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ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Codice Esperimento Gruppo PI62 4 Rapp. Naz.: Kenichi Konishi Rappresentante nazionale: Kenichi Konishi Struttura di appartenenza: PI Posizione nell'I.N.F.N.: PROGRAMMA DI RICERCA A) INFORMAZIONI GENERALI NONPERTURBATIVE DYNAMICS OF GAUGE THEORIES AND Linea di ricerca RELATED PROBLEMS IN QFT, STRING THEORIES AND STATISTICAL MECHANICS Laboratorio ove si raccolgono i dati Sigla dello esperimento assegnata dal laboratorio Acceleratore usato Fascio (sigla e caratteristiche) Processo fisico studiato Apparato strumentale utilizzato Sezioni partecipanti all'esperimento Istituzioni esterne all'Ente partecipante Durata esperimento B) SCALA DEI TEMPI : piano di svolgimento PERIODO Mod EN. 1 ATTIVITA' PREVISTA (a cura del responsabile nazionale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura BA Codice Esperimento PI62 Resp. loc.: Leonardo Angelini Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Missioni interne di cui SJ 4,0 4,0 Missioni estere 5,0 5,0 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 9,0 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura FI Codice Esperimento PI62 Resp. loc.: Marcello Ciafaloni Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Missioni per collaborazione con altre sedi dell' iniziativa di cui SJ 2,0 2,0 Missioni per conferenze e collaborazioni all' estero 6,5 6,5 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 8,5 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura MI Codice Esperimento PI62 Resp. loc.: Luca Molinari Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Spese di viaggio per collaborazione e partecipazione a workshop e convegni di cui SJ 1,0 1,0 Spese di viaggio per partecipazione a workshop e convegni 3,0 3,0 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 4,0 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PD Codice Esperimento PI62 Resp. loc.: Antonio Bassetto Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Missioni interno di cui SJ 3,0 3,0 Ospiti stranieri 6,0 6,0 Missioni estere 7,0 7,0 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 16,0 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PI Codice Esperimento PI62 Resp. loc.: Kenichi Konishi Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Missioni interne, Incontri e seminari di cui SJ 4,0 4,0 Invito (Invitation) Prof. Andrei Smilga, University of Nantes, France, per 2 settimane (2 1,5 weeks) 1,5 Invito (Invitation) Prof. Nick Dorey, University of Cambridge, UK per 2 settimane (2 weeks) Visit Osaka University (Konishi) 4,0 Participation Conference in Munich (May 2005) (Konishi) 2,0 Other Visits/participation to conferences 6,0 Consorzio Ore CPU Spazio Disco Cassette 3,0 12,0 Altro Totale 19,0 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura RM2 Codice Esperimento PI62 Resp. loc.: Francesco Fucito Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ missioni interno di cui SJ 1,5 1,5 invito r.poghossian 1,5 1,5 missioni estero 1,5 1,5 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 4,5 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TS Codice Esperimento PI62 Resp. loc.: Ugo Bruzzo Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Missioni interne di cui SJ 1,0 1,0 Prof. Vladimir Roubtsov, Universite' d'Angers, Francia (1 settimana) 1,0 Prof. Andrei Marshakov (ITEP, Mosca) 1,0 2,0 Missioni estero (fra altro, partecipazione a un convegno internazionale su geometria e teoria delle stringhe presso la University of Philadelphia) 2,5 2,5 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 5,5 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PR Codice Esperimento PI62 Resp. loc.: Luca Griguolo Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ collaborazioni con gli altri ricercatori dell'Iniziativa specifica, partecipazione a convegni nazionali di cui SJ 2,0 2,0 Invito di un mese per il Prof. Miguel Angel Vazquez−Mozo, Salamanca Un. (all'interno della convenzione CYCIT) 1,5 1,5 collaborazioni internazionali e partecipazione a convegni internazionali 4,0 4,0 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 7,5 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TN Codice Esperimento PI62 Resp. loc.: Giuseppe Nardelli Gruppo 4 PREVENTIVO LOCALE DI SPESA PER L'ANNO 2005 In KEuro IMPORTI VOCI DI SPESA DESCRIZIONE DELLA SPESA Parziali Totale Compet. SJ Missioni Interno di cui SJ 1,0 1,0 Missioni Estero 3,0 3,0 Consorzio Ore CPU Spazio Disco Cassette Altro Totale 4,0 di cui SJ 0,0 Sono previsti interventi e/o impiantistica che ricadono sotto la disciplina della legge Merloni ? Breve descrizione dell'intervento: Mod EC./EN. 2 (a cura del responsabile locale) A cura della Comm.ne Scientifica Nazionale ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura BA Codice Esperimento PI62 Resp. loc.: Leonardo Angelini Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura BA Codice Esperimento PI62 Resp. loc.: Leonardo Angelini Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura FI Codice Esperimento PI62 Resp. loc.: Marcello Ciafaloni ALLEGATO MODELLO EC2 PLANNED ACTIVITIES The Florence group intends to investigate some non−perturbative features of lower dimensional gravities and of quantum field theories, including their deformations that live on non−commutative spaces. Particular attention will be devoted to the applications of this research to condensed matter system and to its relations with string theory. Over the years, 2+1 gravity has been the object of a vast interest both at the classical and at the quantum level, because it is the simplest theoretical "laboratory" where to investigate gravity beyond the perturbative regime. Recently the Florence group has pointed out an intriguing connection between this model and the high energy equations in Yang−Mills: By a proper ordering of the relevant operators, the canonical quantization of the two body system in gravity can be in fact related to the so−called BFKL equation that describes the high energy regime in Yang−Mills. The natural question that we intend to investigate is wether this analogy is kept in the many body case. In particular we shall investigate the three body case that is partly solvable in either model. At level of conformal field theories, we shall also continue to explore the "old" connection between the gravity in 2+1 dimensions and the Liouville theory. A powerful tool to explore the non−perturbative regime in quantum field theories has always been the large N−expansion. Following the recent works of Armoni, Shifman and Veneziano, we shall probe the large N equivalence between gauge theories with varying degrees of supersymmetries. Our effort will concentrate on the planar equivalence between N=1 supersymmetric Yang−Mills theory and a non supersymmetric "orientifold" field theory, which bears some resemblance with ordinary QCD. This equivalence will be tested through functional and renormalization group techniques. In this context, we shall try to compute the 1/N corrections to the planar limit and to explore the role of topologically non−trivial configurations. The extensions of this kind equivalence to lower dimensional model will be scrutinized as well. Quantum field theories on non−commutative space will be another of the main topics of research of the Florence group. In three dimensions, we shall consider the supersymmetric version of topologically massive gauge theories and we shall investigate their phase diagram after a soft breaking of the supersymmetry. This will allow us to consistently discuss the stability of the perturbative vacuum, which could be in principle jeopardized by the UV−IR mixing characterizing non−commutative field theories. Another interesting application of three−dimensional non−commutative gauge theory that we are going to examine is a recent proposal due to Susskind. He suggested that the hydrodynamic properties of Gruppo 4 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura FI Codice Esperimento PI62 Resp. loc.: Marcello Ciafaloni ALLEGATO MODELLO EC2 the quantum Hall fluid are captured by Chern−Simons theory, at level $k$, defined on a non−commutative background. The electrons sit at Laughlin filling fraction $\nu=1/k+1$ and the fluids fill the infinite plane. Susskind's proposal represents a novel way of incorporating the constraints of quantum statistics in the effective hydrodynamical models. In a sense, it is a refined implementation of the `flux−attachment' transformation that leads to ordinary Chern−Simons theories as effective models of Hall fluids. In fact, this description attempts to include the effects of the Coulomb interaction between electrons through an additional non−commutativity. This approach may solve some important open questions in the field, such as the unification of the various effective theories that describes different Hall plateaux, the problem of modelling the transition between two plateaux and the description of the structure of the quasi−particles, based, up to now, only on Jain phenomenological theory. Finally we shall also examine the connection between topological string theories and non−commutative gauge theories in two−dimensions, exploiting the explicit Gross−Taylor string expansion for Yang−Mills theory on Riemann surfaces: in particular we shall attempt to perform a large N double−scaling limit in order to resum non−perturbative contributions in the string coupling (D1 branes). On the field theory side, we shall try to clarify how the same contributions emerge from the instanton expansion of the gauge theory. Lately Vafa suggested that these non−perturbative contributions may also play a role in understanding some aspects of the relation between black−hole physics and topological strings. The insertion in the above analysis of 't Hooft fluxes will allow for a comparison with the related non−commutative theories in two dimensions. Gruppo 4 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura MI Codice Esperimento PI62 Resp. loc.: Luca Molinari Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura MI Codice Esperimento PI62 Resp. loc.: Luca Molinari Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PD Codice Esperimento PI62 Resp. loc.: Antonio Bassetto Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PD Codice Esperimento PI62 Resp. loc.: Antonio Bassetto Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PI Codice Esperimento PI62 Resp. loc.: Kenichi Konishi Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PI Codice Esperimento PI62 Resp. loc.: Kenichi Konishi Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura RM2 Codice Esperimento PI62 Resp. loc.: Francesco Fucito Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura RM2 Codice Esperimento PI62 Resp. loc.: Francesco Fucito Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TS Codice Esperimento PI62 Resp. loc.: Ugo Bruzzo Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TS Codice Esperimento PI62 Resp. loc.: Ugo Bruzzo Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PR Codice Esperimento PI62 Resp. loc.: Luca Griguolo Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PR Codice Esperimento PI62 Resp. loc.: Luca Griguolo Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TN Codice Esperimento PI62 Resp. loc.: Giuseppe Nardelli Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 1 (a cura del responsabile locale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TN Codice Esperimento PI62 Resp. loc.: Giuseppe Nardelli Gruppo 4 ALLEGATO MODELLO EC2 Mod EC./EN. 2a Pagina 2 (a cura del responsabile locale) Codice Esperimento Gruppo PI62 4 Rapp. Naz.: Kenichi Konishi ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 PREVENTIVO GLOBALE DI SPESA PER L'ANNO 2005 In KEuro A CARICO DELL' I.N.F.N. Struttura Missioni interne Inviti SJ BA FI MI PD PI PR RM2 TN TS 4,0 2,0 1,0 3,0 4,0 2,0 1,5 1,0 1,0 TOTALI 19,5 Materiale di consumo Missioni estere SJ SJ SJ Trasporti e facchinaggi Spese di calcolo SJ Affitti e Materiale TOTALE manutenzione inventariabile Compet. SJ SJ SJ SJ 2,0 5,0 6,5 3,0 7,0 12,0 4,0 1,5 3,0 2,5 9,0 8,5 4,0 16,0 19,0 7,5 4,5 4,0 5,5 14,0 44,5 78,0 6,0 3,0 1,5 1,5 NB. La colonna A carico di altri enti deve essere compilata obbligatoriamente Mod EC./EN. 4 A carico di altri Enti (a cura del responsabile nazionale) 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Nuovo esperimento Gruppo PI62 4 PROPOSTA DI NUOVO ESPERIMENTO Title: NONPERTURBATIVE DYNAMICS OF GAUGE THEORIES AND RELATED PROBLEMS IN QFT, STRING THEORIES AND STATISTICAL MECHANICS Research Project, Generalities: The PI62 Project Group aims to make in−depth investigations on many non−perturbative aspects of gauge field theories, string theory and statistical mechanics. Some of the concrete issues which will be studied are: Instantons in Gauge Theories and in String Theory, Confinement and Dynamical Symmetry Breaking in 4D Gauge Theories, Possible other phases in QFT, QCD, Domain Walls, Monopoles and Vortices, Supersymmetric Gauge Theories, Large N techniques, MQCD, Topological Field Theories, Exact Results in 4D Gauge Theories, String Theories, Tachyon Condensation in String Theory, etc. This area of study gained recently a renewed interest and impetus for new developments. We intend to pursue further the research aimed at clarifying these and related problems. One of the characteristics of this area of research is that it is quite interdisciplinary, as exemplified by the common nonperturbative techniques used in the field theory/statistical mechanics/string theory, use of results from apparently unrelated research fields such as the solid state physics and algebraic geometry, solitons seen in field theory, statistical mechanics and string theory, etc., and to face these problems we need constant updating of our knowledge and techniques. It is therefore fundamental that we promote a synergy of researchers expert in different fields, exchange of information, promote interactions among experts, young researchers and graduate students. Within our project we therefore intend to organize exchange of visits, seminars, and small workshops in which a few foreign researchers, in particular those active in Europe, will also be involved. We wish to create occasions of discussions and for effective collaborations among the members of the collaboration. The research projects: (i) Study of nonabelian monopoles, vortices and their roles in confinement and/or dynamical symmetry breaking; Study of phases and dynamics of wide classes of N=4, 2, 1 supersymmetric gauge theories; Lessons for QCD (PI, PD, PR, RM2 groups); (ii) Study of multi−instanton effects in string theories and in 4D supersymmetric gauge theories (RM2, PD, PI groups); (iii) Analysis of gauge theories in noncommutative / non−anticommutative spacetimes (PR, FI, PD groups); (iv) Use of large N_c techniques; exploration of the idea of planar equivalence between N=0 and N=1 super Yang−Mills theories (FI, PR groups); Besides these main themes of research, our activities will be further complemented and enriched by the work covering the following research fields: (v) Study of tachyon condensation in string theory (TN group), Unitarity in string theory (PD group); (vi) Non−equilibrium statistical mechanics; Variational approach to QFT (BA group); (vii) Topological field theories (PD group); (viii) Low−dimensional gravity, CFT, Relation to BFKL equations (FI group) −−−−− For more details about the scientific activities, results obtained and future projects of each subgroups, see the following PDF file, Activity.pdf. Mod EN. 5 Pagina 1 di 2 (a cura del rappresentante nazionale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Nuovo esperimento Gruppo PI62 4 PROPOSTA DI NUOVO ESPERIMENTO Mod EN. 5 Pagina 2 di 2 (a cura del rappresentante nazionale) 1 Research Activities of PI62 In the following, the research fields, recent results and future plan of each local groups forming PI62 will be illustrated. 2 2.1 Padova Research Activity of Bassetto, De Pol and Torrielli Bassetto, De Pol and Torrielli (B-D-T below) have analyzed the unitarity of string and superstring amplitudes at one loopin constant antisymmetric background. We have obtained a new series of double poles in the open channel, which signals a partial symmetry breaking, consistently with tree level factorization properties. We have also studied the noncommutative field theory limit of these amplitudes, which presents unitarity breaking in the electric case. On the pure noncommutative field theory side, B-D-T have performed a perturbative analysis of the correlator of three parallel Wilson lines in two-dimensional noncommutative U(N) Yang-Mills theory. We have obtained for such correlator, in the large N limit, an exponential growth with the length of the lines, substantiating former expectations. Bassetto, De Pol and Torrielli have also obtained the noncommutative version of the Makeenko-Migdal loop equation for two-dimensional Yang-Mills theory, by generalizing the KazakovKostov procedure. 2.2 Research Activity of Matone The main research topic concerned the nonperturbative structure of SYM theories. In particular, it has been shown that the instanton moduli space maps to the moduli space of punctured spheres. The formulation shows a strict relationship with Liouville theory (Liouville F-Models). Another related topic concerned the Dijkgraaf-Vafa formulation (DV) of N=1 and N=2 SYM theoriee. It has been shown that the N=2 theory induces a duality in N=1. It has been also shown that the original formulation requires a modification which also makes it possible to directly express the N=2 prepotential directly as a matrix path-integral. Furthermore, the exact operatorial form of the chiral ring considered 1 by Cachazo, Douglas, Seiberg e Witten in deriving the DV results from the Konishi anomaly. It has been shown that some discrepancies of the DV formulation are due to the existence of an affine connection previously considered as an integrable one-form. Another topic concerned the Berkovits covariant formulation of the superstring based on the pure spinors. It has been shown that such a formulation corresponds to a twisted and complexified version of the superembedding formulation of the superstring. An infinite explicit set of eigenfunctions and eigenvalues for the Laplacian on Riemann surfaces of genus g > 1 has been obtained. 2.3 Research Activity of Pieralberto Marchetti 1) Charged sectors of lattice gauge theories in the Coulomb phase. We propose a construction of electrically (and by duality magnetically) charged fields when dynamical electric and magnetic charges coexist. In this situation the standard Dirac ansatz (a multiplication of the charged field by a Coulomb phase a factor) is inconsistent due to a violation of the Dirac quantization condition for the electro-magnetic flux. Our proposal replace the Coulomb phase factor with an integral over fluctuating Mandelstam strings weighted by a measure with support on rough strings whose average at large scales approximate the Coulomb phase factor, thus avoiding the infrared divergence appearing if one uses a single Mandelstam string and simultaneously obeying Dirac quantization condition for fluxes. We propose to take the expectation values of such charged fields as order parameter for the confinement deconfinement transition in abelian (lattice)gauge theories with dynamical charges and monopoles. Numerical evidence for the validity of such proposal appear in papers of Polikarpov et al (hep- lat/ 0110150). A slight modification of the above construction allows a precise definition of ’t Hooft monopole in pure SU(2) Yang Mills theories. This construction involves surfaces of Z2 vortices and therefore creates a link between two approaches to confinement, abelian dominance where confinement is attributed to condensation of ’t Hooft monopoles and center dominance where it is attributed to condensation of vortices. 2) Chern-Simons U(1)-charge × SU(2)-spin gauge approach to high Tc superconductors. On the t-J model used to describe the high Tc superconductors we perform a 2 gauging of the U(1)-charge × SU(2)-spin symmetry with Chern-Simons action for the gauge fields; thus obtaining a model strictly equivalent to the original one. To the electron of the gauged model, we apply, following Anderson’s (Varenna 1987) suggestion, a spin-charge decomposition rewriting it as a product of a charged spinless fermion (holon) and a spin 1/2 neutral boson (spinon), the first interacting with the U(1)-change gauge field, the second with the SU(2)-spin gauge field. We then analyses the above model in mean field in a phase (pseudogap) where we are able to derive a low energy effective action. Our formalism reproduces automatically as a consequence of the introduction of the SU(2)-gauge field a gap in the spin excitations with a doping dependence in agreement with NMR experimental data. Starting from the effective action in we calculate the in plane resistivity, exhibiting a metal-insulator crossover with decreasing temperature, as a conseguence of the competition between the spin gap and a dissipation induced by spin-currents. The result are in qualitative agreement with experimental data, also for the magneto resistance. We calculate the out of plane resistivity and give a review of the entire formalism with emphasis on the relation with experimental results. 3) Dirac strings and Chern Kernel for p-branes We give a generalization of the PST (Pasti-Sorokin-Tonin) formalism with manifest duality in the (semi-)classical treatment of p-branes interacting with gauge forms, involving a p+1-generalization of Dirac strings. This formalism allows in particular to treat the inflow mechanism for cancellation of anomalies in supergravity theories and is related to the advanced mathematical formalism of characteristic currents (HarveyLawson, Asterisque 1993) which established a link between differential geometry and distribution theory. We apply a variant of the formalism, involving a diffeomorphism invariant generalization of the Coulomb field introduced by Chern, to the cancellation of anomalies for the M5-brane, the soliton of M-theory in d=11, also in the presence of the M-2 brane. 3 RomaII Our science project (Fucito, D’Alessandro) is focused on the computations of multi instanton corrections to various supersymmetric gauge theories. This field has reached a high degree of maturity just in recent times. The application of localization 3 techniques to the computation of the functional integral allows for a solution for arbitrary winding numbers. For this application to be possible the theory has first to be formulated in the BRST formalism. The relevant physical computation to perform is that of the cohomology of the BRST operator. To do this the theory is suitably deformed to give a compact moduli space. The physical results are to be independent of this deformation parameter. Moreover it is convenient to deal with a finite number of fixed points of the action of Q. To localize, the theory is to be deformed by introducing two auxiliary rotations in the space time: the final result is a series whose expansion parameters are those of the previously introduced rotations. The Seiberg-Witten’s results are then obtained in the limit in which these parameters are sent to zero. Even more surprisingly the other terms in this expansion match the contributions given by non perturbative contributions coming from string whose world sheet has genus greater that zero. The results we have gathered up to this moment are: 1) computations for the N=2 supersymmetric theory and its gravitational corrections; 2) same thing for the N=2 supersymmetric theory with massive hypermultiplets transforming in the adjoint; 3) we have repeated these computations for gauge groups Sp and SO; 4) same thing for the N=4 case; 5) all of the above on ALE manifolds of the A type together with the Betti’s numbers for the moduli over these manifolds; 6) computations for the so called quiver theories; 7) a proof that the Matone’s relation holds also for the case in which gravitational corrections are taken into account. We are actually looking at the N=1 case and we are trying to find an explanation to this suprising coincidence between the results obtained in four and two dimensions. 4 Parma The scientific project of the Parma group (Bonini, Calcagni, Cicuta, Griguolo, Pasquetti) originates from a long experience in non-perturbative QFT, ranging from 4 large-N expansions and matrix models to renormalization group techniques applied to gauge theories, including more recently the study of instanton effects and ChernSimon physics, QFT theories on noncommutative spaces and braneworld cosmology. The following list of pubblications is relevant for the present proposal. The activity of the Parma group will be mainly focused on non-perturbative aspects of quantum field theories, taking into account the presence of supersymmetries and of deformed space-time structures (non-commutativity and non-anticommutativity). Applications to theories of extended objects (strings and branes) and to condensed matter physics will also be considered. In order to tackle the different problems, a variety of techniques will be useful: the force of the researchers expert in various different methods will be exploited in a joint effort. In particular, the fields in which we have a particular expertise are large-N expansions, matrix models computations, exact renormalization group techniques and instanton/functional determinants calculus could be profitably applied. The planar (large-N) equivalence between gauge theories with varying degree of supersymmetry will be investigated, following the recent works of Armoni, Shifman and Veneziano. The main emphasis will be put on the relation, in the planar limit, between N = 1 super-Yang-Mills theory and a non-supersymmetric ”orientifold field theory”, resembling in many respects ordinary QCD: the non-perturbative equivalence will be explored by means of functional determinant techniques and of the exact renormalization group approach and the role of topologically non-trivial configurations will be studied in this context. Extensions to the 1/N corrections and to the three-dimensional case will be also considered. Concerning more general supersymmetric gauge theories, it has been shown recently that some superpotential, coming from string and brane models, can be rewritten in terms of matrix integrals. It is planned to apply the random matrix theory to the computation of these superpotentials. Random matrix techniques will be used as well to compute Yang-Mills integrals in reduced superstring theories. The study of gauge theories on deformed spaces will be another research line: in particular the recently discovered N = 1/2 supersymmetry is related to the socalled non-anticommutative superspace, produced as low-energy limit of string theory in RR-background, and it generates interesting quantum theoretical effects, both on the perturbative and the non-perturbative side. The possibility to extend this deformation in different space-time dimensions and the analysis of topologically non5 trivial structures as instantons and Chern-Simons terms could be explored. Concerning instead the more familiar noncommutative gauge theories, the supersymmetric three-dimensional case will be considered and the consistency of the theory, after a soft breaking of the supersymmetry, will be discussed, in connection with the known instability of the perturbative nonsupersymmetric vacuum, as learnt from the four-dimensional case. Noncommutative Chern-Simons theories have also been suggested as effective descriptions of quantum Hall fluids. Natural observables of noncommutative gauge theories, the so-called ‘open Wilson lines’, where conjectured to be a mathematical description of ‘quasiexcitons’, the dominant physical excitations of the Hall fluid at large quasimomentum. The study of these conjectures and the use of matrix models in describing the noncommutative Chern-Simons theory will investigated. The connection between string theories and large-N gauge theories will be instead explored in two-dimensions, taking advantage of the explicit Gross-Taylor string expansion for Yang-Mills theory on Riemann surfaces: in particular a double-scaling limit, at large-N, will be applied in order to take into account non-perturbative contributions in the string coupling (D1 branes), and a resummation of the instanton series will be attempted. Recently it as been suggested by Vafa that non-perturbative contributions could be relevant to explain some aspects of the relation between blackhole physics and topological strings. The insertion of ’t Hooft fluxes will also allow for a comparison with the related noncommutative theories in two dimensions. A further connection of Parma researches with string theory is the following: it is intended to study tachyon condensation in boundary string field theory by means of the exact renormalization group equation.The boundary entropy corresponding to the tension of a D24-brane, which originates from a D25-brane with one compactified dimension, will be calculated. Some applications of the physics of strongly coupled gauge theories to braneworld models will be also attempted. 5 Pisa Reseach in the Pisa group of PI62 (Konishi, Auzzi, Bolognesi, Evslin, Marmorini, Brosco, Halat, Ferretti, Yokoi) in the last three years has mainly concentrated on the systematic study of the mechanism of confinement and dynamical symmetry breaking 6 in N=2/N=1 supersymmetric gauge theories. The main results obtained are the following: (1) We found that nonabelian monopoles of Goddard-Olive-Nuyts type do appear as the infrared degrees of freedom in certain vacua of softly broken N=2 SQCD (supersymmetric version of QCD), and play the fundamental role as order parameter of confinement / dynamical symmetry breaking. It is the first known class of theories in which these solitons, previously known only as massive semi-classical states, make appearance as fully quantum mechanical, massless infrared degrees of freedom and play the central role (Bolognesi and Konishi); (2) We found (Auzzi, Grena, Konishi) that in a class of ”almost superconformal” vacua, confinement and dynamical symmetry breaking are caused by cooperation of strongly interacting monopoles and dyons. This is the first example of nonabelian generalization of Argyres-Douglas mechanism of nonlocal cancellation of the beta function. (3) In collaboration with Alexei Yung of S. Petersburg, we discovered and constructed (for the first time) nonabelian BPS vortices in supersymmetric theories with SU(N) gauge group, which are quantum mechanically stable. This work has important implications on the very existence of quantum mechanical nonabelian monopoles as well. (Auzzi, Bolognesi, Yung, Evslin, Konishi) This work, together with independent, related papers by Hanany, Tong, Shifman and Yung, are leading to interesting developments in the understanding of vortex dynamics and their relation to the dynamics of 4D theory itself; (4) In collaboration with Hitoshi Murayama of LBL/Princeton, we made a systematic investigation of topological and dynamical (quantum mechanical) aspects of nonabelian monopoles which have been previously left explored only partially. (Auzzi, Bolognesi, Murayama, Evslin, Konishi) We intend to continue our effort to further clarify many related issues. (Auzzi, Bolognesi, Konishi, Marmorini, Evslin, Ferretti). 6 Milano The tools of Random Matrix theory are applied to the study of Yang-Mills integrals, arising in reduced models of string theory. We devised a systematic method 7 to reduce the integration space. An exact duality between the spectrum of a banded Hamiltonian matrix and the corresponding transfer matrix is obtained, and it is promising for the study of the dynamics of a particle in a lattice, enumeration of lattice walks in d > 1, spectral properties of non-Hermitian matrices. (Luca Molinari) 7 Firenze The Florence group (Ciafaloni, Valtancoli, Cappelli, Seminara, Caporaso) intends to investigate some non-perturbative features of lower dimensional gravities and of quantum field theories, including their deformations that live on non-commutative spaces. Particular attention will be devoted to the applications of this research to condensed matter system and to its relations with string theory. Over the years, 2+1 gravity has been the object of a vast interest both at the classical and at the quantum level, because it is the simplest theoretical ”laboratory” where to investigate gravity beyond the perturbative regime. Recently the Florence group has pointed out an intriguing connection between this model and the high energy equations in Yang-Mills: By a proper ordering of the relevant operators, the canonical quantization of the two body system in gravity can be in fact related to the so-called BFKL equation that describes the high energy regime in Yang-Mills. The natural question that we intend to investigate is wether this analogy is kept in the many body case. In particular we shall investigate the three body case that is partly solvable in either model. At level of conformal field theories, we shall also continue to explore the ”old” connection between the gravity in 2+1 dimensions and the Liouville theory. A powerful tool to explore the non-perturbative regime in quantum field theories has always been the large N-expansion. Following the recent works of Armoni, Shifman and Veneziano, we shall probe the large N equivalence between gauge theories with varying degrees of supersymmetries. Our effort will concentrate on the planar equivalence between N=1 supersymmetric Yang-Mills theory and a non supersymmetric ”orientifold” field theory, which bears some resemblance with ordinary QCD. This equivalence will be tested through functional and renormalization group techniques. In this context, we shall try to compute the 1/N corrections to the planar limit and to explore the role of topologically non-trivial configurations. The extensions of this kind equivalence to lower dimensional model will be scrutinized as well. 8 Quantum field theories on non-commutative space will be another of the main topics of research of the Florence group. In three dimensions, we shall consider the supersymmetric version of topologically massive gauge theories and we shall investigate their phase diagram after a soft breaking of the supersymmetry. This will allow us to consistently discuss the stability of the perturbative vacuum, which could be in principle jeopardized by the UV-IR mixing characterizing non-commutative field theories. Another interesting application of three-dimensional non-commutative gauge theory that we are going to examine is a recent proposal due to Susskind. He suggested that the hydrodynamic properties of the quantum Hall fluid are captured by Chern-Simons theory, at level k, defined on a non-commutative background. The electrons sit at Laughlin filling fraction ν = 1/k + 1 and the fluids fill the infinite plane. Susskind’s proposal represents a novel way of incorporating the constraints of quantum statistics in the effective hydrodynamical models. In a sense, it is a refined implementation of the ‘flux-attachment’ transformation that leads to ordinary ChernSimons theories as effective models of Hall fluids. In fact, this description attempts to include the effects of the Coulomb interaction between electrons through an additional non-commutativity. This approach may solve some important open questions in the field, such as the unification of the various effective theories that describes different Hall plateaux, the problem of modelling the transition between two plateaux and the description of the structure of the quasi-particles, based, up to now, only on Jain phenomenological theory. Finally we shall also examine the connection between topological string theories and non-commutative gauge theories in two-dimensions, exploiting the explicit GrossTaylor string expansion for Yang-Mills theory on Riemann surfaces: in particular we shall attempt to perform a large N double-scaling limit in order to resum nonperturbative contributions in the string coupling (D1 branes). On the field theory side, we shall try to clarify how the same contributions emerge from the instanton expansion of the gauge theory. Lately Vafa suggested that these non-perturbative contributions may also play a role in understanding some aspects of the relation between blackhole physics and topological strings. The insertion in the above analysis of ’t Hooft fluxes will allow for a comparison with the related non-commutative theories in two dimensions. 9 8 Trento Research field: Boundary String Field Theory. (Nardelli, Forini) Boundary String Field Theory is particularly useful to study off shell string theory processes, such as tachyon condensation. In this framework we have constructed the non linear (in the tachyon field) beta function and the corresponding Witten Shatashvili (WS) action. We have reproduced the exact form of the tachyon potential as well as small derivative expansion of the WS action. The obtained results are in full agreement with all conjectures on tachyon condensation. Moreover, this non linear beta function approach reproduces the correct perturbative on shell amplitudes (e.g. Veneziano amplitude) when the WS action is expanded in powers of the tachyon fields. Among the most promising future developments there are: The generalization of this procedure to include the vector field; the study of quartic and sextic soliton solutions for the tachyon field describing multi-branes configurations as consistent string backgrounds; the investigation of time dependent conformal solutions close to the tachyon mass shell (i.e. rolling tachyons). 9 Trieste Scientific Activity of Ugo Bruzzo: Localization Formulas and Multi-Instanton Calculus Already in 2000 Bellisai, Fucito, Tanzi e Travaglini advocated the use of localization formulas for the study of multi-instanton calculus but there were problems due to the presence of singularities in the moduli space of framed instantons. It was suggested by Dorey to resolve the singularities of the moduli space of instantons using the invariance of the original BRST exact theory. These ideas were applied by Hollowood who computed the k = 1, 2 cases. A last crucial ingredient was provided by Nekrasov: localization techniques are most powerful when the critical points of the action of the action of the relevant group are isolated. Building on these ideas, in 2002 the localization formula for the equivariant de Rham cohomology was used by Bruzzo, Fucito, Morales and Tanzini to compute the partition function of a twisted N=2 SYM theory. Also the partition functions 10 of an N=2* and an N=4 model were computed. Subsequently Bruzzo and Fucito, and Bruzzo, Rossi and Roubtsov (still unpublished) proved generalized localization formulas for the equivariant cohomology of Lie algebroids. The aim of the present project is to further develop the theory of localization and use it to compute the partition function and other quantities of physical interest for a number of supersymmetric models, including the N=1 case (which however is quite controversial), some vortex models and others. 10 Bari Out-of-Equilibrium Field Theories In past years we studied dynamical properties of field models in strong out of equilibrium conditions, e. g. systems that are quenched to a temperature below the critical point. We used both numerical tecniques (taking also into account hydrodynamical effects) and analytical calculations (selfconsistent dynamical field, 1/N expansion). Fluctuation-dissipation relations and correlation functions behaviour have been studied analitically in the case of a scalar field that undergoes a sudden cooling. In the future we plan to study, in the framework of the time dependent Landau-Ginzburg models, the dynamical properties of scalar fields that are characterized by homogeneous or lamellar ground states. The critical properties of a class of statistical models having non gibbsian stationary state will also be studied. Phase transitions and non equilibrium statistical Mechanics The research activity regards the macroscopic evolution of statistical system having chaotic behaviour at microscopic level. In particular we are interested to phase ordering in lattices of chaotic maps (CML) (see, for example, the Proceedings of the Paris Workshop on Lattice Dynamics in Physica D 103 (1997)) which have two symmetric attractors; in this case one can associate an Ising spin to each map. In particular two systems of this kind are being considered. In the first case the order parameter is conserved and Kawasaki dynamics is used in the coarsening process. In the second case the local maps interact through diffusive coupling in presence of additive noise. The effect of noise on the phase ordering is studied. New results have been obtained also using a dynamics that 11 corresponds to the discretization of the Cahn-Hilliard equation, that describes the evolution of continuous systems in presence of a conservation law. We have shown that these systems have important analogies with spin statistical systems and that the dynamics introduces an antiferromagnetic effective coupling that, as in the Ising model, is capable to generate superantiferromagnetic (SAF) ordering. Statistical Mechanics applications to high energy physics We have considered statistical system composed of two classes of elements that have no interaction with elements of the same class, while elements of the different classes have a coupling that depends on the distance between them. This systems have an application in the analysis of events in high energy scattering. Here particles in the final states belongs to one class and jets to the other one. On this basis one can show that the algorithms currently used by experimental physicists in this field can be reduced to a variational principle. This fact could have a practical consequence, in the form of an algorithm that needs execution times with a very weak dependence from the particle multiplicity of the events. This is very appealing for particle physics at the new generation of colliders and a first results in this direction have been obtained. Variational methods in field theory and foundations In a recent paper, some generalized forms of stochastic and quantum mechanics have been obtained, through variational extensions of classical mechanics of particles, based on a reformulation of the Hamilton principle. This scheme is based on two ingredients, a lagrangian density and a balance equation, and appears to be an effective approach for the analysis of more general evolution phenomena. It is planned to reconsider, from this point of view, the problem of quantization of fields. At the classical level, it can be shown that the approach recovers formal aspects of the De-Donder Weyl theory in the calculus of variations. So it is planned to investigate natural extensions of this theory to stochastic and quantum structures. At the same time some recent results of Jackiw and coll. concerning the formulation of non abelian fluid dynamics will be taken into account. (Angelini, Gonnella, Pellicoro, Villani). 12 Codice Esperimento Gruppo PI62 4 Rapp. Naz.: Kenichi Konishi ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 PREVISIONE DI SPESA Piano finanziario globale di spesa In KEuro ANNI FINANZIARI 2005 TOTALI Mod EC./EN. 6 Spese Materiale Affitti e Materiale Trasporti e Missioni Missioni di di Inviti manutenzione inventariabile facchinaggi interne estere calcolo consumo 19,5 14,0 44,5 19,5 14,0 44,5 0,0 0,0 0,0 0,0 0,0 TOTALE Compet. 78,0 78,0 (a cura del responsabile nazionale) ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura BA Codice Esperimento PI62 Resp. loc.: Leonardo Angelini Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N 1 2 3 4 Qualifica Affer. RICERCATORE Dipendenti Incarichi al % Cognome e Nome gruppo . Art. 23 Ruolo Ricerca Assoc Angelini Leonardo Gonnella Giuseppe Pellicoro Mario Villani Matteo P.A. P.A. P.A. P.O. 4 4 4 4 80 80 50 100 N TECNICI Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 0 0 % Collab. Assoc. tecnica tecnica 4 Numero totale dei Tecnici 3.1 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N Numero totale dei ricercatori Ricercatori Full Time Equivalent TECNOLOGI (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura FI Codice Esperimento PI62 Resp. loc.: Marcello Ciafaloni Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N 1 2 3 4 5 Qualifica Affer. RICERCATORE Dipendenti Incarichi al % Cognome e Nome gruppo . Art. 23 Ruolo Ricerca Assoc Caporaso Nicola D.R. Cappelli Andrea Ciafaloni Marcello Seminara Domenico Valtancoli Paolo Dott. P.O. R.U. R.U. Numero totale dei ricercatori Ricercatori Full Time Equivalent 4 4 4 4 4 100 30 30 100 100 Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N TECNICI Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 0 0 % Collab. Assoc. tecnica tecnica 5 Numero totale dei Tecnici 3.6 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione N TECNOLOGI (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura MI Codice Esperimento PI62 Resp. loc.: Luca Molinari Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N Qualifica Affer. RICERCATORE Dipendenti Incarichi al % Cognome e Nome gruppo . Art. 23 Ruolo Ricerca Assoc 1 Molinari Luca R.U. 4 N TECNOLOGI Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti 100 Numero totale dei Tecnologi Tecnologi Full Time Equivalent N Numero totale dei ricercatori Ricercatori Full Time Equivalent Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 % Collab. Assoc. tecnica tecnica 1 Numero totale dei Tecnici 1 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione TECNICI 0 0 (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PD Codice Esperimento PI62 Resp. loc.: Antonio Bassetto Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N 1 2 3 4 5 RICERCATORE Cognome e Nome Qualifica Dipendenti Incarichi Affer. al . gruppo % 4 4 4 4 4 100 100 50 100 100 N Ruolo Art. 23 RicercaAssoc P.O. BASSETTO Antonio DE POL Giancarlo MARCHETTI Pieralberto MATONE Marco TORRIELLI Alessandro AsRic P.A. R.U. B.P.D. Numero totale dei ricercatori Ricercatori Full Time Equivalent Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N TECNICI Cognome e Nome 0 0 Qualifica Incarichi Dipendenti Ruolo Art. 15 Collab. tecnica Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 % Assoc. tecnica 5 Numero totale dei Tecnici 4.5 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione TECNOLOGI (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PI Codice Esperimento PI62 Resp. loc.: Kenichi Konishi Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N 1 2 3 4 5 6 7 8 Qualifica Affer. RICERCATORE Dipendenti Incarichi al % Cognome e Nome gruppo . Art. 23 Ruolo Ricerca Assoc Auzzi Roberto Bolognesi Stefano Brosco Valentina Halat Milenko Konishi Kenichi Marmorini Giacomo Vinci Walter Yokoi Naoto Dott. Dott. Dott. Dott. P.O. Dott. Altro B.P.D. Numero totale dei ricercatori Ricercatori Full Time Equivalent 4 4 4 4 4 4 4 4 100 100 100 100 100 100 100 100 Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N TECNICI Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 0 0 % Collab. 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Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N Numero totale dei ricercatori Ricercatori Full Time Equivalent TECNOLOGI (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TS Codice Esperimento PI62 Resp. loc.: Ugo Bruzzo Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N Qualifica Affer. RICERCATORE Dipendenti Incarichi al % Cognome e Nome gruppo . Art. 23 Ruolo Ricerca Assoc 1 BRUZZO Ugo P.O. 4 N TECNOLOGI Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti 100 Numero totale dei Tecnologi Tecnologi Full Time Equivalent N Numero totale dei ricercatori Ricercatori Full Time Equivalent Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 % Collab. Assoc. tecnica tecnica 1 Numero totale dei Tecnici 1 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione TECNICI 0 0 (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura PR Codice Esperimento PI62 Resp. loc.: Luca Griguolo Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N 1 2 3 4 5 Qualifica Affer. RICERCATORE Dipendenti Incarichi al % Cognome e Nome gruppo . Art. 23 Ruolo Ricerca Assoc Bonini Marisa Calcagni Gianluca Cicuta Giovanni Griguolo Luca Pasquetti Sara R.U. Dott. P.O. R.U. Dott. Numero totale dei ricercatori Ricercatori Full Time Equivalent 4 4 4 4 4 100 100 100 100 100 Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N TECNICI Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 0 0 % Collab. Assoc. tecnica tecnica 5 Numero totale dei Tecnici 5 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione N TECNOLOGI (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Struttura TN Codice Esperimento PI62 Resp. loc.: Giuseppe Nardelli Gruppo 4 COMPOSIZIONE DEL GRUPPO DI RICERCA N RICERCATORE Cognome e Nome Qualifica Dipendenti Incarichi Affer. al % gruppo . Art. 23 Ruolo Ricerca Assoc 1 FORINI Valentina 2 NARDELLI Giuseppe Dott. R.U. 4 4 100 100 N TECNICI Cognome e Nome Qualifica Incarichi Dipendenti Ruolo Art. 15 Annotazioni: mesi−uomo Osservazioni del direttore della struttura in merito alla disponibilità di personale e attrezzature Mod EC./EN. 7 0 0 % Collab. Assoc. tecnica tecnica 2 Numero totale dei Tecnici 2 Tecnici Full Time Equivalent SERVIZI TECNICI Denominazione Cognome e Nome Qualifica Incarichi % Ass. Ruolo Art. 23 Tecnol. Dipendenti Numero totale dei Tecnologi Tecnologi Full Time Equivalent N Numero totale dei ricercatori Ricercatori Full Time Equivalent TECNOLOGI (a cura del responsabile locale) 0 0 ISTITUTO NAZIONALE DI FISICA NUCLEARE Preventivo per l'anno 2005 Codice Esperimento Gruppo PI62 4 Rapp. Naz.: Kenichi Konishi MILESTONES PROPOSTE PER IL 2005 Data completamento Mod EC./EN. 8 Descrizione (a cura del responsabile nazionale)