RICERCA ITALIANA     

Programmi di ricerca simili:

• 1 - La Geomatica a supporto delle azioni di Governo del Territorio
• 2 - Basi di dati crittografate
• 3 - Linee guida per la sorveglianza e la gestione delle strutture e infrastrutture storiche con il supporto di tecniche innovative per il monitoraggio strumentale.
• 4 - Implementazione ed ottimizzazione di un sistema ad integrazione telematica per il follow-up dei pazienti a rischio cardiovascolare.
• 5 - Metodi basati sulla similarita' per la visione artificiale e il riconoscimento delle forme: Teoria, algoritmi, applicazioni
• 6 - Tecniche innovative per il monitoraggio e la valutazione della integrità di strutture civili mediante metodi dinamici
• 7 - Studio e realizzazione di metamateriali per applicazioni all'elettronica ed alle telecomunicazioni
• 8 - Web Ram: web retrieval and mining
• 9 - Metodi e strumenti per la migrazione di sistemi software verso architetture web e orientate ai servizi: valutazione sperimentale, usabilita' e trasferimento tecnologico
• 10 - INTEGRAZIONE MULTIMODALE DI TECNICHE DI IMAGING STRUTTURALE E FUNZIONALE PER LO STUDIO DELLA CONNETTIVITA' CEREBRALE

Classificazione scientifico-disciplinare

• Area scientifico disciplinare: Ingegneria industriale e dell'informazione
  • ELETTROTECNICA

Classificazione brevettuale

• PHYSICS
  • MEASURING (counting G06M); TESTING
    • GEOPHYSICS; GRAVITATIONAL MEASUREMENTS; DETECTING MASSES OR OBJECTS (detecting or locating foreign bodies for diagnostic, surgical or person-identification purposes A61B; means for indicating the location of accidentally buried, e.g. snow-buried persons A63B29/02; investigating or analysing earth materials by determining their chemical or physical properties G01N; measuring electric or magnetic variables in general, other than direction or magnitude of the earth\'s field G01R; electronic or nuclear magnetic resonance arrangements G01R33/20; radar, sonar or analogous methods in general, detecting masses or objects involving these methods G01S)
    • RADIO DIRECTION-FINDING; RADIO NAVIGATION; DETERMINING DISTANCE OR VELOCITY BY USE OF RADIO WAVES; LOCATING OR PRESENCE-DETECTING BY USE OF THE REFLECTION OR RERADIATION OF RADIO WAVES; ANALOGOUS ARRANGEMENTS USING OTHER WAVES [N: (for special applications, see the relevant subclasses, e.g. A61B, G01F, G01N, G02B; measuring dimensions or angles of objects G01B; navigation in general G01C; measuring infrasonic, sonic or ultrasonic vibrations in general G01H; measuring infra-red, visible, or ultra-violet radiation in general G01J; transducers per se, see the relevant subclasses, e.g. G01L, H01L, H04R; measuring direction or velocity of flowing fluids by reception or emission of radiowaves or other waves and based on propagation effects caused in the fluid itself G01P; measuring electric or magnetic variables in general G01R]; (detecting masses or objects by methods not involving reflection or radiation of radio, acoustic or other waves G01V; [N: time-interval measuring G04F]; aerials H01Q) [C9504]
  • NUCLEAR PHYSICS; NUCLEAR ENGINEERING
    • FUSION REACTORS (uncontrolled reactors G21J)

Classificazione geografica

• Regione: Puglia

Bibliografia

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[4] C.Colla et al. Sonic, Elecromagnetic and Impulse Radar Investigation of Stone Masonry Bridges. NDT&E International 1997; 30(4): 249-254
[5] R.C.Flint et al. Geopysical Imaging Inside Masonry Structures. NDT&E International 1999; 32: 469-479
[6] M.C.Forde, N. McCavit, Sonic NDT and radar testing of masonry. NDT&E International 1995; 28(6)
[7] M.Shuller et al. Acoustic Tomography for Evaluation of Unreinforced Masonry. Costruction and Building Matherials 1997; 11(3) 199-204
[8] D.A.Sack, L.D. Olson Advanced NDT methods for evaluating Concrete Bridges and other Structures. NTD&E International1995;28(6) 349-357
[9] A.Fanni, A.Montisci A Neural Inverse Problem Approach for Optimal Design. IEEE Trans on MAG 2003; 39(3) 1305-1308
[10] D.Cherubini, A.Fanni, A. Montisci, and P. Testoni Inversion of MLP Neural Networks for Direct Solution of Inverse Problems.IEEE Trans. on MAG. (to be pubblished)
[11] T.Roths et al.; Honerkamp, J. A Generalized Regularization Method for Nonlinear ill-posed Problems enhanced for Nonlinear Regularization Terms. Computer Physics Communications 2001; 3 279-296
[12] H.Zong-Yi, J.Qi-Nian Tikhonov Regularization for Nonlinear Ill-posed Problems. Nonlinear Analysis 1997; 28(11) 1799-1809
[13] A.Björck Numerical Methods for Least Squares Problems. SIAM 1996
[14] E.Costamagna, A.Fanni, M.Marchesi Modified TEM cell design using mixed Simulated Annealing - Deterministic optimization. IEEE Trans. on Magnetics 1996; 32(3) 1202-1205
[15] I. D. Hall, A. McNab et al. Improved Ultrasonic Image Generation through Tomographicc Image Fusion, Ultrasonics 1998; 37, pp. 433-443
[16] M. Shuller et al. Acoustic Tomography for Evaluation of Unreinforced Masonry. Costruction and Building, Matherials 1997;11(3), pp. 199-204
[17] D. A. Sack, L. D. Olson, Advanced NDT methods for evaluating Concrete Bridges and other Structures, NTD&E International1995;28(6), pp. 349-357
[18] Progetto di Rilevante Interesse Nazionale (PRIN 2003) Studio e sperimentazione di diagnostiche non distruttive per tratti non accessibili di condutture.
[19]D. J. Daniels, Microwave techniques for NDE: antenna and front end design, IEE Colloquium on Radar and Microwave Techniques for Non-Destructive Evalution, UK, 1995, pp. 3.1-3.13.
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[23]Yoo Jin Kim,Luis Jofre, Franco De Flaviis, Maria Q. Feng, 3-D microwave imaging technology using antenna array for damage assessment of concrete structure in Proc. Of 16th ASCE Eng. Mechanics Conf. July 16-18, 2003, Seattle, USA.
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[29] G. Stockton and L. Allen, Using infrared thermography to determine the presence and correct placement of grouted cells in singlewidth concrete masonry Unit (CMU) walls. Proceedings of SPIE 1999; 3700,
Thermosense XXI, 483–493.
[30]M. Innocenzi and J.E. Peterson, Discrete repair, strengthening of concrete masonry walls using conventional mild steel reinforcement and pressure injection of grout. Proceedings of the 9th North American Masonry Conference, Clemson, South Carolina, 2003: 722–733.
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[40] G. Aiello, S. Alfonzetti, S. Coco and N. Salerno, FEM Computation of Moving Conductor Transient Magnetic Fields in Open Boundary Domains, in Non-Linear Electromagnetic Systems, A.J.Moses and A.Basak (eds), IOS Press, 1996, pp.588-591.
[41] A.Fanni, A.Montisci A Neural Inverse Problem Approach for Optimal Design. IEEE Trans on MAG 2003; 39(3) 1305-1308
[42] D.Cherubini, A.Fanni, A. Montisci, and P. Testoni Inversion of MLP Neural Networks for Direct Solution of Inverse Problems.IEEE Trans. on MAG. (to be pubblished)
[43] A.Fanni, A.Giua, E.Sandoli, Neural networks for multiple fault diagnosis in analog circuits. Neural Networks Theory. Technology and Applications, IEEE Technology Update Series1996; 745-752
[44] A.Fanni, A.Giua, M.Marchesi, M.Montisci, A neural network diagnosis approach for analog circuits. Applied Intelligence 1999; 11(2) 169-186
[45] B.Cannas, G.Celli, A. Fanni, F. Pilo Automated recurrent neural network design of a neural controller in a custom power device. Intenational Journal of Intelligent and Robotic Systems 2001; 31 229-251
[46] B.Cannas, A. Fanni, E. Marongiu, P. Sonato Disruption forecasting at JET using neural networks.Nuclear Fusion. Nuclear Fusion 2004; 43 68-76
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[48] Progetto MURST 40%, Metodi neurali e non lineari per la realizzazione di circuiti innovativi

Parole Chiave

ELETTROTECNICA; ANALISI DI SEQUENZE TEMPORALI; INTEGRITA DEI SEGNALI; FUSIONE DI DATI MULTISENSORIALI