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Douglas R. McCarter

Douglas R. McCarter

Vice-President and Co-Founder McCarter Technology, Inc., USA USA

Manijeh Razeghi

Manijeh Razeghi

Director Northwestern University USA USA

Paul Michael Petersen

Paul Michael Petersen

Professor Technical University of Denmark Denmark Denmark

Sergey Mirov

Sergey Mirov

Professor University of Alabama USA USA

Vladimir Falko

Vladimir Falko

Professor Lancaster University United Kingdom UK

Mahi R Singh

Mahi R Singh

Professor University of Western Ontario Canada Canada

J.K. Heinrich Hoerber

J.K. Heinrich Hoerber

Professor University of Bristol United Kingdom UK

Devki N. Talwar

Devki N. Talwar

Professor Indiana University of Pennsylvania USA USA

Opticsphotonics-2018

About OPTICSPHOTONICS2018

                           OPTICSPHOTONICS 2018     

With the successful journey of Optics 2017 conferences in  Las Vegas, USA, ConferenceSeries Ltd planned to continue its Optics conference series saga in Bucharest, Romania during November 22-24,2018. On behalf of the Organizing Committee of “9th World Congress and Expo on Optics, Photonics and Telecommunication,” all the researchers, developers, and experts are warmly welcome from the field of Light and Communication to attend. Our aims are to unite all the people engaged in this enormous field and exchange the knowledge, discuss and look forward to the new way by interfacing new thoughts, also upgrading the limits of the future technology.

OpticsPhotonics2018 will create a platform to meet the renowned scientist, Innovators, industrialist and student of this field and explore the vast topic of Light by sharing and learning.  The OpticsPhotonics2018 will be composed around the theme “Enlighten the Spectrum of Light”.

Optics is the science of light particularly, optics is a section of physics describing how light behaves and interacts with matter, involving the behaviour and properties of light, including its interactions with matter and the construction of instruments that use and detect the light.

Photonics is the technology of generating and harnessing light and other forms of radiant energy whose quantum unit is the photon, covering all light's technical applications over the whole spectrum; most photonic applications are in the scope of visible and near-infrared light.

Telecommunication is a vast range of transmission or exchange of signals/ information/ data by electronics means between themselves, it may be wired or wireless.

The OpticsPhotonics2018constitutes of Sessions like Keynote Speeches, Oral Presentations, Poster Presentations, Universal Workshops, B2B Meetings, Panel Discussions, Q&A sessions, Industry expert interactions. There are awards for some categories like Best Poster, Best Oral presentation, Young Researcher Forums (YRF), e-Poster presentations, Video presentations by the experts from both Industry & Academic.

OpticsPhotonics2018 unites specialists, leading researchers, scholars, scientists, educators from the different Engineering fields, and other related zones to connect and trade thoughts regarding the best in class advances identified with Optics, Photonics and Telecommunication. The conference will also provide an insightful understanding of the issues arising out of the Light and the future concern and remedies from that. OpticsPhotonics2018 provides an Opportunity to interact with eminent Scientists, researchers, Business Leaders, experts from all over the world.

9th World Congress and Expo on Optics, Photonics and Telecommunication 2018 invite all interested participants to join us for this esteemed event at the exquisite destination Romania, Europe. For more information: conferenceseries.com

Why to Attend?

9th World Congress and Expo on Optics, Photonics and Telecommunication, is among the World's leading technical Conference. The three-day event on optics, photonics and telecommunication will host 60+ Scientific and technical sessions and sub-sessions on cutting-edge research and latest research innovations in the field of Light across the globe. Optics, Photonics and Telecommunication 2018 will comprises of 18 major sessions designed to offer comprehensive sessions that address current topics in the various field of Light.

The attendees can find exclusive sessions and panel discussions on latest innovations in Optics, Photonics and Telecommunication by:

Target Audience

  •          Researchers
  •          Scientists
  •          Smart innovators
  •          Space science Engineers
  •          Mechanical Engineers
  •          Electrical engineers
  •          Computer science engineers
  •          Robotic technologist
  •          Design Engineers
  •          Gaming professionals
  •          Automation industry leaders
  •          Healthcare service providers
  •          Defence Research Professionals
  •          Automation industry leaders
  •          Managers & Business Intelligence Experts
  •          Advertising and Promotion Agency Executives
  •          Professionals in media sector
  •          Professors
  •          Students

Conference Sponsor and Exhibitor Opportunities

The Conference offers the opportunity to become a conference sponsor or exhibitor.

Sessions/Tracks

 

Highlights of latest advances in Optics, Photonics and Telecommunications

Track 1: Optics

Optics is the outlet of physics that involves the properties of light and behavior, as well as its interactions with matter and additionally the development of instruments that use or understand it. it always describes the behaviour of ultraviolet, infrared and visual light. Because the light is an electromagnetic radiation like microwaves, radio waves exhibit similar properties and X-rays.

Optical phenomena may be accounted for exploitation classical electromagnetic rationalization of light. The entire electromagnetic descriptions of light are usually difficult to use in practice. Sensible optics is sometimes done using simplified models. Physical optics could be a additional comprehensive model of light, which includes wave effects like optical phenomenon and interference that can't be accounted for in geometric optics. In general, geometric optics treats light as a group of rays that travel in straight lines and bend once they are going through or replicate from surfaces.  Normally, the ray-based model of light was developed 1st, followed by the wave model of light. Progress in electromagnetic theory within the 19th century LED to the invention that light waves were actually radiation.

  • Tissue optics
  • Optical coherence tomography
  • Biomedical Optics
  • Optical instruments
  • Visual effects
  • Photography
  • Telescope
  • Optical microscopes
  • Geometrical optics
  • Optical lenses
  • Optical computing Photonics for energy
  • Photonic and optoelectronic materials and devices
  • Communications and switching photonics
  • Ultrafast electronics, photonics and optoelectronics
  • Green Photonics
  • Photodetectors, sensors and imaging
  • Fiber optics devices
  • Nonlinear optics and photonics
  • Microwave photonics
  • Optogenetics
  • Optofluidics

Track 2: Optical Communication and Networks

Optical communications networks are enhancing an important role like there is high demand for capability links. DWDM which implies dense wavelength division multiplexing is widely deployed at the core networks to deliver high capability transport systems. Optical elements like tunable filters, termination devices, optical amplifiers transceivers, and add-drop multiplexers have become a lot of trustworthy and reasonable. Access network and metropolitan space networks are progressively built with optical technologies to beat the electronic blockage at network edges. Subsystems and new parts for terribly high-speed optical networks provide a brand-new design option. Free-space optical communication has been organized in space, whereas terrestrial forms are naturally restricted by weather, earth science and therefore the convenience of light Fibre optics communication.

  • Optical signal communication
  • Design management and optical networks
  • Novel optical networks elements
  • Optical fibre manufacturers and business analysis
  • Advances in optical fibre communication

Track 3: Special issue on optoacoustic imaging and sensing

Optoacoustic or photoacoustic imaging involves the generation of ultrasound waves by transient light absorption. It is attractive from a biological perspective as it is insensitive to photon scattering within biological tissue and has non-invasive medical imaging capabilities. The power of the technique is that it draws upon the advantages of high optical absorption contrast and deep ultrasonic penetration to enable high-resolution optical visualization deep within tissue, giving it a potential edge over other high-resolution optical imaging modalities. It is also very versatile as a method and is the relatively low cost to implement. Thus, it has emerged as an important tool in biological and clinical applications.

The aim of this special issue is to provide an up-to-date picture of recent improvements in the capabilities of optoacoustic systems, such as through advances in technology, detection strategies and inversion techniques. It will also cover applications of the method across microscopy, tomography and sensing.

  • Biomedical imaging
  • Photoacoustic computed tomography
  • General equation
  • Universal reconstruction algorithm
  • Simple system
  • Biomedical applications
  • Brain lesion detection
  • Hemodynamics monitoring
  • Breast cancer diagnosis
  • Photoacoustic microscopy

Track 4: Semiconductor nanostructures for optoelectronics

Semiconductor nanostructures are part of an emergent class of materials that provide unprecedented levels of functionality in building devices for electronics and optoelectronics applications. Associated Nanoscale devices may be used to study new physics in low-dimensional systems and enable a route for the development of new technologies in key areas, such as communications and information processing, sensing and renewable energy as well as biomedicine.

This symposium was the fourth instalment of a highly successful biennial series that began in 2007. Bringing together researchers working in academia and industry, it presented the latest research in semiconductor Nanostructures and their applications to electronic, optoelectronic and photonic devices. Blending experimental with numerical and theoretical approaches, it covered all aspects of fundamental growth and material development, to interfaces, device integration and testing.

Track 5: Quantum optics

A quantum detector could be a device that exploits quantum correlations, like a quantum trap, to attain a sensitivity or resolution that's higher than will be achieved exploitation only classical systems. A quantum device will measure the impact of the quantum state of another system on itself. The mere act of measure influences the quantum state and alters the likelihood and uncertainty related to its state throughout measuring. The Defense, Advanced analysis comes Agency has recently launched a search program in optical quantum sensors that seeks to use concepts from quantum science and quantum imaging, like quantum lithography and also the noon state, so as to attain these goals with optical sensing element systems like measuring system. Quantum detector is additionally a term utilized in different settings wherever entangled quantum systems are exploited to form higher atomic clocks or a lot of sensitive magnetometers. The marketplace for a quantum dots primarily based product, such as new tv screens, is projected to achieve $3.5 billion by 2020. The bulk of this growth can return from enlarged demand in the United States.

Track 6: Spectroscopy

Spectroscopy and spectrography are for the measurement of radiation intensity as a function of wavelength and used to describe experimental spectroscopic methods. Spectral measurement devices are referred to as spectrometers, spectrophotometers, spectrographs or spectral analyzers.

Spectroscopy is the study of materials interaction with light, generally through absorption, scattering or transmission and is a very powerful tool in material science.  The amount of material interaction depends on the energy, or wavelength of light and can provide a wealth of information about that material’s physical properties.

  • IR Spectroscopy, Soil Analysis Applications,
  • Structural and Mechanistic Enzymology
  • Electronic Spectroscopy, Environmental Applications
  • Rotational coherence spectroscopy
  • Terahertz and far-infrared spectroscopy
  • Laser spectroscopy in medical diagnostics
  • Neuroimaging
  • Magnetic resonance spectroscopy
  • Luminescence spectroscopy

Track 7: Optoelectronics

Optoelectronics is that the study and application of electronic devices and systems that supply, observe and control light. Light source is used in optoelectronics and optical fibre telecommunication for information transmission. In optical fibre interferometers, optical fibre lasers, sensors and fibre modulators. Light defines solely the electro-magnetic radiation from the visibleness of 380-780 nm, whereas in several applications. Light-detecting devices are often used for light sensing and communication. Samples of these embrace darkness-activated switches and remote controls. In normal terms, light-detecting devices work by exploitation photons to liberate bound electrons among semiconductor materials. Light-emitting devices use voltage and current to provide radiation (i.e., light). Such light-emitting devices are usually used for functions of illumination or as indicator lights. In distinction, light-detecting devices, like phototransistors are designed to convert received magnetic attraction energy into electrical phenomenon or voltage. Over a successive decade, the look of optoelectronics packaging would require vital changes to be efficient and simply factory-made.

Optoelectronic integrated circuits Photoelectric or photovoltaic effect, used in photodiodes (including solar cells), phototransistors, photomultipliers, optoisolators, and Integrated Optical Circuit (IOC) elements. The Optoelectronics market is expected to grow at a CAGR of 18% from 2012 to 2020 and reach $4.21 billion in 2020.

  • Optoelectronics business opportunities
  • Optoelectronic devices and materials
  • Semiconductor materials and applications
  • MEMS and NEMS
  • Optoelectronic Instrumentation, measurement and metrology
  • Optical fibre sensors/detectors
  • Semiconductor nanostructures for electronics and optoelectronics
  • Photoelectric or photovoltaic effect
  • Photodiodes (including solar cells)
  • Phototransistors
  • Photomultipliers
  • Optoisolators
  • Integrated optical circuit (IOC) elements

Track 8: Photonics

Photonics is the generation, transmission, and utilization of light and other electromagnetic radiation. Photonics offers solutions to the global challenges of our time. Photonics is considerable for future potential, Health, communication, information, mobility, energy, security, climate, sustainability.

Generated power of the Berkeley laboratory laser Accelerator 10 lakh gigawatts. The Photonics has been fancied over the last twenty years with the goal to outline the sphere of Optics, this is often created potential through the concentration of optical device power to very short pulses. Optoelectronic phenomena and its applications by one word almost like the terribly effective field of physical science.

This photonics has undistributed superposition, Dozens of data signals can be coupled into one single optical fibre and be separated again at the receiver’s end. The signals can be very finely distinguished based on their wavelength (spectral colour), polarization, and phase.

  • Photonics crystals and photonic crystal fibres
  • Photodetectors/ sensors and imaging
  • Photonics and ultrafast electronics
  • Photonics materials and devices

Track 9: Advancements in photonics

Photonics science includes the discharge, generation, variety, transmission; signal processing, strengthening, swapping, and exposure/sensing of light. It is also related to the emerging science of quantum information. In the early 1960s the term photonics developed from the first practical semiconductor, light emitters invented, and optical fibres developed in the 1970s.

Photonic atomic devices applications are developed in different fields such as precision timekeeping, metrology, navigation and Polaritonics, Polariton which is a mixture of phonons and photons will carry the fundamental information in the photonics. In the range of frequencies from 300 gigahertz to almost 10 terahertz. Most photonic applications are in the range of near-infrared light and visible. Other emergent fields include opto-atomics, in which it integrates both photonic and

  • Remote Sensing and Sensors
  • Diffraction and Gratings
  • Fourier Optics and Signal Processing
  • Power photonics and green photonics
  • Display technology

Track 10: Microwave Photonic Subsystems.

Microwaves are essential for correspondences, and frameworks for recognizing microwaves are vital for space science. Microwave Photonics (MWP) involves interactions between the RF/microwave/ millimetre-wave and the optical portions of the electromagnetic spectrum. Photonics is utilized for the generation, transmission, detection, processing, and control of microwave signals with direct applicability to antenna systems (e.g., wireless and array), sensing, and instrumentation. This technology also makes it possible to have functions in microwave systems that are complex or even not possible in the radio-frequency domain and also creates new opportunities for telecommunication networks.

Microwave Photonic Systems, Inc. is a high-tech full service design and  integration engineering firm that specializes in the design, development and manufacture of Radio Frequency / Microwave and Fiber Optic components and systems.  

  • Signal Processing Subsystems for RF Photonics
  • A Silicon Integrated Microwave-Photonic Transceiver
  • RF photonic techniques
  • Simultaneous transmit and receive (STAR)
  • wideband EW receivers

Track 11: Optics in Medicine

Since ancient times, Optics being used as an aid for the examination of patients and in some beneficial treatments. Many of the optic medical instruments in use today raised to developed in the nineteenth century and, with the advent of optical fibers and laser sources in the mid-twentieth century, a new generation of medical devices, instruments, and techniques have been developed that have helped modernize medicine and perform task unimaginable only a few decades ago. This chapter illustrates—through several optical instrument and application examples—the uses, benefits, and future prospects that optics brings as an enabling technology to the medicine and the overall healthcare industry.

  • Optometry
  • Clinical technologies and systems
  • Biomedical spectroscopy
  • Artificial vision and colour
  • Tissue optics
  • Optical coherence tomography
  • Biomedical Optics
  • Optoacoustic imaging of biological tissues

Track 12: Technologies in optics and photonics

Optical technology can further the fields of medicine, science and engineering through the development and application of new technologies. The process of transmitting information from one place to another place by transferring pulses of light through an optical fibre is known as fibre optic communication. Many telecom companies use Optical fibre to forecast Internet communication, telephone signals, and cable television signals. Semiconductor lasers/laser diodes play a dynamic role in our everyday lives by providing economy and compact-size lasers. They contain complex multi-layer structures requiring elaborate design and nanometer scale accuracy.

Likewise, optical device and optical technology will more the fields of medication, science and engineering through the event and application of latest technologies. Liquid-crystal display. In an optical device and optical technologies, professionals channel these beams to be used in scientific instruments, engineering, medicine analysis, communication and medication. Lasers emit high-intensity light beams.

  • Liquid-crystal display
  • Light-emitting diodes
  • Lasers and fibre optics
  • Charge-coupled devices
  • Diffractive and Holographic Optics
  • Laser measurement technology
  • Optical analytics
  • Data processing systems
  • Laser material processing
  • Semiconductor technology
  • Nonlinear optics
  • Solid state lasers
  • Solar energy
  • Production measurement technology
  • Image processing

Track 13: Optoelectronics

Optoelectronics is that the study and application of electronic devices and systems that supply, observe and control light. A light source is used in optoelectronics and optical fibre telecommunication for information transmission. In optical fibre interferometers, optical fibre lasers, sensors and fibre modulators. Light defines solely the electromagnetic radiation from the visibleness of 380-780 nm, whereas in several applications. Light-detecting devices are often used for light sensing and communication. Samples of these embrace darkness-activated switches and remote controls. In normal terms, light-detecting devices work by exploitation photons to liberate bound electrons among semiconductor materials. Light-emitting devices use voltage and current to provide radiation (i.e., light). Such light-emitting devices are usually used for functions of illumination or as indicator lights. In distinction, light-detecting devices, like phototransistors are designed to convert received magnetic attraction energy into electrical phenomenon or voltage. Over a successive decade, the look of optoelectronics packaging would require vital changes to be efficient and simply factory-made.

Optoelectronic integrated circuits Photoelectric or photovoltaic effect, used in: photodiodes (including solar cells), phototransistors, photomultipliers, optoisolators, and Integrated Optical Circuit (IOC) elements. The Optoelectronics market is expected to grow at a CAGR of 18% from 2012 to 2020 and reach $4.21 billion in 2020.

  • Optoelectronics business opportunities
  • Optoelectronic devices and materials
  • Semiconductor materials and applications
  • MEMS and NEMS
  • Optoelectronic Instrumentation, measurement and metrology
  • Optical fibre sensors/detectors
  • Semiconductor nanostructures for electronics and optoelectronics
  • Photoelectric or photovoltaic effect
  • Photodiodes (including solar cells)
  • Phototransistors
  • Photomultipliers
  • Optoisolators
  • Integrated optical circuit (IOC) elements

Track 14: Optical Telecommunications

A method of transmitting information from one place to another by sending pulses of light through an optical fiber is known as Optical telecommunication. Light makes an electromagnetic carrier wave that is modulated to carry information. High bandwidth, long distance, or immunity to electromagnetic interference is required for the electrical cabling over a fiber optical media. In many telecommunications companies to transmit telephone signals, Internet communication, and cable television signals Optical fiber is used. At Bell Labs researchers have reached internet speeds of over 100 petabytes per second using fiber-optic communication.

Companies like AT&T, MCI, and U.S. Sprint use optical fibre cable to hold plain old telephone company (POTS) across their nationwide networks. Since its invention within the early Seventies, the utilization of and demand for optical fibre have full-grown hugely. The uses of fiber these days are quite varied. With the explosion of data traffic because of the web, electronic commerce, pc networks, multimedia, voice, data, and video, the requirement for a transmission medium with the bandwidth capabilities for handling such large amounts of data is overriding. native telephone company providers use fiber to hold this same service between office switches at additional native levels, and generally as so much as the neighbourhood or individual home. fibre is also used extensively for transmission of information signals. Fiber optics, with its relatively infinite bandwidth, has proved to be the solution.

  • Semaphore line
  • Semaphore signal flags
  • Optical fiber
  • Signal lamps
  • Photophone
  • Free-space optical communication
  • Heliograph

Track 15: Optical sensors technologies and types

Taking advantage of the ability of optical fibers to transmit and receive optical signals over vast distances, a current trend is to form systems of sensors, or sensing element arrays. This avoids having to convert between physical science and photonics individually at every sensing places, thereby reducing prices and increasing flexibility. As indicated earlier, most sensors these days involve the utilization of fibers somewhere within the technique and are remarked as optical fiber sensors. Optical sensors create use of a similar physical phenomenon to perform their sensing operation but involve no fibre. They instead consider lens or mirror systems to transmit and manipulate the beams of light utilized in their sensing process. The fiber and optical sensors field are active slightly over a decade, with the patent record starting earlier, as can be expected, and showing growth almost like that of publications.

For the foremost part, chemical sensors are samples of remote qualitative analysis using fiber optics as a relay vehicle. each absorption and visible radiation spectroscopy are used. Chemical testing has been demonstrated exploitation fibre-optic fluoroimmunoassay (FOFIA). during this technique, antigens specific for the antibodies to be detected are immobilized in proximity to a guided optical beam. The antibodies are labelled with fluorophores and allowed to bond to the antigens. temporary excitation of the fluorophores and/or the assortment of the resulting fluorescent radiation give for terribly sensitive observance techniques. In some tests, 10 -12 molar levels of creatine kinase (CK-MB) are detected.

  • Importance and role of optical fibres
  • Advantages and disadvantages of Optical Sensors
  • Chemical sensors
  • Temperature sensors
  • Promising new optical sensor technologies
  • Biomedical sensors and Strain sensors
  • Electrical and magnetic sensors
  • Rotation sensors and Pressure sensors
  • Displacement and position sensors
  • Acoustic and vibration sensors
  • Miscellaneous sensors
  • Special fibres for sensors
  • Light sources and Detectors

Track 16: Applied Industrial Optics

Optics is a branch of Physics that comprises of behaviour and characteristics of light, and relations with materials and the manufacture of tools that use or distinguish it. In general, optics defines the characteristics of visible, ultraviolet, and infrared (IR) light. As light is an electromagnetic radiation, other types of radiation like X -rays, microwaves, and radio waves display similar properties. Optics is a part of daily life. The ubiquity of visual systems in biology indicates the central role optics plays the science of one of the five senses. With advanced evolution in the optical sensors, consumer market players have offered power-efficient optical sensors. The Europe optical sensors market is expected to grow to USD 3.85 billion by 2018 at a CAGR of 5.73% over the period 2016-2021.With advanced evolution in the optical.

  • LED/Laser lighting
  • Optics and Energy
  • Autonomous/Automated Systems
  • Remote Sensing
  • Non-destructive Evaluation/Non-invasive testing
  • Biomimetic
  • Smartphone Optics
  • Wearable Technology

Track 17: Optical imaging and sensing

Optical imaging may be a technique to look at during a non-invading manner within the body, similar what's done with x-rays. But, not like x-rays, that use radiation, optical imaging uses light and therefore the special properties of photons to get elaborated images of organs and tissues yet as smaller structures together with cells and even molecules. These pictures are utilized by scientists for analysis and by clinicians for illness diagnosing and treatment. an optical device may be a device that converts light rays into electronic signals. the same as a photoresistor, it measures the physical amount of light and translates it into a form scan by the instrument. Generally, the optical sensing element is a component of a bigger system assimilating an instrument, a supply of light and therefore the sensing element itself. this can be usually connected to an electrical trigger, that reacts to a modification within the signal inside the light sensing element.3D Printed Optics and Additive Photonic Manufacturing

  • Digital Optics for Immersive Displays
  • Unconventional Optical Imaging
  • Optical Micro- and Nanometrology
  • Optics, Photonics and Digital Technologies for Imaging Applications
  • Optical Sensing and Detection
  • Imaging in Biology and Medicine

Track 18: Continuity of services and mobility

Internet Protocol (IP) is considered as the base element of all communications. Access technologies, such as LTE and GPON, accelerate this process. In addition, at the level of services, the IMS is also a key element which should gradually support major telecommunications services, as part of an overall development strategy of the current legacy networks, fixed and mobile, towards a NGN (Next Generation Network) architecture, providing universal services.

  • Framework technologies: LTE/EPC & IMS
  • Types and level of  mobility execution
  • Single Radio Voice Call Continuity

Track 19: Emergency communication system (ECS)

Quickly establishing a temporary communication system to support emergency management is one of the most urgent tasks in the disaster relief mission. To facilitate the rescue teams and victim people to communicate inside and outside the disaster site, this paper proposes an integrated communication system by composing heterogeneous wireless networks. Firstly, wireless sensor network (WSN) and mobile ad hoc network (MANET) are deployed on the disaster site for local communication and information collection. To communicate with the remote disaster-safe areas, satellite gateway is used for the local networks to interconnect with the satellite mobile network. Furthermore, cellular gateway is used as an alternative remote communication means when the expansion of local networks reaches a working cellular base station. The overall system architecture, the relevant network elements, and the methods of establishing and integrating them to be a mission system are described. The proposed system can help to reduce the network deployment time, support more terminal types, and provide emergency management services.

Track 20: Telecommunication Networks

While deployment of new network technologies has not been steady over the years, it is useful to take a long-term view of how major new telecommunications infrastructures evolve. A telecommunications network is a collection of terminal nodes, links are connected so as to enable telecommunication between the terminals. The transmission links connect the nodes together. Next Generation Network(NGN) is a concept for the defining and establishing of the networks, allowing a formal distribution of functionalities into separate layers and planes by using open interfaces, Since the beginning of this decade, we have witnessed the emergence of new generations of three major communication networks. The market conditions, technology innovations, and services driving the need for intelligent all-optical, 3G wireless, and QoS-based packet networks. Market forces such as traffic and subscriber growth, equipment cost reduction, and new technology penetration have a deep impact on network buildouts. Technology innovations abound, especially in the optical domain. For example, Raman amplification, pure optical switches, and tunable lasers have had a major impact on the architecture of optical networks. Many key services, such as streaming audio and high-quality image transfer, were not possible using wireless access because of its limited bandwidth and performance. With 3G wireless technology, a true mobile Internet will become a reality. Businesses have shied away from the use of the public Internet because of service quality.

  • Transmission networks
  • Signaling and Control
  • Data (packet) Switching and Routing
  • Mobile Switching systems and Network

Market Analysis

The worldwide fiber optics market trend was valued at USD 5.39k million in 2016 and is expected to understand traction over the forecast extent. The trade presents promising growth prospects across the forecast quantity in the assessment of a combination of things exactly increasing investments and analysis undertaken by notable players at intervals the business to develop and upgrade the optical technology application arena. Optical technology has gained prominence over the past few years, as a result of persistent analysis & development activities and so the escalating demand for high metric communication and information services.

                         

        Market Analysis of Optics from 2014 to 2025 in USD (millions)

 

 

If you're a telecommunication representative at this essential juncture, you wish to create 2 completely different moves at a similar time. First, begin the task of modernizing operations. Second, redefine your strategic identity (your price proposition) for the longer term — specifically; what you'll be able to expect to supply customers 5 or ten years from currently. It may well be — perhaps it should be — that after going through this journey, your company will look very different from today’s version.

 

US shoppers are gazing their devices over nine billion times daily within the combination up 13 % from last year. Smartwatch penetration doubled from 2014 to 2015 and tripled in 2016; smartwatches have currently penetrated roughly 12 % of the mobile client market within the USA. However, in 2017 we have a tendency to may even see a shift toward areas with a better growth potential that goes well on the far side carriers’ core property business.

 

In addition, there are innovative things in store in terms of communications to appear forward to the present year as well. The telecom business itself survives by the tagline, where you go, our network follows. This sturdy and reliable network can still follow the United States through 2017 similarly. Network providers are the endeavor to form 5G a reality as shortly as potential. Telco’s around the world have already developed the 5G design and have initiated the workplace and field trials for the essential property parts within their race to achieve a competitive advantage in the market. The promise of 5G – more speed, larger potency and fewer latency- are a significant push for connected things within the future.

    

The IT and Telecommunications business faces substantial changes that end in intense competition and continuous want for innovation. At Infiniti, we've got a large vary of industry-leading solutions to assist purchasers to track key developments in these markets, adapt to changes and thereby guaranteeing they maintain a competitive advantage. These solutions together with our team of specialists provide a comprehensive view of the market landscape, to assist clients to create effective business decisions, in order to grow, expand, diversify, tackle competition and mitigate risks.

New Updates: Optics, Photonics and Telecommunication

Super-resolution microscopy in both space and time

Summary: In a breakthrough the first microscope platform that can perform super-resolution spatial and temporal imaging, capturing unprecedented views inside living cells are developed for biological imaging, scientists.

 

Super-resolution microscopy is a technique that can "see" over the diffraction of light, providing unrivalled views of cells and their interior structures and organelles. The technique has garnered increasing interest recently since its developers won the Nobel Prize in Chemistry in 2014.

But super-resolution microscopy comes with a big limitation: it only offers the spatial resolution. That may suffice for static samples, like solid materials or fixed cells, but when it comes to biology, things become more complicated. Living cells are highly dynamic and depend on a complex set of biological processes that occur across sub-second timescales, constantly changing. So if we are to visualize and understand how living cells function in health and disease, we need a high time (or "temporal") resolution as well.

IDC has provided a detailed look at the technology investments associated with a range of smart city priorities and use cases. As these initiatives gain traction, IDC expects spending to accelerate over the 2016-2021 forecast period, growing to $135 billion in 2021.

Smart cities have recently evolved from a collection of discrete flagship projects to a sizeable market opportunity that will drive significant technology investments in 2018 and beyond," said Serena Da Rold, program manager at IDC

Technique to see objects hidden around corners

A driverless car is making its way through a winding neighborhood street, about to make a sharp turn onto a road where a child's ball has just rolled. Although no person in the car can see that ball, the car stops to avoid it. This is because the car is outfitted with extremely sensitive laser technology that reflects off nearby objects to see around corners.

 

This scenario is one of many that researchers at Stanford University are imagining for a system that can produce images of objects hidden from view. They are focused on applications for autonomous vehicles, some of which already have similar laser-based systems for detecting objects around the car, but other uses could include seeing through foliage from aerial vehicles or giving rescue teams the ability to find people blocked from view by walls and rubble.

"It sounds like magic but the idea of non-line-of-sight imaging is actually feasible," said Gordon Wetzstein, assistant professor of electrical engineering and senior author of the paper describing this work, published March 5 in Nature.

 

 

Seeing the unseen

The Stanford group isn't alone in developing methods for bouncing lasers around corners to capture images of objects. Where this research advances the field is in the extremely efficient and effective algorithm the researchers developed to process the final image.

 

Optical distance measurements made at record high speed

A team of scientists from the Karlsruhe Institute of Technology (KIT) and École Polytechnique Fédérale de Lausanne (EPFL) have demonstrated what they call “the fastest distance measurement achieved so far.

The researchers demonstrated on-the-fly sampling of a 150m/s speeding gun bullet profile with micrometer accuracy. The experiment relied on a soliton frequency comb generated in a chip-based optical microresonator made from silicon nitride. Potential applications comprise real-time 3D cameras based on highly precise and compact LIDAR systems. The work has been reported in Science.

Silicon nitride microresonator

The concept crucially relies on high-quality silicon nitride microresonators with ultra-low losses, which were produced at EPFL’s Centre of MicroNanotechnology. “We have developed low-loss optical resonators, in which extremely high optical intensities can be generated – a prerequisite for soliton frequency combs,” said Professor Kippenberg. “These so-called Kerr frequency combs have rapidly found their way into new applications over the previous years.”

 

In their demonstrations, the researchers combined findings from different areas. “In the past years, we have extensively studied methods for ultra-fast communications using chip-scale frequency comb sources,” said Profesor Koos. “We now transfer these results to another research area – optical distance measurements.”

Further work

The scientists consider their experiment to be a first demonstration of the measurement technique. Although the demonstrated combination of precision and speed in the ranging experiment is an important milestone in itself, the researchers aim at carrying the work further and at eliminating the remaining obstacles towards technical application.For instance, the range of the method is still limited to typical distances of less than one meter.

 

The envisaged sensors might serve a wide variety of applications, such as for high-throughput in-line control of high-precision mechanical parts in digital factories, replacing state-of-the-art inspection of a small subset of samples by laborious distance metrology. The researchers add that the LIDAR concept might pave the path towards high-performance 3D cameras in microchip format, which may find widespread applications in autonomous navigation.

Sending Photons Round the Bend

Quantum optical devices, such as those used in quantum simulation and sensing, depend on the reliable transit of single photons. Each photon is important, so minimizing the number that get deflected is critical. Researchers from the Joint Quantum Institute (JQI), University of Maryland, USA, have recently demonstrated a photonic chip that both generates and steers single photons making sure they don’t get lost en route—even when that route goes around corners.

Leveraging topological order

The JQI team’s chip is a GaAs photonic crystal with embedded InAs quantum dots that act as emitters. Photonic crystals can be used to guide and control light by changing the size, pattern, and distribution of holes within their structure to create conduits. Any flaws in the structure, however, can alter the light’s intended path.

The JQI team has overcome this, not by creating a flawless structure, but by changing the topology, or shape and pattern of holes. The researchers constructed two lattices composed of triangular holes with different spacing and, therefore, different band gaps.

The boundary between the two structures where the band gaps overlap traps the photons emitted by the quantum dots in helical edge modes that propagate along the interface. When the researchers shone a pump laser on the center of the device to prompt emission from the quantum dots, they confirmed that the emitted light was collected at the left and right edges of the, initially straight, interface.

One-way street

 

Photons with one polarization coupled with the topological helical edge mode and were collected at the right edge of the interface, while photons with the opposite polarization travelled in the other direction. The interface thus can act as a sort of one-way street for polarized light.

After introducing a 60-degree bend in the structure, the team performed the same measurement, with the same result, proving that the structure minimizes deflection of the photons. If the photons had been scattered or reflected at the bend, as might be expected, the researchers would have measured fewer photons of one polarization at the edge after the bend, and a mixture of both transmitted and reflected polarizations at the other edge. Instead, the photons remained coupled with the helical edge modes, a sign that they continued along the same path as they had before the bend was introduced.

 

Protective environment

 

This design incorporates well-known ideas that protect the flow of current in certain electrical devices," said Mohammad Hafezi, JQI Fellow and one of the study’s lead authors. "Here, we create an analogous environment for photons, one that protects the integrity of quantum light, even in the presence of certain defects."

Because the arrangement of holes is flexible, the researchers say their result could enable systematic assembly of photon pathways and new types of optical devices that take advantage of tailored interactions between quantum emitters and other kinds of matter. 

E.U. Accelerator Targets Robotics

A recently formed “pan-European” accelerator, backed by €8 million in funds under the European Commission’s Horizon 2020 framework, will focus, over the next three years, on helping startups and small/medium-sized enterprises (SMEs) in robotics-related areas to bring innovative technologies to market.

The accelerator, christened Robot Union, begins the first of two open call for startup/SME applicants in April 2018. The 20 firms selected in the first round will each receive an equity-free investment of up to €223,000 and participate in an intensive “premium acceleration service” lasting six to twelve months. And the two best-performing companies in Robot Union will be eligible for an additional €1 million in venture funding.

 

Nokia is creating value and developing strong use cases for 5G & IoT

 

Nokia recently opened the doors to its flagship office complex, marking a consolidation of its existing facilities in Fleet, Newbury, and Swindon to its new offices at Arlington Business Park in Theale, Berkshire. 

 

Cormac Whelan, who is CEO of Nokia UK & Ireland, personally launched the site at an opening ceremony in February. Speaking exclusively to Capacity, Whelan explains the significance of the new facility and why it was necessary to consolidate in the first place, by saying: “The new facility, being more centrally located to our UK customer base, consolidates regional sites and will form the strategic epicentre for Nokia’s regional activity.” 

 

As for the future opportunities the new site will bring, Whelan explains: “With new and evolved facilities, such as our expanded cloud demo center, the building will also allow us to develop our capacity to showcase a broad portfolio of technology and solutions in a collaborative environment.” 

 

U.K. Confirms £20 Million in Quantum Pioneer Funding

The government of the United Kingdom has confirmed that it will make £20 million (US$28.1 million) in “pioneer funding” available to support R&D on three to five “prototype quantum-enabled devices” that could find a place in future sensor technology, navigation systems and other areas.

The £20 million investment is part of the Industrial Strategy Challenge Fund, a broad U.K. government effort to spur technology transfer from basic research to applications, to “put the U.K. at the forefront of the industries of the future.” The Challenge Fund is organized around four so-called Grand Challenges: growing the artificial-intelligence- and data-driven economy; clean growth; the future of mobility; and an aging society.

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New highways to have ducts for telecom lines

The Indian government is working on a plan to construct dedicated ducts along new highways for laying optical fibre lines for telecom and power lines, among others. 

Sources said the road transport ministry has agreed to provide land along the greenfield highways to the telecom department for this purpose. 

TOI has learnt that the telecom department will bid out the stretches for building the ducts to private players and they will be responsible for maintaining the facilities. 
 

Read more at:
//economictimes.indiatimes.com/articleshow/63920864.cms?utm_source=contentofinterest&utm_medium=text&utm_campaign=cppst

 

Harvesting clean hydrogen fuel through artificial photosynthesis

A new, stable artificial photosynthesis device doubles the efficiency of harnessing sunlight to break apart both fresh and salt water, generating hydrogen that can then be used in fuel cells.

The device could also be reconfigured to turn carbon dioxide back into fuel.

Hydrogen is the cleanest-burning fuel, with water as its only emission. But hydrogen production is not always environmentally friendly. Conventional methods require natural gas or electrical power. The method advanced by the new device, called direct solar water splitting, only uses water and light from the sun.

"If we can directly store solar energy as a chemical fuel, like what nature does with photosynthesis, we could solve a fundamental challenge of renewable energy," said Zetian Mi, a professor of electrical and computer engineering at the University of Michigan who led the research while at McGill University in Montreal.

Time Crystals to Tetraquarks: Quantum Physics in 2017

The year 2017 was wild and unpredictable. And what science is better-suited for a weird year than quantum physics? This year ushered in astonishing quantum discoveries from all corners — deep-buried neutrino labs in Antarctica, quantum-computing labs at major universities and even thunderstorms rumbling over Japan. From time crystals to the elusive tetraquark, here are 15 of the most amazing quantum discoveries of the past 12 months.

A simple quantum computer

A time crystal

Ultracold particles

Neutrino symmetries

Doubly charmed particle

Explosive quantum secret

Elusive tetraquark

Lightning-bolt particle accelerators

Long-distance quantum entanglement

Quantum teleportation

Atomic clock

Quantum information

Reversal of entropy

Quantum Computing Problems

Thinnest liquid

Optics Illuminates Electricity-Conducting Microbes:

Less than a decade ago, scientists discovered cable bacteria—filament-shaped microbes that actually conduct electricity for centimetre-scale distances through layers of marine sediments. Using resonance Raman spectroscopy and other optical probes, researchers based in Denmark have measured the voltage loss along the filaments to learn how far these bacteria can carry current.

What are cable bacteria?

Members of the family Desulfobulbaceae, cable bacteria live in the surface sediments at the bottom of both fresh and brackish bodies of water. Their multicellular structures extend up to 1.5 cm in length and are 0.4 to 1.7 μm in diameter. The microbes oxidize hydrogen sulfide in the oxygen-poor depths of the sediment and transport electrons toward the water–sediment boundary, where they reduce molecular oxygen.

Researchers from the Center for Electromicrobiology at Aarhus University, Denmark, put filaments of cable bacteria into a microscope chamber containing oxygen and sulfide sources at opposite ends, 5 mm apart. The strands aligned themselves by swarming toward the oxygen source, with their opposite ends remaining in the low-oxygen sediment. The team then recorded nearly 2,000 Raman spectra of the microbial filaments and mapped the redox states of the cytochromes—specialized proteins that play an important role in electron transport in living cells.

Laser Time Reversal for On-Chip Sensors

A team of researchers from China reports a counterintuitive yet efficient way of getting light into a micro disk resonator. Using a technique called end-fire light injection; they can trigger laser time reversal, which creates a laser that absorbs light instead of emitting it.

The laser time-reversal phenomenon allows light to more efficiently enter a silicon waveguide-connected micro disk (WCM) that the researchers specifically designed for this application. Once in the WCM, the light signal is amplified via the whispering-gallery optical effect. The team reports demonstrating that its technique was capable of coupling light into the WCM with 57-percent efficiency, on par with conventional micro disk performance.

Being able to efficiently amplify light in the WCM means that a light signal emitted by, for example, a fluorescently tagged cell or protein of interest is easier to detect even when the signal is very weak. The researchers ultimately hope their end-fire injection technique and WCM design could make micro disk sensors more practical, cost-effective and reliable for the early detection of deadly diseases, like cancer, or for other applications, like photonic circuits for communications and environmental monitoring.

Cooling by laser beam

A laser pulse that for a few picoseconds -- i.e. Helvetica Neue; Helvetica, Arial, sans-serif; one millionth of one millionth;Helvetica Neue", Helvetica, Arial, sans-serif of a second- transforms a material into a high-temperature superconductor. Different experiments have unveiled this interesting phenomenon, with potential applicative implications. Research carried out by SISSA scientists a year ago had already provided several basic principles of the phenomenon.

Ericsson, Intel and China Mobile achieve 3GPP-compliant, multi-vendor Standalone 5G NR interoperability

Ericsson and Intel, together with China Mobile Research Institute and China Mobile Jiangsu Company, have successfully demonstrated the first 3GPP-compliant, multi-vendor Standalone (SA) 5G New Radio (NR) call – accelerating the commercial deployment of standard-based 5G networks.

Later this year, Ericsson and China Mobile will conduct a 5G field trial in Suzhou city of Jiangsu Province, where the demo system will also be deployed and tested. Ericsson and Intel have been collaborating on 5G and jointly conducting trials globally with communication service providers since 2017.

Continuous Emission from Microbead Lasers

For today’s miniaturized electronics and minimally invasive biomedical applications, it’s important to have ever-smaller light sources that can function in confined spaces. Now, an international team led by researchers at Lawrence Berkeley National Laboratory, USA, has made a surprise discovery that allows them to create some of the smallest continuously emitting lasers yet reported.

The microlasers are nanoparticle-coated polystyrene beads that, at 5 µm, are smaller than red blood cells. The researchers believe that the lasers could thus find application in medical imaging and optical chip fabrication.

A Step Toward Quantum Repeaters

A key enabler of future quantum communications networks would be some sort of quantum repeater, a device that can briefly store and re-transmit a quantum state to keep it alive along lengthy expanses of optical fiber. But voicing the need for quantum repeaters has proved considerably easier than finding a physical system that can do the job.

Now, researchers led by OSA member Nathalie de Leon at Princeton University, USA, have put a new candidate quantum repeater platform on the table: diamond crystal defects known as neutral silicon vacancy (SV0) centers.

A Rainbow of Colors from Two IR Beams

An optical frequency “metamixer” that can convert two input laser pulses into output light waves in eleven separate colors, from the UV to the near-IR. The business end of the device is a gallium arsenide metasurface, carefully designed to press into service seven separate nonlinear processes, ranging from second-harmonic generation to six-wave mixing, at the same time.

Current limitations

Frequency mixers are a core technology in radio-frequency communications, navigation and signal processing. They’re also common at optical wavelengths, with application examples ranging from attosecond-pulse and supercontinuum generation to the lowly green laser pointer.

Cloaking an optical filter

For their proof-of-concept demonstration, the INRS researchers used linear phase transformations—based mathematically on a type of near-field diffraction known as the Talbot effect—to manipulate the light from a near-infrared mode-locked laser with a bandwidth of roughly 500 GHz. (By contrast, the bandwidth of the entire visible region is more than 300 THz.) The “cloak” on either side of the disguised optical filter consisted of single-mode fibers and electro-optic phase modulators controlled by a radio-frequency synthesizer. As expected, the cloak created frequency gaps to hide the filter.

 

Top Universities

·         University of Oxford

·         University of Cambridge

·         California Institute of Technology

·         Stanford University

·         Massachusetts Institute of Technology

·          Harvard University

·         Princeton University

·         Imperial College London

·         University of Chicago

·         ETH Zurich – Swiss Federal Institute of Technology Zurich

·         University of Pennsylvania

·         Yale University

·         The university of Arizona

·         The Institute of Optics

·         University of Gothenburg

·         University of Rochester

·         Clemson University

·         University of Oslo

·         University of Waterloo

·         Institute of Technical Optics

·         Pacific University

·         University of California

·         University of Pittsburgh

·         Oklahoma State University

·         University of North Carolina at Charlotte

·         Washington State University

·         Albright College

·         University of North Texas

·         University of New Mexico

·         Montana State University

·         Indiana University of Pennsylvania

·         Delaware State University

·         Cleveland State University

·         Tampere University of Technology

·         Purdue university

·         Monroe Community college

·         ITMO University

·         University of Bern

·         Bar Ilan University

·         University of Colorado Boulder

·         Georgia State University

·         University of Liverpool

·         Queen's University Belfast

·         Swansea University

·         University of Nottingham

·         University of Strathclyde

·         University of Strasbourg

·         University of Southampton

·         University of Auckland

·         Universidade do Contestado

·         Sofia University St. Kliment Ohridski

·         University of Montreal

·         University Foundation of the Andean Area

·         University San Martín Foundation

·         Antonio Nariño University

·         Universidad de La Salle

·         Universidad del Bosque

·         Universidad Metropolitana

·         Santo Tomás University

·         Czech Technical University

·         Masaryk University

·         Palacký University

·         Metropolitan University

·         University of El Salvador

 

·         Institute of Vision Sciences 

·         Higher Institute of Optics

·         University Paris-Sud

·         Kwame Nkrumah University of Science and Technology 

·         University of Cape Coast

·         Technological Educational Institute of Athens

·         The Hong Kong Polytechnic University

·         University of Florence

·         University of Milano-Bicocca[38]

·         University of Padua, Italy [39]

·         University of Naples Federico II

·         University of Roma Tre

·         University of Salento[40]

·         University of Turin

·         University of Latvia

·         American University of Science and Technology

·         Lebanese University

·         Higher Industrial Technical Institute

·         Modern University for Business and Science

·         International Islamic University Malaysia

·         International University College of Technology Twintech

·         Management & Science University

·         National Institute of Ophthalmic Sciences

·         SEGi University College

·         National University of Malaysia

·         Universiti Teknologi MARA

·         National Polytechnic Institute

·         National Autonomous University of Mexico

·         Universidad Autónoma de Aguascalientes

·         Autonomous University of Ciudad Juárez

·         Xochicalco University

·         Tribhuwan University

·         University of Applied Sciences Utrecht

·         New Zealand National Eye Centre

·         Abia State University Uturu

·         Bayero University

·         Federal University of Technology Owerri

·         Imo State University, Owerri

·         Madonna University Okija

·         University of Benin

·         University of Ilorin

·         Buskerud University College

·         Cebu Doctors' University

·         University School Center

·         Davao Doctors' College

·         Lyceum-Northwestern University

·         Manila Central University

·         Mindanao Medical Foundation College

·         Southwestern University

·         Adam Mickiewicz University

·         Poznan University of Medical Sciences

·         University of Warsaw

·         Wrocław University of Technology

·         University of Beira Interior

·         University of Minho

·         The Helmholtz Research Institute for Eye Diseases

·         Saint Petersburg Medical Technical College

·         King Saud University

·         Qassim University

·         Ngee Ann Polytechnic

 

Reference Conferences

1)      International Conference on Condensed Matter Physics , August 16-17, 2018, London, UK ;

2)      International Conference and Exhibition on Lasers, Optics & Photonics, September 08-10, 2014,Philadelphia, USA

3)      International Conference and Exhibition on Lasers, Optics & Photonics, September 01-03, 2015, Valencia, Spain

4)      International Conference and Trade Fair on Laser Technology, July 20-22, 2015, Florida, USA

5)      International Conference on Photonics, July 28-29,2016, Berlin, Germany

6)      International Conference and Exhibition on Lasers, Optics & Photonics, Nov 15-17, 2017, Las Vegas, USA

7)      International Conference on Photonics, July 31- August 01, 2017, Milan, UK

8)      International Conference on Quantum Physics and Quantum Technology, September 25-26, 2017, Berlin, Germany

9)      International Conference on Physics, June 27-29, 2016, New Orleans, USA

10)   Global Optometrist Meeting and Trade Fair on Laser Technology, July 28-29, 2016, Berlin, Germany

11)    International Conference  on Optics, Photonics and Lasers (OPAL' 2018), 9-11 MAY 2018, BARCELONA, CASTELLDEFELS, SPAIN;

12)   International Conference on Quantum Mechanics and Applications, July 20-21, 2018; Atlanta, USA;

13)   International Conference on Atomic Physics, October 26-27, 2018, Boston, Massachusetts, USA;

14)   International Conference on Theoretical Physics, November 27-29, 2018, Los Angeles, USA;

15)   International Conference on Planetary Science and Particle Physics August 27-28, 2018 Boston, Massachusetts, USA;

16)   Workshop on Graph Spectra, Combinatory and Optimization, January 25-27, 2018, University of Aveiro, Aveiro, Portugal;

17)   Conference on Numerical Analysis and Scientific Computation with Applications (NASCA 2018); July 2-6, 2018; Kalamata, Greece;

18)   The Conference on Electro-Optics, 5 - 10 May 2018, San Jose, CA, United States; The Conference on Electro-Optics  , 13 - 18 May, 2018; San Jose, CA, United States;

19)   International conferences on Optoelectronics, September 19-20, 2018, Philadelphia, USA;

20)   International Conference on Theoretical Physics, July 02-03, 2018, Vienna, Austria;

21)   International Conference on Plasma Physics, October 15-16, 2018, Ottawa, Canada;

22)   International Conference on Astrophysics Physics, December 03-05, 2018, Chicago, Illinois, USA;

23)   OSA Bio photonics Congress: Biomedical Optics, 3-6 Apr 2018, Hollywood, FL, United States, Laser Ultrasonic, July 09-13, 2018, Nottingham, United Kingdom; 

Past Conference Report

Optics 2017

Optics 2017

8th International Conference and Exhibition on Lasers, Optics & Photonics was hosted by the Conference Series in Las Vegas, Nevada, USA during November 15-17, 2017. The conference was focused on the theme, “Exemplifying the Prominence of Lasers, Optics and Photonics in today’s world.” and facilitated by the Conference Series. Liberal reaction and cooperation was received from the Editorial Board Members of Conference Series Journals, Optics 2017 Organizing Committee Members and researchers, analysts and pioneers in Lasers, Optics and Photonics.

The conference was started by the Keynote Forum and we are pleased to thank all our Keynote Speakers, Honorable Guests, Speakers and Conference Attendees for creating a successful meeting.

The conference has encrusted through the following sessions:

  • Optics and Lasers in Medicine
  • Laser Systems
  • Applications and Trends in Optics
  • Quantum Science and Technology
  • Optoelectronics
  • Optical Communications and Networking
  • Nanophotonics and Biophotonics
  • Optical Physics
  • Surface Enhanced Spectroscopy (SES)

We would like to specially mention our Keynote Speakers who participated very enthusiastically and actively:

  • Ryan McClintock, Northwestern University, USA
  • Steven Slivken, Northwestern University, USA
  • Simon Fafard, Broadcom, USA
  • Michelle R Stem, Complete Consulting Services, USA
  • Nabeel A Riza, University College Cork, Ireland
  • Tianhong Dai, Harvard Medical School, USA
  • Yongsoo Lee, Oh and Lee Medical Robot, Inc, South Korea
  • Amr S Helmy, Univeristy of Toronto, Canada

The speakers gave their productive commitment as exceptionally enlightening presentations and made the meeting an extraordinary achievement.

We thank all the members who supported the conference by encouraging the healthy discussions. Conference Series expresses gratitude to the Organizing Committee Members for their generous response, support and help towards Optics 2017

After the immense idealistic reaction from logical crew, prestigious identities and the Editorial Board Members from Conference Series, we are pleased to announce our forth coming conference “9th International Conference and Exhibition on Optics,Photonics and Telecommunication" to be held in Bucharest, Romania during November 22-24, 2018.

We anticipate your precious presence at the OpticsPhotonics 2018 Conference.

Let us meet again @ OpticsPhotonics 2018


Past Reports  Gallery  

To Collaborate Scientific Professionals around the World

Conference Date November 22-24, 2018

Speaker Opportunity

Past Conference Report

Supported By

Journal of Lasers, Optics & Photonics

All accepted abstracts will be published in respective Conference Series LLC LTD International Journals.

Abstracts will be provided with Digital Object Identifier by


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Keytopics

  • Nonlinear Optics
  • Audiography
  • Biomedical Optics
  • Biomimetic
  • Broadcast Technologies
  • Data (packet) Switching And Routing
  • Detectors And Optical Sensors
  • Digital Image Processing
  • Electro-magnetic Radiation
  • Fiber
  • Fiber-optic Fluorimmunoassay
  • Fibre Optical Sensors
  • Fourier Optics
  • Green Photonics
  • Image Processing
  • Infrared (IR) Light
  • Interference
  • Internet Protocol (IP)
  • Laser Diode
  • LED
  • Light-detecting Devices
  • Liquid-crystal Display
  • Medication
  • Microwave Photonics (MWP)
  • Mobile Ad Hoc Network (MANET)
  • Mobility
  • Nano Photonics
  • Nanostructures
  • NGN (Next Generation Network)
  • Optical Biosensor
  • Optical Biosensor
  • Optical Communication
  • Optical Fiber
  • Optical Switch
  • Optoelectronics
  • Optometry
  • Optometry
  • Packet Switching
  • Photodiodes
  • Photon
  • Photonic Crystal
  • Photonic Sensing
  • Photonics
  • Photovoltoics
  • Quantum Dot
  • Quantum Dots
  • Quantum Efficiency
  • Quantum Physics
  • Radiation
  • Remote Controls
  • Semiconductor
  • Sensitivity
  • Sensors
  • Spectrum
  • Telecommunication
  • Terminal Nodes
  • Wearable Technology
  • Wireless Networks
  • Wireless Sensor Network
  • X-rays