologies related to the wave-matter interaction.
Metamaterial properties like backwards phase advance, negative refraction and the potential to obtain
superlensing, as well as extreme material parameters (e.g. extreme chirality), offer the potential to
revolutionize applications such as telecommunications, imaging and sensing, security and health-care, etc.
PHOME project offered great advancement in the current research on metamaterials. It demonstrated
the potential to achieve high quality optical metamaterials, reducing losses in such metamaterials, to achieve
non-planar three—dimensional metamaterials, to achieve chiral metamaterials offering extraordinary optical
activity and circular dichroism, to achieve active metamaterials, metamaterials with enhanced nonlinearities,
switcable metamaterials, etc. It also explored and demonstrated novel phenomena and possibilities with
metamaterials, like repulsive casimir force and 3D optical cloaking.
All these advancements bring metamaterials, especially optical metamaterials, one step closer to their
exploitation in practical applications, such as telecommunications and optical communications, imaging and
security, sensing, MEMs, etc. with great impact in those applications. For example, even meta-surfaces can
approach perfect absorbers, i.e., structures that neither transmit nor reflect light in a certain frequency regime
and for a broad range of angles. Such compact perfect absorbers might prove useful for detectors or energy
converters. We have explored field-enhancement effects for improving the performance of solar cells. Yet
others employ the (sharp) metamaterial resonances for sensing applications via their dependence on
environment or investigate nonlinear frequency conversion. The magnetic response is also a prerequisite for
huge chiral optical effects in three-dimensional metamaterials, e.g., enabling compact broadband circular
polarizers.
To achieve the advancements produced by the PHOME project it required the development of both
complex analytical and numerical methods as well as fabrication and characterization approaches, which on
one hand can be exploited in a variety of other research and technology areas (like, e.g. nanophotonics and
plasmonics), and on the other hand contribute to a large extent to the current scientific awareness, as well as to
the social awareness. All the knowledge gained throughout the project has been widely disseminated, both in
specialized conferences and publications, as well as in events involving less specialized audience and the
general public. For example the work of the Karlsruhe group was reported in The New York Times: “Strides
in Materials, but No Invisibility Cloak”, November 9th, 2010 and in The International Herald Tribune:
“Dreaming Up Uses for a Giant Invisibility Machine”, November 29th, 2010. The work of the FORTH group
was reported in many Greek newspapers, like Kathimerini, Eleftherotypia, Enthos and Patris. In another recent
instance, Pendry, Imperial College, delivered a series of lectures in Sydney Australia to the Harry Messel
School. Exceptionally bright school children from all over the world are invited to Sydney to participate in 2
weeks of science. During their stay they are presented with a book containing write ups of the lectures that
they hear, an enduring memento of their experiences. The book of lectures for the 36 th Professor Harry Messel
International School 2011, “Light and Matter”, is available from their web site at:
http://www.physics.usyd.edu.au/foundation.old/index_iss.html
As mentioned in the previous paragraph, the implementation of PHOME required the development of
advanced theoretical and numerical techniques which can be used in other branches of science and
technology. For example the application of transformation optics in plasmonics, which was implemented
throughout PHOME, can have great impact in nanophotonics and related applications, such as optical
circuitry, sensing, energy harvesting and generation systems, absorbers etc. Moreover, the implementation of
the FDTD method incorporating active media can find great application in nanophotonics-related studies, such
as control and enhancement of light emission and harvesting, impacting optical sources, photovoltaic
technologies etc.
Regarding fabrication approaches, the realization of the optical metamaterials through PHOME
required the optimization and advancement of e-beam lithography, as well as the development and
advancement of metallization procedures for metallization of the DLW-produced structures. These techniques
can also be used in all nanophotonics-related studies and applications.
The maximum possible exploitation of the project results is ensured from the many dissemination
activities of the project. PHOME generated 138 publications in scientific journals, while its members gave
more than 200 talks and seminars at conferences and institutions. Moreover, PHOME members organized a
large number of sessions on photonic metamaterials at international conferences, as well as four schools on
this topic [see Deliverable 16]. The project dissemination activities are described in detail in the next section.
Project web-page: http://esperia.iesl.forth.gr/~ppm/PHOME/
It presents the main project objectives, the participants with contact information, and all the publications (with
pdf files) produced through the project.
4.2
Use and dissemination of foreground
PHOME participants participated in significant meetings and conferences to collaborate and exchange
information with other European research groups throughout the course of PHOME project. Furthermore
during the project, several PHOME members delivered popular lectures to general audiences, including
activities for reaching out to young students, drawing interest to and raising recognition for photonic
metamaterial research in general.
PHOME participants disseminated results mainly via over 220 presentations/talks/lectures at
international conferences and over 130 publications in renowned journals. These publications appeared in top
prestige journals. Over the course of PHOME project, our team members published 3 Science, 2 Nature
Photonics, 4 Nano Letters, Nature Materials papers, along with numerous PRB and PRL papers.
Moreover, among the presentations mentioned above, there is a wide range of plenary and invited
talks. Aforementione talks were given at renowned conferences such as 21st Congress of the International
Commission for Optics (M. Wegener, Karlsruhe, plenary talk), IEEE-LEOS 2008 (M. Wegener, Karlsruhe,
plenary talk), 8th International Conference on “Electrical, Transport and Optical Properties of Inhomogeneous
Media” ETOPIM (M. Wegener, Karlsruhe, plenary talk), Photonics Global (J.B. Pendry, Imperial College,
plenary talk), PECS VIII (J.B. Pendry, Imperial College, invited talk), Meta’10 2nd International Conference
on Metamaterials, Photonic Crystals and Plasmonics (C. M. Soukoulis, FORTH, plenary talk), IEEE
Photonics Society Annual Meeting 2009 (E. Ozbay, BILKENT, plenary talk).
Besides these dissemination activities, PHOME partners organized four schools for students on
photonic metamaterials, three of them in the framework of Metamorphose European Doctoral Programme on
Metamaterials (see Deliverable 16). The 17th European Doctoral School, which was organized by FORTH and
was devoted to the electromagnetic characterization of metamaterials, including photonic metamaterials, was
the first school of the Programme in which students had the chance to perform real experiments and analyze
their experimental data.
An international symposium, WAVE-PRO, was organized and supported by PHOME at the end of the
project, devoted to wave propagation in photonic and electromagnetic crystals, metamaterials and plasmonic
materials. In this symposium, which gathered the most prominent scientists in the area of metamaterials
worldwide, PHOME project was advertised and its achievements were widely disseminated.
Information about the project objectives and results, related publications of the PHOME team and news about
the related conferences, workshops and PhD schools were announced from the PHOME website
(http://esperia.iesl.forth.gr/~ppm/PHOME/).
Section A (public)
TEMPLATE A1: LIST OF SCIENTIFIC (PEER REVIEWED) PUBLICATIONS, STARTING WITH THE MOST IMPORTANT ONES
1.
2.
3.
4.
5.
Title
Gold Helix Photonic
Metamaterial as Broadband
Circular Polarizer
Optical Metamaterials: More
Bulky and Less Lossy
Three-Dimensional Invisibility
Cloak at Optical Wavelengths
Absolute Extinction Cross
Section of Individual Magnetic
Split-Ring Resonators
Photonic Metamaterials by
Direct Laser Writing and Silver
Chemical Vapor Deposition
2
Main author
Number, date or
frequency
Publisher
Place of
publication
Year of
Relevant pages
publication
M. Wegener
Science
No 325, September
2009
SCIENCE
AAAS
2009
pp. 1513-1515
C. M. Soukoulis
Science
pp. 1633-1634
Science
2010
pp. 337-339
M. Wegener
Nature
Photon.
No 2,October 2008
2008
pp. 614-617
M. Wegener
Nature Mater.
No 7, May 2008
SCIENCE
AAAS
SCIENCE
AAAS
Macmillan
Publishers
Limited
Macmillan
Publishers
Limited
2010
M. Wegener
No 330, December
2010
No 328, April 2010
2008
pp. 543-546
Permanent
identifiers2
(if available)
Is/Will open
access3
provided to
this
publication?
yes
http://esperia.iesl.forth.gr/~ppm/PHO
ME/publications.html
NO.
Title of the
periodical or
the series
yes
yes
yes
yes
A permanent identifier should be a persistent link to the published version full text if open access or abstract if article is pay per view) or to the final manuscript accepted for publication (link to
article in repository).
3 Open Access is defined as free of charge access for anyone via Internet. Please answer "yes" if the open access to the publication is already established and also if the embargo period for open
access is not yet over but you intend to establish open access afterwards.
6.
C. M. Soukoulis
Nat. Photonics
doi:10.1038/nphoto
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Physics
2010
pp. (021111) 1-3
yes
E. Ozbay
Opt. Express
No 18, February
2010
Optical Society
of America
2010
pp. 3952-3966
yes
E. Ozbay
Opt. Express
No 18, March 2010
2010
pp. 5375-5383
yes
E. Ozbay
IEEE J. Sel.
Top. Quantum
Electron.
IEEE J. Sel.
Top. Quantum
Electron.
No 16, April 2010
Optical Society
of America
IEEE Xplore
2010
pp. 376-379
yes
No 16, April 2010
IEEE Xplore
2010
pp. 386-393
C.M. Soukoulis
Physica B
No 405, July 2010
Elsevier B.V.
2010
pp. 2990-2995
M. Wegener
IEEE J. Sel.
Top. Quantum
Electron.
Opt. Express
No 16, April 2010
IEEE Xplore
2010
pp. 367-375
No 18, January
2010
Optical Society
of America
2010
pp. 1059-1069
111.
112.
113.
114.
115.
116.
117.
118.
cloaking using strongly
dispersive materials
Transmission spectra and the
effective parameters for planar
metamaterials with omega
shaped metallic inclusions
Intra-connected 3D isotropic
bulk negative index photonic
metamaterial
Dynamic response of
metamaterials in the terahertz
regime: Blue shift tunability and
broadband phase modulation
Transmission enhancement
through deep subwavelength
apertures using connected
SRRs
Coupling effect between two
adjacent chiral structure layers
A Planar Metamaterial With
Dual-Band Double-Negative
Response at EHF
Theoretical Study and
Experimental Realization of a
Low-Loss Metamaterial
Operating at the MillimeterWave Regime: Demonstrations
of Flat- and Prism-Shaped
Samples
Transmission in the vicinity of
the Dirac point in hexagonal
photonic crystals
Bianisotropic photonic
metamaterials
119. Gold helix photonic
metamaterials: A numerical
parameter study
E. Ozbay
S. Linden
http://esperia.iesl.forth.gr/~ppm/PHOME/publications.html
109. Non-ideal multifrequency
yes
yes
yes
yes
S. Linden
Opt. Express
No 18, March 2010
Optical Society
of America
2010
pp. 6545-6554
yes
121.
M. Wegener
Opt. Mat.
Express
No 1, August 2011
Optical Society
of America
2011
pp. 883-889
yes
M. Wegener
Opt. Express
No 36, August 2011
Optical Society
of America
2011
pp. 3188-3190
yes
M. Wegener
Opt. Mater.
Express
No 1, July 2011
Optical Society
of America
2011
pp. 614-624
yes
M. Kauranen
Opt. Mater.
Express
No 1, April 2011
Optical Society
of America
2011
pp. 46-56
yes
M. Wegener
Physik Journal
No 3, March 2011
2011
pp. 16-17
yes
126. Newtonian photorealistic ray
M. Wegener
Opt. Express
No 19, March 2011
Wiley-VCH
Verlag GmbH
& Co. KGaA,
Weinheim
Optical Society
of America
2011
pp. 6078-6092
127.
M. Wegener
Appl. Phys.
Lett.
No 98, January
2011
2011
pp. (013112) 1-3
128. Overcoming the losses of a split C.M. Soukoulis
Opt. Express
No 19, June 2011
2011
pp. 12688-12699
129.
C.M. Soukoulis
Phys. Rev. B
No 83, January
2011
American
Institute of
Physics
Optical Society
of America
The American
Physical
Society
2011
pp. (035105) 1-4
E. Ozbay
Opt. Express
No 19, July 2011
Optical Society
of America
2011
pp. 14290-14299
122.
123.
124.
125.
130.
split-ring resonators: The role of
separation and relative
orientation
Spectroscopic characterization
of highly doped ZnO by atomiclayer deposition for threedimensional infrared
metamaterials
Three-dimensional direct laser
writing inspired by stimulatedemission-depletion microscopy
Three-dimensional direct laser
writing inspired by stimulatedemission-depletion microscopy
Nonlinear chiral imaging of
subwavelength-sized twistedcross gold nanodimers
Doppelt sehen oder gar nicht
sehen
tracing of grating cloaks and
correlation-function-based
cloaking-quality assessment
Electrochemical Restructuring
of Plasmonic Metamaterials
ring resonator array with gain
Conjugated gammadion chiral
metamaterials with optical
activity and negative refractive
index
Asymmetric transmission of
linearly polarized waves and
polarization angle dependent
wave rotation using a chiral
metamaterial
http://esperia.iesl.forth.gr/~ppm/PHOME/publications.html
120. Electromagnetic interaction of
yes
yes
yes
yes
yes
E. Ozbay
Opt. Express
No 19, July 2011
Optical Society
of America
2011
pp. 14260-14267
yes
132.
E. Ozbay
J.
Nanophotonic
s
No 5, June 2011
American
Institute of
Physics
2011
pp. (051812) 1-13
yes
E. Ozbay
Appl. Phys.
Lett.
No 98, April 2011
American
Institute of
Physics
2011
pp. (161907) 1-3
L. Vegni
IEEE Trans.
Electromagn.
Compat.
No 53, February
2011
IEEE Xplore
2011
pp. 63-72
E. Ozbay
Photon.
Nanostruct.
Appl. Phys.
Lett.
No 7, July 2010
Elsevier B.V.
2011
pp. 15-21
No 98, February
2011
American
Institute of
Physics
2011
pp. (051103) 1-3
133.
134.
135.
136.
resonant absorber at the nearinfrared band: a polarization
independent and spectrally
broadband configuration
Enhanced transmission of
electromagnetic waves through
split-ring resonator-shaped
apertures
Complementary chiral
metamaterials with giant optical
activity and negative refractive
index
Design of Miniaturized
Narrowband Absorbers Based
on Resonant-Magnetic
Inclusions
Photonic magnetic
metamaterial basics
Experimental validation of
strong directional selectivity in
nonsymmetric metallic gratings
with a subwavelength slit
E. Ozbay
http://esperia.iesl.forth.gr/~ppm/PHOME/publications.html
131. Optically thin composite
yes
yes
yes
yes
TEMPLATE A2: LIST OF DISSEMINATION ACTIVITIES
NO.
Type of activities4
Main leader
1.
Conference
M. Wegener
2.
Conference
M. Wegener
3.
Conference
M. Wegener
4.
Conference
M. Wegener
5.
Conference
M. Wegener
6.
Conference
M. Wegener
7.
Conference
M. Wegener
8.
Conference
M. Wegener
9.
Conference
S. Linden
4
Title
Date
Place
Type of
audience5
416th International Seminar on Ultrafast
Nanooptics, Werner and Else Heraeus
Foundation
Plenary Talk, 21st Congress of the
International Commission for Optics
Gordon Research Conference on
Plasmonics – Optics at the Nanoscale
June, 2008
Bad Honnef,
Germany
Scientific
Community
July, 2008
Scientific
Community
Scientific
Community
Plenary Talk, IEEE-LEOS 2008
International Conference on Optical MEMS
& Nanophotonics
Plenary Talk, 35th International
Symposium on Compound
Semiconductors 2008 (ISCS 2008)
Plenary Talk, Metamaterials 2008, 2nd
International Congress on Advanced
Electromagnetic Materials in Microwave
and Optics
Plenary Talk, International Workshop on
Computational and Theoretical NanoPhotonics (IWCTNP)
IEEE/LEOS Winter Topical Meeting on
Nanophotonics
Annual Dutch Physics Meeting
“Physics@FOM” 2009
August, 2008
Sydney,
Australia
Tilton, New
Hampshire,
U.S.A.
Freiburg,
Germany
September, 2008
Rust, Germany
Scientific
Community
September, 2008
Pamplona,
Spain
Scientific
Community
December, 2008
Bad Honnef,
Germany
Scientific
Community
January, 2009
Innsbruck,
Austria
Veldhoven,
The
Netherlands
Scientific
Community
Scientific
Community
July-August, 2008
January, 2009
Size of
audience
Countries
addressed
Scientific
Community
A drop down list allows choosing the dissemination activity: publications, conferences, workshops, web, press releases, flyers, articles published in the popular press, videos, media
briefings, presentations, exhibitions, thesis, interviews, films, TV clips, posters, Other.
5 A drop down list allows choosing the type of public: Scientific Community (higher education, Research), Industry, Civil Society, Policy makers, Medias ('multiple choices' is possible.
10.
Conference
M.S. Rill
11.
Conference
S. Linden
12.
Conference
M. Wegener
13.
Conference
M. Wegener
14.
Conference
S. Linden
15.
Conference
M. Wegener
16.
Conference
M. Wegener
17.
Conference
M. Wegener
18.
Conference
J. B. Pendry
19.
Conference
J. B. Pendry
20.
Conference
J. B. Pendry
21.
Conference
22.
The 2nd European Topical Meeting on
Nanophotonics and Metamaterials
The 2nd European Topical Meeting on
Nanophotonics and Metamaterials
European Action COST Training School on
Nonlinear Nanophotonics
PECS VIII – The 8th International Photonic
& Electromagnetic Crystal Structures
Meeting
Spring Meeting of the Materials Research
Society (MRS)
Plenary Talk, 8th International Conference
on “Electrical, Transport and Optical
Properties of Inhomogeneous Media”
(ETOPIM 8)
European Quantum Electronics
Conference (EQEC) 2009
International Conference on Surface
Plasmon Photonics-4 (SPP4)
January, 2009
Invited talk, Dispersion Engineering
Workshop
Invited talk, Workshop on Metamaterials
26 June 2008
München,
Germany
Amsterdam,
The
Netherlands
Toronto, U.S.A.
10 November 2008
Nanjing, China
13 November 2008
J. B. Pendry
Invited talk, Workshop on Meta-materials &
Plasmonics
DSTO seminar
Conference
J. B. Pendry
Plenary talk, Australian Physics Society
4 December 2008
23.
Conference
J. B. Pendry
Plenary talk, Photonics Global
9 December 2008
Shanghai,
China
Adelaide,
Australia
Adelaide,
Australia
Singapore
24.
Conference
J. B. Pendry
Invited talk to “IMRE A*”
10 December 2008
25.
Conference
J. B. Pendry
Plenary talk, IAS symposium,
4 January 2009
26.
Conference
J. B. Pendry
March 2009
27.
Conference
J. B. Pendry
Public lecture: Literary and Philosophical
Society
IET 100th Kelvin lecture
January, 2009
March, 2009
April, 2009
April, 2009
June, 2009
June, 2009
June, 2009
3 December 2009
March 2009
Seefeld,
Austria
Seefeld,
Austria
Metz, France
Cockle Bay
Warf, Sydney,
Australia
San Francisco,
U.S.A.
Rethymnon,
Crete, Greece
Zurich,
Switzerland
Hong Kong
Manchester,
U.K.
London, U.K.
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
28.
Conference
J. B. Pendry
IET 100th Kelvin lecture
March 2009
Glasgow, U.K.
29.
Conference
J. B. Pendry
Invited talk PECVIII
April 2009
30.
Conference
J. B. Pendry
Public lecture
April 2009
31.
Conference
J. B. Pendry
‘Cosmo Caixa’ Public lecture
April 2009
32.
Conference
J. B. Pendry
‘Cosmo Caixa’ Public lecture
April 2009
Sydney
Australia
Sydney
Australia
Barcelona,
Spain
Madrid, Spain
33.
Conference
J. B. Pendry
Seminar Corsica Workshop
May 2009
Corsica, Italy
34.
Conference
C. M.
Soukoulis
September 21-24,
2008
Fodele, Crete,
Greece,
35.
Conference
Conference
37.
Conference
38.
Conference
November 9-12,
2008
November 13-15,
2008
December 3-5,
2008
January 2009
Nanjing, China
36.
39.
Conference
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
40.
Conference
C. M.
Soukouilis and
M. Kafesaki
41.
Conference
E. Ozbay
42.
Conference
E. Ozbay
Chair of the organizing committee of the
“XXIV Panhellenic Conference on Solid
State Physics & Materials Science
2008 International Workshop on
Metamaterials
International Workshop on Meta-materials
and Plasmonics, Fudan University
1st International Workshop on Theoretical
and Computational Nano-Photonics
2st European Topical Meeting on
Nanophotonics and Metamaterials
International Workshop on Photonic and
Electromagnetic Crystal Structures,
(PECS-VIII)
Co-chairmans of the organizing committee
of the “Electrical Transport and Optical
Properties of Inhomogeneous Media
(ETOPIM-8)” conference
“The Almost Magical World of
Metamaterials,” 2008 LEOS Annual
Meeting
“Negative Refraction and Subwavelength
Imaging using metamaterials”, 1st
Mediterranean Conference on NanoPhotonics MediNano-1
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Shanghai,
China
Bad Honnef,
Germany
Seefeld, Tirol,
Austria
Sydney,
Australia
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
June 7-12, 2009
Rethymnon,
Crete, Greece
Scientific
Community
November 10-13,
2008
Newport
Beach,
California, USA
Istanbul,
Turkey
Scientific
Community
April 2009
October 6-7, 2008
Scientific
Community
43.
Conference
E. Ozbay
44.
Conference
M. Kafesaki
45.
Conference
M. Kafesaki
46.
Conference
M. Kafesaki
47.
Talks/Seminars
M. Wegener
48.
Talks/Seminars
M. Wegener
49.
Talks/Seminars
50.
“Fabrication of millimeter wave scale
metamaterials”, Second International
Congress on Advanced Electromagnetic
Materials in Microwaves and Optics
“The "10th International Conference on
Transparent Optical Networks (ICTON)"
The "European Optical Society (EOS)
Annual Meeting for 2008"
"1st Mediterranean Conference on
Nanophotonics" (Medi-Nano-1)
Universität Marburg, Physics Colloquium,
September 23-26,
2008
Pamplona,
Spain
Scientific
Community
July 2008
Athens, Greece
October 2008
Paris, France
October 2008
June 2008
Istanbul,
Turkey
Germany
June 2008
Germany
M. Wegener
CenTech Day, Universität Münster,
Physics Colloquium
Universität Wien, Physics Colloquium
March 2009
Austria
Talks/Seminars
M. Wegener
NanoMat Szene
March 2009
51.
Talks/Seminars
M. Wegener
Universität Dresden, Physics Colloquium
April 2009
Karlsruhe,
Germany
Germany
52.
Talks/Seminars
M. Wegener
Universität Mainz, Physics Colloquium
May 2009
Germany
53.
Talks/Seminars
M. Wegener
Universität Chemnitz, Physics Colloquium
May 2009
Germany
54.
Talks/Seminars
M. Wegener
Universität Dortmund, Physics Colloquium
June 2009
Germany
55.
Talks/Seminars
Sandia National Laboratory
August 2008
56.
Talks/Seminars
University of Virginia, Charlottesville
October 2008
Albuquerque,
New Mexico
Virginia, USA
57.
Talks/Seminars
Talks/Seminars
Wright Patterson AFB, Electro-Optics
Components Branch
Pacific Northwest National Laboratory
March 2009
58.
59.
Talks/Seminars
Talks/Seminars
Institute of Atomic and Molecular Physics
(AMOLF), FOM
NTU, Singapore
June 2009
60.
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
J. B. Pendry
61.
Talks/Seminars
J. B. Pendry
Duke University
February 2009
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
April 2009
8 December 2008
Dayton, Ohio,
USA
Richland, WA,
USA
Amsterdam,
Netherlands
Singapore
Durham NC,
USA
62.
Talks/Seminars
J. B. Pendry
USAF Academy
February 2009
63.
Talks/Seminars
J. B. Pendry
Wright Paterson Air Force Base
February 2009
Colorado
Springs, USA
Dayton,USA
64.
Talks/Seminars
J. B. Pendry
Max von Laue Institute
April 2009
Berlin,Germany
65.
Talks/Seminars
J. B. Pendry
Tyndall Institute
May 2009
Cork, Ireland
66.
Conference
M. Kafesaki
Conference
M. Kafesaki
68.
Conference
M. Kafesaki
69.
Conference
M. Kafesaki
June 28 - July 3,
2009
August 30 September 4, 2010
September 20-23,
2010
January 22-25,
2010
Singapore
67.
ICMAT 2009: International Conference on
Materials for Advanced Technologies 2009
Metamaterials Congress 2009
70.
Conference
M. Kafesaki
71.
Conference
M. Kafesaki
January 25-29,
2010
April 12-16, 2010
72.
Conference
C. M.
Soukoulis
Los Angeles,
USA
Brussels,
Belgium
Rethymon,
Crete, Greece
Scientific
Community
Scientific
Community
Scientific
Community
73.
Conference
74.
Conference
C. M.
Soukoulis
C. M.
Soukoulis
San Diego, Ca,
USA
London, UK
Scientific
Community
Scientific
Community
75.
Conference
C. M.
Soukoulis
October 7-9, 2009
Delphi, Greece
Scientific
Community
76.
Conference
C. M.
Soukoulis
October 27-29,
2009
Athens, Greece
Scientific
Community
77.
Conference
November 2009
78.
Conference
C. M.
Soukoulis
C. M.
Soukoulis
Boston,
Massachusetts
Cairo Egypt
Scientific
Community
Scientific
Community
25th PanHellenic Conference on Solid
State Physics and Materials Science
2nd International Conference on
Metamaterials, Photonic Crystals and
Plasmonics (Meta'10)
Workshop on "Metamaterials: Applications,
Analysis and Modeling"
SPIE conference “Photonics Europe:
Matamaterials”
International Conference on Electrical,
Transport and Optical Properties of
Inhomogeneous Media (ETOPIM 8)
SPIE Optics and Photonics
Third International Congress on Advanced
Electromagnetic Materials in Microwaves
and Optics (Metamaterials 2009)
International Commission for Optics
Topical Meeting on “Emerging Trends and
Novel Materials in Photonics”
Plenary Talk, 2nd Mediterranean
Conference on Nano-Photonics (MediNano 2)
Fall Meeting of the Materials Research
Society
Plenary Talk, Meta’10 2nd International
Conference on Metamaterials, Photonic
Crystals and Plasmonics
June 7-12, 2009
August 2-6, 2009
August 30-Sept 4,
2009
February 22-25,
2010
London, UK,
Thessaloniki,
Greece,
Cairo, Egypt
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
79.
Conference
80.
Conference
C. M.
Soukoulis
M.S. Rill
81.
Conference
S. Linden
82.
Conference
M. Wegener
83.
Conference
M. Wegener
84.
Conference
M. Wegener
85.
Conference
M. Wegener
86.
Conference
S. Linden
87.
Conference
M. Wegener
88.
Conference
M. Wegener
89.
Conference
M. Wegener
90.
Conference
M. Wegener
International Workshop on Photonic
Nanomaterials - PhoNa 2010
“Towards 3D Isotropic Photonic
Metamaterials via Direct Laser Writing”,
The 2nd European Topical Meeting on
Nanophotonics and Metamaterials
“Spectroscopy of individual split-ring
resonators”, The 2nd European Topical
Meeting on Nanophotonics and
Metamaterials
“Photonic Metamaterials: Recent
Progress”, IEEE/LEOS Winter Topical
Meeting on Nanophotonics
“Photonic Metamaterials: Recent
Progress”, Annual Dutch Physics Meeting
“Physics@FOM 2009”
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, European Action
COST Training School on “Nonlinear
Nanophotonics”
“Photonic Metamaterials: Recent
Progress”, PECS VIII – The 8th
International Photonic & Electromagnetic
Crystal Structures Meeting
“Recent Progress on Photonic
Metamaterials”, Spring Meeting of the
Materials Research Society (MRS)
“Photonic Metamaterials: Quo Vadis?”, 8th
International Conference on “Electrical,
Transport and Optical Properties of
Inhomogeneous Media (ETOPIM 8)”
“Photonic Metamaterials: Recent
Progress”, European Quantum Electronics
Conference (EQEC) 2009
“Photonic Metamaterials: Recent
Progress”, International Conference on
“Surface Plasmon Photonics-4 (SPP4)”
“Photonic Metamaterials: Magnetism
Enters Photonics”, International
Conference on Magnetism 2009 (ICM'09)
March 24-26, 2010
Jena, Germany
January 5-8, 2009
Seefeld,
Austria
Scientific
Community
Scientific
Community
January 5-8, 2009
Seefeld,
Austria
Scientific
Community
January 12-14,
2009
Innsbruck,
Austria
Scientific
Community
January 20-21,
2009
Veldhoven,
The
Netherlands
Metz, France
Scientific
Community
April 5-9, 2009
Cockle Bay
Warf, Sydney,
Australia
Scientific
Community
April 13-17, 2009
San Francisco
(U.S.A.
Scientific
Community
June 7-12, 2009
Rethymnon,
Crete, Greece
Scientific
Community
June 14-19, 2009
Munich,
Germany
Scientific
Community
June 21-26, 2009
Amsterdam,
The
Netherlands
Karlsruhe,
Germany
Scientific
Community
March 23-25, 2009
July 26-31, 2009
Scientific
Community
Scientific
Community
91.
Conference
M. Wegener
92.
Conference
M. Wegener
93.
Conference
M. Wegener
94.
Conference
S. Linden
95.
Conference
M. Wegener
96.
Conference
M. Wegener
97.
Conference
M. Wegener
98.
Conference
J.K. Gansel
99.
Conference
M. Wegener
100. Conference
M. Wegener
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, SPIE 2009 Optics
and Photonics Meeting
“Photonic Metamaterials: ThreeDimensional Structures and Loss
Compensation”, “Metal Nanostructures and
Their Optical Properties VII”, SPIE 2009
Optics and Photonics Meeting
“Interaction Effects in Low-Symmetry SplitRing Resonator Arrays”, “Metamaterials:
Fundamentals and Applications II”, SPIE
2009 Optics and Photonics Meeting
“Spectroscopy of individual photonic
atoms”, “Metamaterials: Fundamentals and
Applications II”, SPIE 2009 Optics and
Photonics Meeting
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Summer School
“New Frontiers in Optical Technologies”
“Photonic Metamaterials: Recent
Progress”, Fall Meeting of the Material
Research Society (MRS) of America
Plenary Talk, “Towards 3D photonic
metamaterials”, 40th Winter Colloquium on
the “Physics of Quantum Electronics”
“Three-dimensional gold-helix photonic
metamaterials made via two-photon direct
laser writing”, International Conference
Photonics West, “Synthesis and Photonics
of Nanoscale Materials VII”
Plenary Talk, “3D Chiral photonic crystals
and metamaterials”, 2nd International
Conference on “Metamaterials, Photonic
Crystals and Plasmonics”
stals and Plasmonics”, Cairo (Egypt),
February 22-25, 2010.
M. Wegener, “Photonic Crystals and
Metamaterials”, “19. Diskussionstagung
Anorganisch-Technische Chemie”,
DECHEMA House
August 2-6, 2009
San Diego,
U.S.A.
Scientific
Community
August 2-6, 2009
San Diego,
U.S.A.
Scientific
Community
August 2-6, 2009
San Diego
(U.S.A.
Scientific
Community
August 2-6, 2009
San Diego,
U.S.A.
Scientific
Community
August 10-14, 2009
Tampere,
Finland
Scientific
Community
November 30 December 4, 2009
Boston, U.S.A.
Scientific
Community
January 3-7, 2010
Snowbird,
U.S.A.
Scientific
Community
January 25-28,
2010
San Francisco,
U.S.A.
Scientific
Community
February 22-25,
2010
Cairo, Egypt
Scientific
Community
February 18-19,
2010
Frankfurt,
Germany
Scientific
Community
101. Conference
M. Wegener
102. Conference
M. Wegener
103. Conference
M. Wegener
104. Conference
S. Linden
105. Conference
M. Wegener
106. Conference
M. Wegener
107. Conference
M. Wegener
108. Conference
March 15-19, 2010
Portland,
U.S.A.
Scientific
Community
April 5-9, 2010
San Francisco,
U.S.A.
Scientific
Community
April 7-9, 2010
Cambridge,
United
Kingdom
Scientific
Community
April 12-16, 2010
Brussels,
Belgium)
San Jose,
U.S.A.
Scientific
Community
Scientific
Community
June 21-24, 2010
Karlsruhe,
Germany
Scientific
Community
June 21-24, 2010
Karlsruhe,
Germany
Scientific
Community
J.B. Pendry
“3D Photonic Metamaterials Made by
Direct Laser Writing”, March Meeting of the
American Physical Society (APS),
“Celebrating 50 Years of Lasers in
Condensed Matter Physics: Surfaces,
Imaging & Technology”
Invited Tutorial, “Fabrication and
characterization of chiral photonic
metamaterials”, MRS Spring Meeting
Invited Tutorial, “Photonic Metamaterials:
Optics Starts Walking on Two Feet”, 15th
European Conference on Integrated Optics
(ECIO 10)
“Chiral metamaterials for optical
frequencies”, SPIE Photonics Europe
“Photonic metamaterials go threedimensional”, International Conference on
Quantum Electronics and Laser Science
(QELS)
“3D Photonic Metamaterials Made by
Direct Laser Writing” Plenary Talk, OSA
Optics & Photonics Congress
“Bragg Gratings, Photosensitivity and
Poling in Glass Waveguides”, OSA Optics
& Photonics Congress
invited talk – ETOPIM8
June 2009
109. Conference
J.B. Pendry
invited talk – Erlangen
June 2010
110. Conference
J.B. Pendry
talk – Triservices metamaterials review,
May 2010
111. Conference
J.B. Pendry
plenary talk – ICMAT Singapore
June 2009
Rethymnon,
Crete, Greece
Erlangen,
Germany
Norfolk VA,
USA
Singapore
112. Conference
J.B. Pendry
invited talk – ICMAT Singapore
June 2009
Singapore
113. Conference
J.B. Pendry
presentation – DARPA kickoff
July 2009
Duke, USA
114. Conference
J.B. Pendry
plenary talk – London Metamaterials
conference
Sept 2009
London, U.K.
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
May 16-21, 2010
115. Conference
J.B. Pendry
plenary talk – ATOM by ATOM conf
Sept 2009
116. Conference
J.B. Pendry
invited talk – Maxwell Symposium
Oct 2009
San Sebastian,
Spain
London, U.K.
117. Conference
J.B. Pendry
invited talk – Hong Kong City university
Oct 2009
Hong Kong
118. Conference
J.B. Pendry
plenary – CMMP10
Dec 2009
Warwick, U.K.
119. Conference
J.B. Pendry
plenary – PQE Snowbird
Jan 2010
Snowbird, USA
120. Conference
J.B. Pendry
Hamilton lecture – Princeton
April 2010
Princeton, USA
121. Conference
E. Ozbay
October 4-8 2009
Antalya,
TURKEY
122. Conference
E. Ozbay
October 26-27,
2009
Athens, Greece
Scientific
Community
123. Conference
E. Ozbay
E. Ozbay
September 1-4
2009
8-9 July 2009
London, U.K.
124. Conference
Erlangen,
Germany
Scientific
Community
Scientific
Community
125. Conference
E. Ozbay
June 1-4 2009
Istanbul,
TURKEY
Scientific
Community
126. Conference
B. Butun and
E. Ozbay
April 12, 2010
Istanbul,
TURKEY
Scientific
Community
127. Conference
E. Ozbay
April 12-16, 2010
Strasbourg,
France
Scientific
Community
128. Conference
E. Ozbay
April 12-16, 2010
Strasbourg,
France
Scientific
Community
129. Conference
E. Ozbay
Plenary Talk, “The Magical World of
Metamaterials”, IEEE Photonics Society
Annual Meeting 2009
“The Magical World of Metamaterials”, 2nd
Mediterranean Conference on NanoPhotonics MediNano-2
“The Magical World of Metamaterials”,
Metamaterials Congress 2009
“Photonic Metamaterials” Inauguration
Symposium, Max Planck Institute for the
Science of Light
“Nanophotonics and its Applications to
Radiology” ESPR 2009, European Society
of Pediatric Radiology
“GaN Based Nanophotonics Light
Sources”, Invited Talk, European Action
COST Winter School on “Novel Gain
Materials and Devices Based on III-V-N
Compounds”
“Metamaterial-based cloaking with sparse
distribution of spiral resonators,” SPIE
Photonics Europe
“Metamaterial-based cloaking with sparse
distribution of spiral resonators,” SPIE
Photonics Europe
“The Magical World of Metamaterials”,
2010 MRS Spring Meeting
April 5-9, 2010
San Francisco,
USA
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
130. Conference
E. Ozbay
131. Conference
E. Ozbay
132. Talks/Seminars
M. Wegener
133. Talks/Seminars
M. Wegener
134. Talks/Seminars
M. Wegener
135. Talks/Seminars
M. Wegener
136. Talks/Seminars
M. Wegener
137. Talks/Seminars
M. Wegener
138. Talks/Seminars
M. Wegener
139. Talks/Seminars
M. Wegener
140. Talks/Seminars
M. Wegener
141. Talks/Seminars
M. Wegener
142. Talks/Seminars
M. Wegener
143. Talks/Seminars
M. Wegener
“Nanophotonics and Metamaterials for
Security Applications ”, Global Terrorism
and International Cooperation-III
“The Magical World of Optical
Metamaterials”, 16th Seminar on Electron
and Ion Beam Lithography for Applications
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Colloquium,
University Vienna
“Photonische Metamaterialien”, NanoMat
Szene, Karlsruhe
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Colloquium,
University Dresden
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Colloquium,
University Mainz
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Colloquium,
University Chemnitz
“Mageschneiderte nanostrukturierte
Materialien fur die Optik & Photonik”, KIT
im Rathaus, Karlsruhe
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Colloquium,
University Dortmund
“Photonic Metamaterials: Optics Starts
Walking on Two Feet”, Workshop of
IMTEK and FZK/KIT
“Photonische Metamaterialien”,
Colloquium, University Aachen
“Metamaterialien und
Transformationsoptik”, Colloquium of PTB,
Braunschweig
“3D Direct-Laser-Writing Lithography for
Nanophotonics and Biology”,
Optoelectronics Research Centre (ORC)
“Metamaterials and Transformation Optics:
Experiment Chasing After Theory”,
Colloquium at Imperial College
March 15-16, 2010
Ankara,
TURKEY
Scientific
Community
February 22-24,
2010
Dortmund,
GERMANY
Scientific
Community
March 2009
Vienna, Austria
Scientific
Community
March 2009
Karlsruhe,
Germany
Dresden,
Germany
Scientific
Community
Scientific
Community
May 2009
Mainz,
Germany
Scientific
Community
May 2009
Chemnitz,
Germany
Scientific
Community
June 2009
Karlsruhe,
Germany
Scientific
Community
June 2009
Dortmund,
Germany
Scientific
Community
September 2009
Karlsruhe,
Germany
Scientific
Community
December 2009
Aachen,
Germany
Braunschweig,
Germany
Scientific
Community
Scientific
Community
March 2010
Southampton,
U.K.
Scientific
Community
April 2010
London, U.K.
Scientific
Community
April 2009
March 2010
144. Talks/Seminars
M. Wegener
145. Talks/Seminars
May 2010
Gottingen,
Germany
Scientific
Community
J. B. Pendry
“Metamaterialien und
Transformationsoptik”, Colloquium,
University Gottingen
ETH Zurich, Colloquium
September 2009
Zurich,
Switzerland
146. Talks/Seminars
J. B. Pendry
Discovery Park, Distinguished Lecture
November 2009.
147. Talks/Seminars
J. B. Pendry
Purdue, Public lecture
November 2009
Indiana, U.S.A.
148. Talks/Seminars
J. B. Pendry
University of Twente
December 2009
149. Talks/Seminars
J. B. Pendry
Berkeley, Seminar
January 2010
150. Talks/Seminars
J. B. Pendry
Nantes, public lecture
February 2010
Twente,
Netherlanda
Berkeley,
U.S.A.
Nantes, France
151. Talks/Seminars
J. B. Pendry
Fresnel Institute
March 2010
152. Talks/Seminars
J. B. Pendry
University of Exeter
March 2010
153. Talks/Seminars
J. B. Pendry
March 2010.
154. Talks/Seminars
J. B. Pendry
Institute for Advanced Study (IAS) of
HKUST, distinguished lecture
University of Princeton, Seminar
155. Talks/Seminars
J. B. Pendry
University of Duke, Seminar
May 2010
156. Talks/Seminars
J. B. Pendry
Nova Southeastern University (NSU),
Public lecture
May 2010
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
157. Talks/Seminars
Institute of Atomic and Molecular Physics
(AMOLF), FOM
Department of Physics, University of
Minnesota
Condensed Matter Group, University of
Minnesota
Sandia National Labs, Albuquerque
June 2009
160. Talks/Seminars
C. M.
Soukoulis
C. M.
Soukoulis
C. M.
Soukoulis
M. Kafesaki
161. Talks/Seminars
M. Kafesaki
US Air Force, Wright Patterson AFB,
Dayton
May 2010
158. Talks/Seminars
159. Talks/Seminars
April 2010
September 2009
October 2009
February 2010
Marseille,
France
Exeter, U.K.
Hong Kong,
China
Princeton, New
Jersey, USA
Durham NC,
USA
Fort
Lauderdale,
Florida, USA
Amsterdam,
Netherlands
Minneapolis,
USA
Minneapolis,
USA
New Mexico,
USA
Ohio, USA
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
162. Conference
M. Kafesaki
163. Conference
M. Kafesaki
164. Conference
M. Kafesaki
165. Conference
M. Kafesaki
166. Conference
M. Kafesaki
167. Conference
M. Kafesaki
168. Conference
M. Kafesaki
169. Conference
M. Kafesaki
170. Conference
M. Kafesaki
171. Conference
M. Kafesaki
172. Conference
M. Kafesaki
173. Conference
M. Kafesaki
174. Conference
C. M.
Soukoulis
C. M.
Soukoulis
175. Conference
176. Conference
C. M.
Soukoulis
177. Conference
C. M.
Soukoulis
”5th Forum on New Materials in CIMTEC
2010 Conference,
”12th International Conference on
Transparent Optical Networks (ICTON)”
“Summer school on ”Mesoscopic Physics
in Complex Media”
“SPIE Optics and Photonics conference on
“Nanoscienc+Engineering”
“Metamaterials 2010”
June 2010
Florence, Italy
June 2010
”3rd Mediterranean Conference on
Nanophotonics,” (Medi-Nano 3)
"International Workshop on Theoretical and
Computational Nanophotonics 2010"
(TaCoNa-Photonics2010)
"Progress In Electromagnetics Research
Symposium 2011" (PIERS 2011)
Annual international conference "Days of
Diffraction" (Metamaterials Workshop)
International Symposium on Wave
Propagation: From Electrons to Photonic
Crystals and Metamaterials
International Conference on Materials for
Advanced Technologies (ICMAT 2011)
"Moscow International Symposium on
Magnetism" (MISM)
SPIE Optics and Photonics (Plenary Talk)
October 2010
Munich,
Germany
Cargese,
Corsica
San Diego,
USA
Karlsruhe,
Germany
Belgrade,
Serbia
Bad Honnef,
Germany
International Conference on
Electromagnetic Metamaterials IV: New
Directions in Active and Passive
Metamaterials
Fourth International Congress on
Advanced Electromagnetic Materials in
Microwaves and Optics (Metamaterials
2010)
Metamaterials Doctoral School, Bringing
Gain to Metamaterials, (Tutorial)
August 11-12, 2010
July 2010
August 2010
September 2010
November 3-5,
2011
March 20-23, 2011.
May 30 - June 3,
2011
June 8-11, 2011
June 26 – July 1,
2011
August 21 – 25,
2011
August 1-6, 2010
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Marrakesh,
Morocco
St. Petersburg,
Russia
Crete, Greece
Scientific
Community
Scientific
Community
Scientific
Community
Singapore
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
Moscow,
Russia
San Diego, Ca,
USA
Santa Ana
Pueblo, New
Mexico
September 12-16,
2010
Karlsruhe,
Germany
Scientific
Community
September 17-18,
2010
Karlsruhe,
Germany
Scientific
Community
178. Conference
C. M.
Soukoulis
179. Conference
C. M.
Soukoulis
180. Conference
182. Conference
C. M.
Soukoulis
C. M.
Soukoulis
M. Wegener
183. Conference
M. Wegener
184. Conference
M. Wegener
185. Conference
M. Wegener
186. Conference
M. Wegener
187. Conference
M. Wegener
188. Conference
M. Wegener
181. Conference
International Workshop on Photonic and
Electromagnetic Crystal Structures,
(PECS-IX)
International Symposium on Wave
Propagation: From Electrons to Photonic
Crystals and Metamaterials
International Conference on Materials for
Advanced Technologies (ICMAT 2011)
SPIE Optics and Photonics 2011
September 26-30,
2010
Granada,
Spain
Scientific
Community
June 8-11, 2011
Crete, Greece
Scientific
Community
June 26 – July 1,
2011
August 21-25, 2011
Singapore
Photonic metamaterials and transformation
optics, iNANO International summer school
in advanced photonics
3D Optical Carpet Cloak, Fourth
International Congress on Advanced
Electromagnetic Materials in Microwaves
and Optics Metamaterials 2010
Electromagnetic interaction of split-ring
resonators: The role of separation and
relative orientation, Fourth International
Congress on Advanced Electromagnetic
Materials in Microwaves and Optics
Metamaterials 2010
Photonic Metamaterials: Recent Progress,
PECS IX – The 9th International Photonic
& Electromagnetic Crystal Structures
Meeting
Photonic Metamaterials, “Micro-Optics”
Meeting, European Optical Society Annual
Meeting
Plasmonic Metamaterials Coupled to
Single-Quantum-Well Gain, 41st Winter
Colloquium on the Physics of Quantum
Electronics (PQE)
3D Metamaterials and Transformation
Optics, The 3rd International Topical
Meeting on Nanophotonics and
Metamaterials, NANOMETA 2011
September 3-7,
2010
San Diego, Ca,
USA
Fuglsocenter
(Denmark)
Scientific
Community
Scientific
Community
Scientific
Community
September 13-16,
2010
Karlsruhe
(Germany)
Scientific
Community
September 13-16,
2010
Karlsruhe
(Germany)
Scientific
Community
September 26-30,
2010
Granada
(Spain)
Scientific
Community
October 26-28,
2010
Paris (France)
Scientific
Community
January 2-6, 2011
Snowbird
(U.S.A.)
Scientific
Community
January 3-6, 2011
Seefeld
(Austria)
Scientific
Community
189. Conference
M. Wegener
190. Conference
M. Wegener
191. Conference
M. Wegener
192. Conference
M. Wegener
193. Conference
M. Wegener
194. Conference
M. Wegener
195. Conference
M. Wegener
196. Conference
M. Wegener
Three-dimensional diffraction-unlimited
direct-laser-writing optical lithography,
International Workshop “Laser Based
Micromanufacturing – From Surface
Structuring to Metamaterials”
3D invisibility cloaks at optical frequencies,
International Conference Photonics West,
San Francisco (U.S.A.)
3D Photonic Metamaterials and Invisibility
Cloaks: The Making Of, Invited Plenary
Keynote Talk, The 24th International
Conference on Micro Electro Mechanical
Systems (MEMS 2011)
Photonic Metamaterials and
Transformation Optics: Recent Progress,
Spring-Meeting of the German Physical
Society (DPG)
3D Photonic Metamaterials and
Transformation Optics, Invited Plenary
Talk, International Conference on
Nanophotonics (ICNP)
International Symposium on Wave
Propagation: From Electrons to Photonic
Crystals and Metamaterials
Photonic Metamaterials: Optics Starts
Walking on Two Feet, International
Summer School on Nano-optics:
plasmonics, photonic crystals,
metamaterials, and sub-wavelength
resolution, Advanced Study Institute, Ettore
Majorana Centre
Photonic Metamaterials and
Transformation Optics, Invited Plenary
Talk, International Conference on
Fundamental Optical Processes in
Semiconductors (FOPS 2011), Lake
Junaluska
January 10-11,
2011
Erlangen
(Germany)
January 22-27,
2011
Scientific
Community
Scientific
Community
January 23-27,
2011
Cancun
(Mexico)
Scientific
Community
March 13-18, 2011
Dresden
(Germany)
Scientific
Community
May 22-26, 2011
Shanghai
(China)
Scientific
Community
June 8-11, 2011
Crete, Greece
Scientific
Community
June 30 - July 15,
2011
Erice (Italy)
Scientific
Community
August 1-5, 2011
North Carolina
(U.S.A.)
Scientific
Community
197. Conference
M. Wegener
198. Conference
M. Wegener
199. Conference
E. Ozbay
200. Conference
E. Ozbay
201. Conference
E. Ozbay
202. Conference
E. Ozbay
203. Conference
E. Ozbay
204. Conference
E. Ozbay
205. Conference
E. Ozbay
206. Conference
E. Ozbay
207. Conference
E. Ozbay
Nonlinear spectroscopy on photonic
metamaterials, Metamaterials:
Fundamentals and Applications IV, SPIE
2011 Optics and Photonics Meeting
3D invisibility cloaks at visible wavelengths,
Metamaterials: Fundamentals and
Applications IV, SPIE 2011 Optics and
Photonics Meeting
“Metamaterial Based Enhanced
Transmission from Deep Subwavelength
Apertures”, 3rd Mediterranean Conference
on Nano-Photonics MediNano-3
“Metamaterial Based Enhanced
Transmission from Deep Subwavelength
Apertures,” 9th Photonics and
Electromagnetic Crystals Conference
(PECS-9)
“The Magical World of Optical
Metamaterials”, Metamaterials Congress
2010
“Photonic Metamaterials: Science Meets
Magic”, 6th Nanoscience and
Nanotechnology Conference, (Plenary
Talk)
International Workshop on Photonic and
Electromagnetic Crystal Structures,
(PECS-IX)
“Metamaterial Based Enhanced
Transmission from Deep Subwavelength
Apertures,” The 3rd European Topical
Meeting on Nanophotonics and
Metamaterials, NanoMeta-2011
“The Magical World of Optical
Metamaterials”, SPIE Photonic West 2011
“Science Meets Magic: Photonic
Metamaterials”, SPIE Photonics Europe
2011, “Metamaterials”
International Symposium on Wave
Propagation: From Electrons to Photonic
Crystals and Metamaterials
August 21-25, 2011
San Diego
(U.S.A.)
Scientific
Community
August 21-25, 2011
San Diego
(U.S.A.)
Scientific
Community
October 18-19,
2010
Belgrade,
Serbia
Scientific
Community
September 27-29
2010
Granada,
SPAIN
Scientific
Community
September 13-16,
2010
Karlsruhe,
GERMANY
Scientific
Community
June 15-18, 2010
Izmir, TURKEY
Scientific
Community
September 26-30,
2010
Granada,
Spain
Scientific
Community
January 3-6, 2011
Seefeld, Tirol,
Austria
Scientific
Community
January 23-27,
2011
April 18-21, 2011
San Francisco,
USA
Prague, Czech
Republic
Scientific
Community
Scientific
Community
June 8-11, 2011
Crete, Greece,
Scientific
Community
208. Conference
J. B. Pendry
209. Conference
J. B. Pendry
210. Conference
J. B. Pendry
211. Conference
J. B. Pendry
212. Conference
June 14-18, 2010
Osaka Japan
Scientific
Community
June 27 - July 5,
2010
September 26-30,
2010
Strasbourg,
France
Granada,
Spain
Scientific
Community
Scientific
Community
Sept. 27- Oct. 1,
2010
San Sebastian,
Spain
Scientific
Community
J. B. Pendry
The 4th Yamada Symposium on. APSE
2010. Advanced Photons and Science
Evolution 2010
Ninth European Summer Campus on the
theme "Metamaterials"
International Workshop on Photonic and
Electromagnetic Crystal Structures,
(PECS-IX)
New Approaches to Biochemical Sensing
with Plasmonic Nanobiophotonics,
Donostia International Physics Center in
San Sebastian
Multistage modeling workshop
October 12, 2010
213. Conference
J. B. Pendry
FOM conference (Plenary Talk)
January 18-19,
2011
Scientific
Community
Scientific
Community
214. Conference
J. B. Pendry
February 2-3, 2011
215. Conference
J. B. Pendry
April 11-14, 2011
Bilbao, Spain
216. Conference
J. B. Pendry
May 2-7, 2011
217. Conference
J. B. Pendry
Corsica,
France
Budapest,
Hungary
218. Conference
J. B. Pendry
219. Conference
J. B. Pendry
220. Conference
J. B. Pendry
221. Conference
J. B. Pendry
NAVAIR Nano/Meta Materials Workshop
for Naval Aviation Applications
Bringing together Nanoscience &
Nanotechnology (Plenary Talk)
Recent Developments in Wave Physics of
Complex Media, Cargese
The European Future Technologies
Conference and Exhibition 2011 (Plenary
Talk)
Annual international conference "Days of
Diffraction" (Metamaterials Workshop)
International Symposium on Wave
Propagation: From Electrons to Photonic
Crystals and Metamaterials
7th joint U.S./Australia/Canada/UK
Workshop on Defense Applications of
Signal Processing (DASP), Coolum
SPIE Optics and Photonics
Erlangen,
Germany
Veldhoven,
The
Netherlands
Virginia, USA
May 4-6, 2011
Scientific
Community
Scientific
Community
Scientific
Community
Scientific
Community
May 30 - June 3,
2011
June 8-11, 2011
St. Petersburg,
Russia
Crete, Greece
Scientific
Community
Scientific
Community
July 10-14, 2011
Queensland,
Australia
Scientific
Community
August 21-25, 2011
San Diego, Ca,
USA
Scientific
Community
222. Talks/Seminars
M. Wegener
223. Talks/Seminars
M. Wegener
224. Talks/Seminars
M. Wegener
225. Talks/Seminars
M. Wegener
226. Talks/Seminars
M. Wegener
Photonische Metamaterialien, Physics
Colloquium Universität Paderborn
Metamaterialien und Transformationsoptik,
“Physik am Samstag“, Karlsruhe Institute
of Technology (KIT)
M3D Metamaterials and Transformation
Optics, Annual Meeting of the International
Max Planck Research School (IMPRS)
Erlangen, Gößweinstein
Metamaterialien und Transformationsoptik,
Physics Colloquium Universität Osnabrück
Metamaterials and Transformation Optics,
Optics Seminar University Twente
June 24, 2010
Paderborn,
Germany
Karlsruhe,
Germany
Scientific
Community
Scientific
Community
October 4-8, 2010
Erlangen,
Germany
Scientific
Community
November 11, 2010
Osnabrück,
Germany
The
Netherlands
Scientific
Community
Scientific
Community
July 10, 2010
November 25, 2010
Section B (Confidential6 or public: confidential information to be marked clearly)
Part B1
PHOME partners have no applications for patents, trademarks, registered designs, etc, as a result of the project.
Part B2
Please complete the table hereafter:
Type of
Exploitable
Foreground7
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application8
Timetable,
commercia
l or any
other use
General
advancement of
knowledge,
commercial
exploitation
Gold Helix Photonic
Metamaterial as
Broadband Circular
Polarizer
NO
Simulations,
Direct laser
Writing and
Chemical Vapor
Deposition
M72 Scientific
research and
development
2009
General
advancement of
knowledge,
commercial
exploitation
General
advancement of
knowledge,
commercial
exploitation
General
Three-Dimensional
Invisibility Cloak at
Optical Wavelengths
NO
Direct laser
writing
M72 Scientific
research and
development
2010
Photonic Metamaterials
by Direct Laser Writing
and Silver Chemical
Vapor Deposition
NO
M72 Scientific
research and
development
2008
THz broadband tunable
NO
Simulations,
Direct laser
Writing and
Chemical Vapor
Deposition
Simulations
M72 -
2009
6
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
M. Wegener,
J.K. Gansel, M.
Thiel, M.S. Rill,
M. Decker, K.
Bade, V. Saile,
G. von
Freymann, S.
Linden
M. Wegener,
T. Ergin, N.
Stenger, P.
Brenner, J.B.
Pendry
M. Wegener,
M.S. Rill, C. Plet,
M. Thiel, G. von
Freymann, S.
Linden
C. M. Soukoulis,
Note to be confused with the "EU CONFIDENTIAL" classification for some security research projects.
19
A drop down list allows choosing the type of foreground: General advancement of knowledge, Commercial exploitation of R&D results, Exploitation of R&D results via standards,
exploitation of results through EU policies, exploitation of results through (social) innovation.
8 A drop down list allows choosing the type sector (NACE nomenclature) : http://ec.europa.eu/competition/mergers/cases/index/nace_all.html
Type of
Exploitable
Foreground7
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
advancement of
knowledge,
commercial
exploitation
metamaterials and
switches
General
advancement of
knowledge
Self-consistent
calculation of
metamaterials with gain
NO
Simulations
General
advancement of
knowledge
Compact planar far-field
superlens based on
anisotropic left-handed
metamaterials
NO
Simulations
General
advancement of
knowledge
Conformal
transformation applied to
plasmonics beyond the
quasistatic limit
Defect-mode-like
transmission and
localization of light in
photonic crystals without
defects
Chiral metamaterials for
repulsive Casimir force
NO
Simulations
NO
Simulations
NO
Simulations
Broadband plasmonic
device concentrating the
energy at the nanoscale:
NO
Simulations
Low loss metamaterials
based on
NO
Simulations
General
advancement of
knowledge
General
advancement of
knowledge
General
advancement of
knowledge,
commercial
exploitation
General
advancement of
Sector(s) of
application8
Timetable,
commercia
l or any
other use
Scientific
research and
development
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
Nian-Hai Shen,
M. Kafesaki, Th.
Koschny, Lei
Zhang, E. N.
Economou
C. M. Soukoulis,
A. Fang, Th.
Koschny, M.
Wegener
C.M. Soukoulis,
N. H. Shen, S.
Foteinopoulou,
M. Kafesaki, Th.
Koschny, E.
Ozbay, E.N.
Economou
J.B. Pendry,
A. Aubry, D.Y.
Lei, S.A. Maier
M72 Scientific
research and
development
M72 Scientific
research and
development
2009
M72 Scientific
research and
development
M72 Scientific
research and
development
2010
2010
E. Ozbay,
A.E.
Serebryannikov,
P.V. Usik
M72 Scientific
research and
development
M72 Scientific
research and
development
2010
C.M. Soukoulis,
R. Zhao, Th.
Koschny, E.N.
Economou
J.B. Pendry,
A. Aubry, D.Y.
Lei, S.A. Maier
M72 Scientific
2009
2009
2010
C. M. Soukoulis,
P. Tassin, Lei
Type of
Exploitable
Foreground7
Description
of exploitable foreground
Confidential
Click on
YES/NO
knowledge
Electromagnetic Induced
Transparency
General
advancement of
knowledge
Generation of an Axially
Asymmetric Bessel-Like
Beam from a Metallic
Subwavelength Aperture
NO
General
advancement of
knowledge
Split-Ring-ResonatorCoupled Enhanced
Transmission through a
Single Subwavelength
Aperture
NO
General
advancement of
knowledge,
commercial
exploitation
Optically Implemented
Broadband Blueshift
Switch in the Terahertz
Regime
General
advancement of
knowledge
General
advancement of
knowledge
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application8
Timetable,
commercia
l or any
other use
research and
development
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
Zhang, Th.
Koschny, E. N.
Economou
Simulations,
measurements
using a HP8510C network
analyzer
Transmission
measurements
using an Agilent
N5230A network
analyzer
M72 Scientific
research and
development
2009
E. Ozbay,
Z. Li, K. B. Alici,
H. Caglayan
M72 Scientific
research and
development
2009
NO
Simulations and
THz time
domain
spectroscopy
M72 Scientific
research and
development
2011
Second-harmonic optical
spectroscopy on splitring-resonator arrays
NO
M72 Scientific
research and
development
2011
Electromagnetic cloaking
with canonical spiral
inclusions
NO
Simulations and
secondharmonicgeneration
experiments
Simulations,
reflection and
transmission
spectra using a
HP-8510C
network
analyzer
E. Ozbay,
K. Aydin, A. O.
Cakmak, L.
Sahin, Zhaof. Li,
F. Bilotti, L.
Vegni
C.M. Soukoulis,
N.H. Shen, M.
Massaouti, M.
Gokkavas, J.M.
Manceau, E.
Ozbay, M.
Kafesaki, Th.
Koschny, S.
Tzortzakis
M. Wegener,
F.B.P. Niesler,
N. Feth, S.
Linden
M72 Scientific
research and
development
2008
S. Tretyakov,
K. Guven, E.
Saenz, R.
Gonzalo, E.
Ozbay
Type of
Exploitable
Foreground9
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application10
Timetable,
commercia
l or any
other use
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
General
advancement of
knowledge
The focusing effect of
graded index photonic
crystals
NO
Simulations
(FDTD method)
M72 Scientific
research and
development
2008
General
advancement of
knowledge,
commercial
exploitation
General
advancement of
knowledge
Surface wave splitter
based on metallic
gratings with subwavelength aperture
NO
M72 Scientific
research and
development
2008
Negative phase advance
in polarization
independent, multi-layer
negative-index
metamaterials
Connected bulk negative
index photonic
metamaterials for direct
laser writing
NO
M72 Scientific
research and
development
2008
E. Ozbay,
K. Aydin, Z. Li, L.
Sahin
M72 Scientific
research and
development
2009
C. M. Soukoulis,
D. Ö. Güney, Th.
Koschny, M.
Kafesaki
General
advancement of
knowledge
Planar designs for
electromagnetically
induced transparency in
metamaterials
NO
Simulations,
measurements
using a HP8510C network
analyzer
Simulations,
measurements
using a HP8510C network
analyzer
Simulations
(CST
MICROWAVE
STUDIO
software
package)
Simulations
M72 Scientific
research and
development
2009
General
advancement of
knowledge
Negative-index
bianisotropic photonic
metamaterial fabricated
by direct laser writing
and silver shadow
NO
Simulations, 3D
two-photon
direct laser
writing
M72 Scientific
research and
development
2009
C. M. Soukoulis,
P. Tassin, Lei
Zhang, Th.
Koschny, E. N.
Economou
M. Wegener,
M.S. Rill, C.E.
Kriegler, M.
Thiel, G. von
Freymann, S.
General
advancement of
knowledge
19
NO
E. Ozbay,
H. Kurt, E.
Colak, O.
Cakmak, H.
Caglayan
E. Ozbay,
H. Caglayan
A drop down list allows choosing the type of foreground: General advancement of knowledge, Commercial exploitation of R&D results, Exploitation of R&D results via standards,
exploitation of results through EU policies, exploitation of results through (social) innovation.
10 A drop down list allows choosing the type sector (NACE nomenclature) : http://ec.europa.eu/competition/mergers/cases/index/nace_all.html
Type of
Exploitable
Foreground9
General
advancement of
knowledge
Description
of exploitable foreground
evaporation
Coupling effects in lowsymmetry planar splitring resonator arrays
Confidential
Click on
YES/NO
NO
General
advancement of
knowledge
Second-harmonic
generation from split-ring
resonators on GaAs
substrate
NO
General
advancement of
knowledge
Frequency dependent
steering with backward
leaky waves via photonic
crystal interface layer
NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application10
Timetable,
commercia
l or any
other use
Simulations
(finite-element
program
package –
COMSOL
Multiphysics)
Simulations,
normalincidence
reflectance
spectrum
M72 Scientific
research and
development
2009
M72 Scientific
research and
development
2009
Simulations,
Transmission
measurements
using an Agilent
N5230A network
analyzer
M72 Scientific
research and
development
2009
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
Linden
M. Wegener M.
Decker, S.
Linden
M. Wegener,
F.B.P. Niesler,
N. Feth, S.
Linden, J.
Niegemann, J.
Gieseler, K.
Busch
E. Ozbay,
E. Colak, H.
Caglayan, A. O.
Cakmak, A.
Della Villa, F.
Capolino
Type of
Exploitable
Foreground11
General
advancement of
knowledge
General
advancement of
knowledge
General
advancement of
knowledge
General
advancement of
knowledge
19
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application12
Timetable,
commercia
l or any
other use
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
Determination of the
effective constitutive
parameters of
bianisotropic
metamaterials from
reflection and
transmission coefficients
Strong optical activity
from twisted-cross
photonic metamaterials
NO
Simulations
M72 Scientific
research and
development
2009
E. Ozbay,
Z. Li, K. Aydin
and
NO
e-beam
lithography,
optical
characterization
M72 Scientific
research and
development
2009
Multifrequency invisibility
and masking of
cylindrical dielectric
objects using doublepositive and doublenegative metamaterials
Enhanced transmission
through a subwavelength
aperture using
metamaterials
NO
Simulations
M72 Scientific
research and
development
2009
M. Wegener,
M. Decker, M.
Ruther, C.E.
Kriegler, J. Zhou,
C.M. Soukoulis,
S. Linden
E. Ozbay,
A.E
Serebryannikov
NO
Simulations,
measurements
using an Agilent
N5230A network
analyzer
M72 Scientific
research and
development
2009
E. Ozbay,
A.O. Cakmak, K.
Aydin, E. Colak,
Z. Li, F. Bilotti, L.
Vegni
A drop down list allows choosing the type of foreground: General advancement of knowledge, Commercial exploitation of R&D results, Exploitation of R&D results via standards,
exploitation of results through EU policies, exploitation of results through (social) innovation.
12 A drop down list allows choosing the type sector (NACE nomenclature) : http://ec.europa.eu/competition/mergers/cases/index/nace_all.html
Type of
Exploitable
Foreground13
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
General
advancement of
knowledge
Conformal carpet and
grating cloaks
NO
Simulations
General
advancement of
knowledge
Large group delay in a
microwave metamaterial
analog of
Electromagnetic Induced
Transparency
NO
Simulations,
measurements
using a HP
E8364 network
analyzer
General
advancement of
knowledge
Chiral memamaterials:
Retrieval of the effective
parameters with and
without substrate
Mimicking a negative
refractive slab by
combining two phase
conjugators
Metamaterial based
subwavelength
microwave absorbers
NO
Simulations
NO
Simulations
NO
Ultrafast and and
sensitive bioassay using
SRR structures and
microwave heating
NO
Simulations,
measurements
using a HP8510C network
analyzer
Simulations,
measurements
using a HP8510C network
analyzer
General
advancement of
knowledge
General
advancement of
knowledge
General
advancement of
knowledge
19
Sector(s) of
application14
Timetable,
commercia
l or any
other use
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
M72 Scientific
research and
development
M72 Scientific
research and
development
2010
M. Wegener,
R. Schmied, J.C.
Halimeh
2010
M72 Scientific
research and
development
M72 Scientific
research and
development
M72 Scientific
research and
development
2010
C.M. Soukoulis,
Lei Zhang, P.
Tassin, Th.
Koschny, C.
Kurter, S.M.
Anlage
C.M. Soukoulis,
R. Zhao, Th.
Koschny
M72 Scientific
research and
development
2010
J.B. Pendry,
A. Aubry
2010
E. Ozbay,
K.B. Alici, F.
Bilotti, L. Vegni
2010
E. Ozbay,
H. Caglayan, S.
Cakmakyapan,
S.A. Addae,
M.A. Pinard, D.
Caliskan, K.
Aslan
A drop down list allows choosing the type of foreground: General advancement of knowledge, Commercial exploitation of R&D results, Exploitation of R&D results via standards,
exploitation of results through EU policies, exploitation of results through (social) innovation.
14 A drop down list allows choosing the type sector (NACE nomenclature) : http://ec.europa.eu/competition/mergers/cases/index/nace_all.html
Type of
Exploitable
Foreground15
General
advancement of
knowledge,
commercial
exploitation
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application16
Timetable,
commercia
l or any
other use
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
Chiral metamaterial
designs showing circular
dichroism and strong
optical activity in GHz,
THz and optical regime.
Chiral metamaterials
shown negative index in
GHz and THz regime
Intra-connected 3D
isotropic bulk negative
index photonic
metamaterial
A Planar Metamaterial
With Dual-Band DoubleNegative Response at
EHF
NO
Simulations,
Fabrication,
measurements
M72 Scientific
research and
development
2010
C.M. Soukoulis,
Z. Li, R. Zhao,
Th. Koschny, M.
Kafesaki, K.B.
Alici, E. Colak,
H. Caglayan, E.
Ozbay
NO
M72 Scientific
research and
development
M72 Scientific
research and
development
2010
C.M. Soukoulis,
D. Ö. Güney, Th.
Koschny
2010
General
advancement of
knowledge,
commercial
exploitation
General
advancement of
knowledge
Three-dimensional direct
laser writing optimization
inspired by stimulatedemission-depletion
microscopy
Three-dimensional
polarization-independent
visible-frequency carpet
invisibility cloaks
NO
Simulations
(CST
MICROWAVE
STUDIO)
Simulations,
measurements
using a HP8510C network
analyzer
Simulations,
femtosecond
pump-probe
spectroscopy
M72 Scientific
research and
development
2011
E. Ozbay,
T. Güdogdu, K.
Güven, M.
Gökkavas, C.M.
Soukoulis
A.N. Unterreiner,
T.J.A. Wolf, J.
Fischer, M.
Wegener
M72 Scientific
research and
development
2011
M. Wegener,
J. Fischer, T.
Ergin
General
advancement of
knowledge
Overcoming the losses
of a split ring resonator
array with gain
NO
Stimulatedemissiondepletion
(STED)-inspired
direct laser
writing
Simulations
(FDTD method)
M72 Scientific
research and
2011
C.M. Soukoulis,
A. Fang, Z.
Huang, Th.
General
advancement of
knowledge
General
advancement of
knowledge
19
NO
NO
A drop down list allows choosing the type of foreground: General advancement of knowledge, Commercial exploitation of R&D results, Exploitation of R&D results via standards,
exploitation of results through EU policies, exploitation of results through (social) innovation.
16 A drop down list allows choosing the type sector (NACE nomenclature) : http://ec.europa.eu/competition/mergers/cases/index/nace_all.html
Type of
Exploitable
Foreground15
commercial
exploitation
General
advancement of
knowledge
General
advancement of
knowledge,
commercial
exploitation
Description
of exploitable foreground
Confidential
Click on
YES/NO
Foreseen
embargo
date
dd/mm/yyyy
Exploitable
product(s) or
measure(s)
Sector(s) of
application16
Timetable,
commercia
l or any
other use
development
Complementary chiral
metamaterials with giant
optical activity and
negative refractive index
Design of Miniaturized
Narrowband Absorbers
Based on ResonantMagnetic Inclusions
NO
NO
Simulations
(CST
MICROWAVE
STUDIO)
Simulations
(CST
MICROWAVE
STUDIO)
M72 Scientific
research and
development
M72 Scientific
research and
development
Patents or
other IPR
exploitation
(licences)
Owner & Other
Beneficiary(s)
involved
Koschny
2011
E. Ozbay,
Z. Li, K.B. Alici,
E. Colak
2011
L. Vegni,
F. Bilotti, A.
Toscano, K.B.
Alici, E. Ozbay
All the above results aim to make a step towards realization of functional optical metamaterials - by reducing losses and advance the fabrication capabilities
for the fabrication of the required structures -, as well as to explore further the potential of optical metamaterials and metamaterials in general.
All the results mentioned have been already published in scientific journals and all the knowledge gained is available to the scientific community for further
development/improvement, and to the interested enterprises (for results marked with “commercial exploitation”) for evaluation, comparison with current
approaches and exploitation, if the foreground will be considered as ready for industrialization. For most of the results we believe that further research is
necessary before going to larger-scale use or industrialization.
4.3
A
Report on societal implications
General Information (completed automatically when Grant Agreement number is
entered.
Grant Agreement Number:
Title of Project:
Name and Title of Coordinator:
B
213390
Photonic Metamaterials
Costas M. Soukoulis, Professor
Ethics
1. Did your project undergo an Ethics Review (and/or Screening)?

If Yes: have you described the progress of compliance with the relevant Ethics
Review/Screening Requirements in the frame of the periodic/final project reports?
No
Special Reminder: the progress of compliance with the Ethics Review/Screening Requirements should be
described in the Period/Final Project Reports under the Section 3.2.2 'Work Progress and Achievements'
2.
Please indicate whether your project involved any of the following issues (tick
box) :
RESEARCH ON HUMANS
 Did the project involve children?
 Did the project involve patients?
 Did the project involve persons not able to give consent?
 Did the project involve adult healthy volunteers?
 Did the project involve Human genetic material?
 Did the project involve Human biological samples?
 Did the project involve Human data collection?
RESEARCH ON HUMAN EMBRYO/FOETUS
 Did the project involve Human Embryos?
 Did the project involve Human Foetal Tissue / Cells?
 Did the project involve Human Embryonic Stem Cells (hESCs)?
 Did the project on human Embryonic Stem Cells involve cells in culture?
 Did the project on human Embryonic Stem Cells involve the derivation of cells from Embryos?
PRIVACY
 Did the project involve processing of genetic information or personal data (eg. health, sexual
lifestyle, ethnicity, political opinion, religious or philosophical conviction)?
 Did the project involve tracking the location or observation of people?
RESEARCH ON ANIMALS
 Did the project involve research on animals?
 Were those animals transgenic small laboratory animals?
 Were those animals transgenic farm animals?
 Were those animals cloned farm animals?
 Were those animals non-human primates?
RESEARCH INVOLVING DEVELOPING COUNTRIES
 Did the project involve the use of local resources (genetic, animal, plant etc)?
 Was the project of benefit to local community (capacity building, access to healthcare, education
etc)?
DUAL USE
 Research having direct military use
YES
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No
No

No
Research having the potential for terrorist abuse
C
Workforce Statistics
3.
Workforce statistics for the project: Please indicate in the table below the number of
people who worked on the project (on a headcount basis).
Type of Position
Number of Women
Number of Men
Scientific Coordinator
Work package leaders
Experienced researchers (i.e. PhD holders)
PhD Students
Other
1
1
3
8
4
3
9
17
4.
How many additional researchers (in companies and universities) were
recruited specifically for this project?
Of which, indicate the number of men:
0
D Gender Aspects
5.
Did you carry out specific Gender Equality Actions under the project?
6.

x
Yes
No
Which of the following actions did you carry out and how effective were they?
Not at all
effective




Very
effective
Design and implement an equal opportunity policy
x 
Set targets to achieve a gender balance in the workforce
x 
Organise conferences and workshops on gender
x 
Actions to improve work-life balance
x 
In all the actions of the project we tried to involve both men and women, without
Other:
making any discrimination
Was there a gender dimension associated with the research content – i.e. wherever people were
7.
the focus of the research as, for example, consumers, users, patients or in trials, was the issue of gender
considered and addressed?
 Yes- please specify
x
No
E
Synergies with Science Education
8.
Did your project involve working with students and/or school pupils (e.g. open days,
participation in science festivals and events, prizes/competitions or joint projects)?
Yes- please specify
x
Giving lectures at schools
No

9.
Did the project generate any science education material (e.g. kits, websites, explanatory
booklets, DVDs)?
Yes- please specify

No
Talks/slides: http://www.physics.usyd.edu.au/foundation.old/index_iss.html
Recorded lectures given to the Europrometa metamaterials education
program, http://school.metamorphose-vi.org (see the 13th school)
(see 17 schoo
F
Interdisciplinarity
10.
Which disciplines (see list below) are involved in your project?
 Main discipline17:

Associated discipline17:
 Associated discipline17:
G
Engaging with Civil society and policy makers
11a
Did your project engage with societal actors beyond the research
community? (if 'No', go to Question 14)

x
Yes
No
11b If yes, did you engage with citizens (citizens' panels / juries) or organised civil society
(NGOs, patients' groups etc.)?
 No
 Yes- in determining what research should be performed
 Yes - in implementing the research
 Yes, in communicating /disseminating / using the results of the project
17
Insert number from list below (Frascati Manual).

Yes
11c In doing so, did your project involve actors whose role is mainly to

No
organise the dialogue with citizens and organised civil society (e.g.
professional mediator; communication company, science museums)?
12. Did you engage with government / public bodies or policy makers (including international
organisations)




No
Yes- in framing the research agenda
Yes - in implementing the research agenda
Yes, in communicating /disseminating / using the results of the project
13a Will the project generate outputs (expertise or scientific advice) which could be used by
policy makers?
 Yes – as a primary objective (please indicate areas below- multiple answers possible)
 Yes – as a secondary objective (please indicate areas below - multiple answer possible)
 No
13b If Yes, in which fields?
Agriculture
Audiovisual and Media
Budget
Competition
Consumers
Culture
Customs
Development Economic and
Monetary Affairs
Education, Training, Youth
Employment and Social Affairs
Energy
Enlargement
Enterprise
Environment
External Relations
External Trade
Fisheries and Maritime Affairs
Food Safety
Foreign and Security Policy
Fraud
Humanitarian aid
Human rights
Information Society
Institutional affairs
Internal Market
Justice, freedom and security
Public Health
Regional Policy
Research and Innovation
Space
Taxation
Transport
13c If Yes, at which level?
Local / regional levels
x
National level
x
European level
x
International level
x
H
Use and dissemination
14.
How many Articles were published/accepted for publication in
peer-reviewed journals?
To how many of these is open access18 provided?
138
138
How many of these are published in open access journals?
0
How many of these are published in open repositories?
138 (at project webpage)
To how many of these is open access not provided?
0
Please check all applicable reasons for not providing open access:
 publisher's licensing agreement would not permit publishing in a repository
 no suitable repository available
 no suitable open access journal available
 no funds available to publish in an open access journal
 lack of time and resources
 lack of information on open access
 other19: ……………
How many new patent applications (‘priority filings’) have been made?
15.
0
("Technologically unique": multiple applications for the same invention in different
jurisdictions should be counted as just one application of grant).
16.
Indicate how many of the following Intellectual
Property Rights were applied for (give number in
each box).
Trademark
Registered design
Other
17.
How many spin-off companies were created / are planned as a direct
result of the project?
0
Indicate the approximate number of additional jobs in these companies:
18. Please indicate whether your project has a potential impact on employment, in comparison
with the situation before your project:

Increase in employment, or
In small & medium-sized enterprises
x

In large companies
 Safeguard employment, or

Decrease
in
employment,
None of the above / not relevant to the project

 Difficult to estimate / not possible to quantify
18
Open Access is defined as free of charge access for anyone via Internet.
19
For instance: classification for security project.
19. For your project partnership please estimate the employment effect
resulting directly from your participation in Full Time Equivalent (FTE =
one person working fulltime for a year) jobs:
Indicate figure:
Difficult to estimate / not possible to quantify

12
I
Media and Communication to the general public
20.
As part of the project, were any of the beneficiaries professionals in communication or
media relations?
Yes
x
 No
21.
As part of the project, have any beneficiaries received professional media / communication
training / advice to improve communication with the general public?
Yes
x
 No
22
Which of the following have been used to communicate information about your project to
the general public, or have resulted from your project?
x
x

x
x

23
Press Release
Media briefing
TV coverage / report
Radio coverage / report
Brochures /posters / flyers
DVD /Film /Multimedia

x
x
x


Coverage in specialist press
Coverage in general (non-specialist) press
Coverage in national press
Coverage in international press
Website for the general public / internet
Event targeting general public (festival, conference,
exhibition, science café)
In which languages are the information products for the general public produced?

x
Language of the coordinator
Other language(s) (Greek, Germany, Turkish)
x
English
Question F-10: Classification of Scientific Disciplines according to the Frascati Manual 2002 (Proposed
Standard Practice for Surveys on Research and Experimental Development, OECD 2002):
FIELDS OF SCIENCE AND TECHNOLOGY
1.
1.1
1.2
1.3
1.4
1.5
2
2.1
NATURAL SCIENCES
Mathematics and computer sciences [mathematics and other allied fields: computer sciences and other
allied subjects (software development only; hardware development should be classified in the
engineering fields)]
Physical sciences (astronomy and space sciences, physics and other allied subjects)
Chemical sciences (chemistry, other allied subjects)
Earth and related environmental sciences (geology, geophysics, mineralogy, physical geography and
other geosciences, meteorology and other atmospheric sciences including climatic research,
oceanography, vulcanology, palaeoecology, other allied sciences)
Biological sciences (biology, botany, bacteriology, microbiology, zoology, entomology, genetics,
biochemistry, biophysics, other allied sciences, excluding clinical and veterinary sciences)
ENGINEERING AND TECHNOLOGY
Civil engineering (architecture engineering, building science and engineering, construction engineering,
municipal and structural engineering and other allied subjects)
2.2
2.3.
3.
3.1
3.2
3.3
4.
4.1
4.2
Electrical engineering, electronics [electrical engineering, electronics, communication engineering and
systems, computer engineering (hardware only) and other allied subjects]
Other engineering sciences (such as chemical, aeronautical and space, mechanical, metallurgical and
materials engineering, and their specialised subdivisions; forest products; applied sciences such as
geodesy, industrial chemistry, etc.; the science and technology of food production; specialised
technologies of interdisciplinary fields, e.g. systems analysis, metallurgy, mining, textile technology
and other applied subjects)
MEDICAL SCIENCES
Basic medicine (anatomy, cytology, physiology, genetics, pharmacy, pharmacology, toxicology,
immunology and immunohaematology, clinical chemistry, clinical microbiology, pathology)
Clinical medicine (anaesthesiology, paediatrics, obstetrics and gynaecology, internal medicine, surgery,
dentistry, neurology, psychiatry, radiology, therapeutics, otorhinolaryngology, ophthalmology)
Health sciences (public health services, social medicine, hygiene, nursing, epidemiology)
AGRICULTURAL SCIENCES
Agriculture, forestry, fisheries and allied sciences (agronomy, animal husbandry, fisheries, forestry,
horticulture, other allied subjects)
Veterinary medicine
5.
5.1
5.2
5.3
5.4
SOCIAL SCIENCES
Psychology
Economics
Educational sciences (education and training and other allied subjects)
Other social sciences [anthropology (social and cultural) and ethnology, demography, geography
(human, economic and social), town and country planning, management, law, linguistics, political
sciences, sociology, organisation and methods, miscellaneous social sciences and interdisciplinary ,
methodological and historical S1T activities relating to subjects in this group. Physical anthropology,
physical geography and psychophysiology should normally be classified with the natural sciences].
6.
6.1
HUMANITIES
History (history, prehistory and history, together with auxiliary historical disciplines such as
archaeology, numismatics, palaeography, genealogy, etc.)
Languages and literature (ancient and modern)
Other humanities [philosophy (including the history of science and technology) arts, history of art, art
criticism, painting, sculpture, musicology, dramatic art excluding artistic "research" of any kind,
religion, theology, other fields and subjects pertaining to the humanities, methodological, historical and
other S1T activities relating to the subjects in this group]
6.2
6.3