Curriculum Vitæ - Hussein Hijazi

Arabic : Read, spoken and written fluently. • English : Read and Written : fluent, spoken : advanced. 8.2 Computer. • System : Linux, Windows, Microsoft Office.
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Curriculum Vitæ 1

Marital status • • • • • • • •

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Name : Hussein HIJAZI Birth Date/place : 6 september 1980, Beirut, Lebanon Nationality : French - Lebanese Adress : 155 avenue de la république, 38170 Seyssinet Pariset, France Status : Married Phone : +33 (0)4 76 76 40 39 (office), +33 (0)6 18 21 37 94 (mobile) E-mail : [email protected] Home page : http://hussein.hijazi.free.fr

Diplomas • 2005-2008 : PhD in Telecoms and Signal Processing from the Grenoble Institute of Technology. Title : HIGH SPEED RADIO-MOBILE CHANNEL ESTIMATION IN OFDM SYSTEMS Supervisors : Geneviève JOURDAIN† and Laurent ROS

JURY Ms. Marie-Laure BOUCHERET Ms. Maryline HÉLARD M. Benoît GELLER M. Dirk SLOCK M. Jean-Marc BROSSIER M. Laurent ROS

Professor at ENSEEIHT of Toulouse

Examinator

Professor at INSA of Rennes

Examinator

Professor at ENSTA ParisTech

Reviewer

Professor at EUROCOM, Sophia Antipolis

Reviewer

Professor at INP of Grenoble

President

Associate Professor at INP of Grenoble

Supervisor

• 2004-2005 : Master of Science in Signal, Image, Speech and Telecommunications (SIPT) from INP of Grenoble. Grade very good. • 1998-2004 : Bachelor of Engineering degree in Computer and Electrical Engineering from the Lebanese University. Grade very good. • 1997-1998 : Scientific Baccalaureate - Speciality Mathematics, at Beirut, Lebanon. Grade good.

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Professional experience • December 2009 to date : Post-Doc at France Telecom - Orange. • September 2009 to December 2009 : Research engineer in telecommunications at National Center for Scientific Research (CNRS) - Univeristy of Lille 1, Laboratory of IEMN, Group TELICE.

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• 2008-2009 : Researcher and teaching assistant at National Engineering school on Energy, Water and Environment (ENSE3)and department for Signals and Images of the Grenoble-Image-Speech-SignalAutomatics Lab (GIPSA-lab) of INP Grenoble. • 2005-2008 : PhD student at GIPSA-lab of INP Grenoble. • 2005 : Master final project «Performance evaluation of Turbo-BLAST ». Laboratory of Electronics and Information Technology (LETI) of the French Atomic Energy Commission (CEA) at Grenoble. • 2004 : Engineering final project «Design of Oversampling Filter Banks». Lebanese University, Faculty of engineering, Beirut, Lebanon, in collaboration with the SUPELEC University, Paris, France. • 2003 : Training of 2nd year engineering at Organisme de Gestion et d’Exploitation de l’ex-société Radio-Orient (O.G.E.R.O), divided in 3 parts : - course on the basics of telecommunication circuits (PSTN, RNIS, Frame Relay, ATM, FDDI) and the fundamuntals of networks (hierarchies, routing and configuration routers) - telephone site visits at OGERO with configuration and operation on transmission and switching systems Alcatel, Ericsson and Siemens - project for a study on ISDN

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Teaching • 2000-2004 : Teaching of mathematics courses (in frensh and english) for the secondary scientific classes (concentrations : life sciences, general sciences, sociology and economics), at IBN-ROCHOD high school , Beirut, Lebanon. • 2005-2008 : Teaching during my thesis. My teaching was mainly held in the following engineering schools : Ecole Nationale Supérieure d’Ingénieurs Electriciens (ENSIEG), Ecole Nationale Supérieur d’Informatique et de Mathématiques Appliquées (ENSIMAG) and Ecole Nationale Supérieure d’Electronique et de Radioélectricité (ENSERG), of the Grenoble Institute of Technology (INPG), and Polytech’ Grenoble of Joseph Fourier University (UJF). • Septembre 2008-2009 : Researcher and teaching assistant with the engineering school ENSE3 of Grenoble INP. I had the opportunity to teach in different institutions : ENSE3, PHELMA and Department of Telecommunications of Grenoble INP.

In summary, I conducted lessons for a total of 402 h at university and of 1296 h at high school. The courses are described in Table 1-a and Table 1-b. Table 1-a : Teaching Program Course

Class

Course Outline

Mathematics

Secondary scientific classes - high school

Calculus - algebra - complex numbers - trigonometry - geometry arithmetic - probability and statistics.

Probability and statistics

1st year engineering - option : PMP

Mesure and probability of random variables - expectation - characteristic functions - change of variables - regression curves - estimation of parameters - statistical hypothesis test.

Transforms of integrals

1st year engineering - option : PMP

Complex functions - integration in the complex plane - Cauchy’s integral - residue theorem - Fourier transform - Laplace transform and Z-transform.

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Table 1-b : Teaching Program Course

Class

Course Outline

Signal Processing

2nd year engineering, options : SICOM , ASI , IEE and SEM

Analog signal - Concept of Digital Signal - Time sampling - Quantization - Discrete Fourier transforms - Apodization - Spectral Analysis Numerical filters (FIR and IIR) - Matched filter, - Multi-scale analysis - Spectrogram - Scalogramme - Wavelets - Noise reduction and Speed measurement.

1st, 2nd and 3th year engineering and Masters - options : RICM , TST , ARR , ATIS , MASTER SIPT and MASTER CSE

Signals and Spectra (Energy and power signals , Power spectral density of deterministic power waveforms , Power spectral density of periodic waveforms , Autocorrelation function , Transfer function and power transfer function of linear and time-invariant systems) - Baseband Signaling (Pulse amplitude Modulation , Pulse code modulation , Sampling , quantizing and encoding , Non-uniform quantizing , Bandwidth of PCM signals) - Line Codes and Spectra (Binary line codes , Spectra of binary line codes , Spectra of multilevel polar NRZ signals , Differential encoding and decoding , Regenerative repeaters , Pulse width modulation , Pulse position modulation , Time-division multiplexing , Frame synchronization) - Intersymbol Interference (Nyquist’s first method , Raised cosine-rolloff Nyquist filtering , Nyquist’s second and third methods) - Bandpass Signaling (Complex envelope representation of bandpass waveforms , Representation of modulated signals , Spectrum of bandpass signals , Power of bandpass signals) - AM, FM and Digital Modulated Systems (Amplitude modulation , Double-Sideband suppressed carrier amplitude modulation , synchronization , Costas loop and squaring loop , Single sideband amplitude modulation , Phase modulation and frequency modulation , Spectra of PM and FM signals , Frequency-division multiplexing and FM stereo , On-Off keying , Phase-shift keying , Frequency-shift keying , Differential phase-shift keying) - OFDM - CDMA.

2d engineering - options : TST and ARR

Source and Channel Models (Discrete and continuous sources , Discrete and continuous channels , Probabilistic characterization of stationary , time-invariant and memory-less sources , Probabilistic properties of Markov sources , Probabilistic characterization of stationary , time-invariant and memory-less channels , Binary symmetric channels , M-ary symmetric channels , erasure channels , Gaussian channels) - Shannon Information Measures ( Entropy as a measure of the amount of uncertainty of a discrete source , Differential entropy of continuous sources , Informational divergence between two probability distributions , Knowledge reduces uncertainty : the conditional entropy , Mutual information , Venn’s diagram : relationship between entropy , conditional entropy and mutual information , Chain rules for entropy and mutual information) - Basic Inequalities in Information Theory - Coding and Shannon Limits (The rate of a code , Distortion introduced by a code , Channel capacity and cost functions , Source coding theorem , Zero-error compression and the entropy of a source , Huffman code , Channel coding theorem , Joint source and channel coding) - The Rate-Distortion Function and Capacity (General properties of the capacity , The rate-distortion functions of binary sources , M-ary uniform sources and Gaussian sources , Channel capacity of discrete and continuous adder channels) - Error-Correcting Linear Block Codes (Rate of a code , Encoding and the generator matrix , Parity-check matrix and syndrome decoding , Error detecting capabilities of a linear code , Error correcting capabilities of a linear code , Coding gains under hard-decision detection and soft-decision detection).

1st year engineering - option : PMP

Bipolar transistor (Static characteristic , Transistor as a switch , , common-emitter amplifier) - synchronous detection (direct measurement of signal detected (photodiode) , implementation of the model synchronous detection , noise injection), Nonlinear operational amplifier (Schmitt trigger, astable multivibrator , Integrator , function generator), programmable logic component of type FPGA - analog spectrum analyzer - operational amplifier (measurement of imperfections (polarization current , offset, Slew rate, output impedance , frequency gain) - Voltage follower).

Digital Communication

Information Theory

Electronic

and

Coding

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Research

During my three years of thesis at Grenoble-Image-Speech-Signal-Automatics Lab (GIPSA-lab), Department of Images and Signals (DIS), I worked on channel estimation and equalization for a OFDM high speed mobile receiver, under the supervision of M. Laurent Ros and Ms. Geneviève Jourdain (died in October 2006). This work concerns the systems of radio communication and broadcasting such as (WIMAX, WIFI, DVB-H, ...). Durant three months (1 september to 30 november 2009), I have been working as a research engineer in Telecommunications at CNRS - Univeristy of Lille 1, in Laboratory of the Institute of Electronics, Microelectronics and Nanotechnology (IEMN), Group Telecommunications, Interferences and Electromagnetic Compatibility (TELICE). I extended my working of thesis from single antenna (SISO-OFDM) to multiantenna (MIMO-OFDM), under the supervision of M. Eric Simon and Ms. Martine Liénard (Professor at the University of Lille 1 and Team Leader Telecommunications in the Group TELICE). This work has been carried out in the framework of the CISIT (Campus International sur la Sécurité et Intermodalité des Transports) project and funded by the French Ministry of Research, the Region Nord Pas de Calais and the European Commission (FEDER funds). Since december 2009, I make a post-doc at France Telecom - Orange on the Infrastructure pseudo-cell of the wireless sensor network in urban area, under the supervision of M. Benoît Miscopein. My research interests include OFDM, MIMO, time-varying channel, channel estimation and synchronization in urban and rural areas and in submarine areas, GSM, sensor network.

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Reviewer

I am serving as a reviewer for international journal and conference papers. Journals : -

IEEE Transactions on Signal Processing IEEE transactions on Communications IEEE Transactions on Wireless Communications IEEE Transactions on Vehicular Technology IEEE Signal Processing Letters EURASIP Journal on Wireless Communications and Networking

Conferences : - IEEE Global Communications Conference (GLOBECOM) - IEEE International Communications Conference (ICC) - IEEE Wireless Communications and Networking Conference (WCNC) - IEEE International Symposium on Personal, Indoor and Mobile Radio Communications (PIMRC) - European Signal Processing Conference (EUSIPCO)

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Publications The details of my publications are shown in Table 2.

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Table 2 : List of publications.

Journals

[ ] Complex Amplitudes Tracking Loops for Multipath Slow Fading Channel Estimation in OFDM Systems, L. Ros, H. Hijazi, E. Simon and B. Ros submitted to IEEE Transactions on Signal Processing. [ ] Joint Carrier Frequency Offset and Fast Time-varying Channel Estimation for MIMOOFDM Systems, Simon, H. Hijazi and L. Ros submitted to IEEE Transactions on Vehicular Technology. [ ] Fast Time-Varying Channel Estimation in MIMO-OFDM Systems, H. Hijazi and E. Simon submitted to European Transactions on Telecommunications. [ ] Hybrid Cramer-Rao Bound for Dynamical Time-varying Channel and Carrier Frequency Offset Estimation in MIMO-OFDM Systems, H. Hijazi and E. Simon submitted to IEEE Transactions on Signal Processing.

[1] Joint Data QR-Detection and Kalman Estimation for OFDM Time-varying Rayleigh Channel Complex Gains, H. Hijazi and L. Ros, IEEE Transactions on Communications, vol. 58, no. 1, pp. 170-178, January 2010. [2] Analytical Analysis of Bayesian Cramer-Rao Bound for Dynamical Rayleigh Channel Complex Gains Estimation in OFDM System, H. Hijazi and L. Ros, IEEE Transactions on Signal Processing, vol. 57, no. 5, pp. 1889-1900, May 2009. [3] Polynomial estimation of time-varying multi-path gains with intercarrier interference mitigation in OFDM systems, H. Hijazi and L. Ros, IEEE Transactions on Vehicular Technology, vol. 58, no. 1, pp. 140-151, January 2009. [4] Rayleigh Time-varying Channel Complex Gains Estimation and ICI Cancellation in OFDM Systems, H. Hijazi and L. Ros, European Transactions on Telecommunications, vol. 20, pp. 782-796, June 2009. [5] Bayesian Cramer-Rao Bounds for OFDM Slowly Varying Multi-path Rayleigh Channel Estimation, H. Hijazi and L. Ros, ELSEVIER Signal Processing Fast Communication, vol. 89, pp. 111-115, January 2009. International Conferences

[6] Joint Carrier Frequency Offset and Fast Time-varying Channel Estimation for MIMOOFDM Systems, E. Simon, H. Hijazi and L. Ros, IEEE International Symposium on Communications Systems, Networks and Digital Signal Processing (CSNDSP), July 2010 . [7] Channel Estimation for MIMO-OFDM Systems in Fast Time-Varying Environments, H. Hijazi, E. Simon, M. Liénard and L. Ros, IEEE International Symposium on Communications, Control and Signal Processing (ISCCSP), March 2010. [8] Paths Complex Gain Tracking Algorithms for OFDM Receiver in Slowly-Varying Channels, L. Ros, H. Hijazi and E. Simon, IEEE International Symposium on Communications, Control and Signal Processing (ISCCSP), March 2010. [9] Joint Estimation of Carrier Frequency Offset and Channel Complex Gains for OFDM Systems in Fast Time-varying Vehicular Environments, E. Simon, H. Hijazi, L. Ros and M. Berbineau, IEEE International Conference on Communications (ICC) : Workshop on Vehicular Connectivity, May 2010. [10] Bayesian Cramer-Rao Bound for OFDM Rapidly Time-varying Channel Complex Gains Estimation, H. Hijazi and L. Ros, IEEE Global Communications Conference (GLOBECOM), December 2009. [11] On-line Bayesian Cramer-Rao Bounds for OFDM Slowly Varying Rayleigh Multi-path Channel Estimation, H. Hijazi and L. Ros, IEEE International Symposium on Wireless Communication Systems (ISWCS), Occtober 2008. [12] OFDM High Speed Channel Complex Gains Estimation Using Kalman Filter and QRDetector, H. Hijazi and L. Ros, IEEE International Symposium on Wireless Communication Systems (ISWCS), October 2008. [13]Polynomial estimation of time-varying multi-path gains with ICI mitigation in OFDM systems, H. Hijazi and L. Ros, IEEE International Symposium on Communications, Control and Signal Processing (ISCCSP), March 2008. [14] Time-varying channel complex gains estimation and ICI suppression in OFDM systems, H. Hijazi and L. Ros, IEEE Global Communications Conference (GLOBECOM) , November 2007. [15] OFDM Channel Parameters Estimation used for ICI Reduction in time-varying Multipath channels, H. Hijazi, L. Ros and G. Jourdain, European Wireless Conference (EW), April 2007.

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Table 2 : List of publications. National Conference

[16] Estimation de canal et suppression d’interférence pour les récepteurs OFDM à grande mobilité, H. Hijazi and L. Ros, Traitement du signal et des images, Actes du 21e colloque GRETSI, September 2007. [17] Borne de Cramér-Rao Bayésienne associée à l’estimation des gains complexes de type Rayleigh avec un spectre de Jakes pour les récepteurs OFDM à grande mobilité, H. Hijazi and L. Ros, Traitement du signal et des images, Actes du 22e colloque GRETSI, September 2009.

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Miscellaneous

8.1

Languages

• Frensh : Read, spoken and written fluently. • Arabic : Read, spoken and written fluently. • English : Read and Written : fluent, spoken : advanced.

8.2

Computer

• System : Linux, Windows, Microsoft Office. • Programming language : Matlab, Mustig, C, Pascal, Visual basic 6, latex.

8.3

Scientific Competence

• Signal Processing : Digital spectral analysis, filtering in discrete and continuous time, Kalman filter, estimation, detection, Fourier analysis, time-frequency analysis. • Telecommunication : Analog and digital communication, synchronization and equalization, channel estimation, systems OFDM, CDMA and MIMO, information theory, source coding, channel coding, turbo-code. • Mathematics : Numerical analysis, complex analysis, probability and statistics. • Miscellaneous : Image processing, electronics, electromagnetism and automatic (well known courses).

8.4

Hobbies

• Sport : Foot, Ping Pong, Basketball and Swimming.

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