Context Navigation

← Previous Revision
Latest Revision
Next Revision →
Normal
Revision Log

NA_BENEvers09.html@ 410

Last change on this file since 410 was 406, checked in by campagne, 17 years ago

File size: 108.6 KB

Rev	Line
[406]	1	<!doctype html public "-//w3c//dtd html 4.0 transitional//en">
	2	<html>
	3	<head>
	4	<meta http-equiv="Content-Type" content="text/html; charset=iso-8859-1">
	5	<meta name="GENERATOR" content="Mozilla/4.75 [fr] (Windows NT 5.0; U) [Netscape]">
	6	<title>Networking Activity of the CARE Integrating Activity project</title>
	7	<!-- saved from url=(0071)http://www.lal.in2p3.fr/recherche/delphi/bambade/esgard/NA_skeleton.htm -->
	8	</head>
	9	<body text="#000000" bgcolor="#FFFFC0" link="#0000FF" vlink="#800080" alink="#FF00FF">
	10
	11	<blockquote>
	12	<blockquote>
	13	<blockquote><font size=+3><b><font face="Arial,Helvetica"><font color="#FF0000">B</font><font color="#000000">eams</font><font color="#FF0000">
	14	</font><font color="#000000">for</font><font color="#FF0000"> European
	15	N</font><font color="#000000">eutrino </font><font color="#FF0000">E</font><font color="#000000">xperiments
	16	(</font><font color="#FF0000">BE</font></font></b><font color="#CC0000">?</font><b><font face="Arial,Helvetica"><font color="#FF0000">E</font><font color="#000000">)</font></font></b></font></blockquote>
	17	</blockquote>
	18	</blockquote>
	19
	20	<hr width="100%">
	21	<br><font size=+3>Networking Activity:<b> <font color="#FF0000">N3</font></b></font>
	22	<blockquote><font size=+3>Topic:<b> <font color="#FF0000">Neutrino beams
	23	of superior intensity and quality</font></b></font></blockquote>
	24	<font size=+3>Co-ordinator:<b> <font color="#FF0000">Vittorio Palladino
	25	(INFN-Napoli, Italy)</font></b></font>
	26	<p><i>Draft last updated 01/02/2003
	27	</i>This page prepared by : <a href="mailto://vittorio.palladino@cern.ch">Vittorio
	28	Palladino</a>
	29	<br>
	30	<hr width="100%">
	31	<br><font size=+1>Link to <a href="http://esgard.lal.in2p3.fr/esgard/Project/Activities/Networking/IA_forms">proposal
	32	part B</a> form prepared for the IA "Coordinating Accelerator Research
	33	in Europe"</font>
	34	<br><font size=+1>Link to<b> </b><a href="http://esgard.lal.in2p3.fr/esgard/Project/Activities/Networking/EBNE_info.htm">more
	35	information</a> provided on the subjects covered by : N4</font>
	36	<br>
	37	<hr width="100%">
	38	<br><b><font color="#009900"><font size=+2>Description:</font></font></b>
	39	<br>
	40	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	41	<caption>
	42	<br><tbody></tbody><tbody>
	43	<br></tbody></caption>
	44
	45	<tr>
	46	<td><b><i><font color="#000000">NB1 Text in Italic, like the one you are
	47	reading, should be viewed as preliminary generic text, likely to disappear
	48	or be replaced soon by a more specific and suitable
	49	formulation. </font></i></b>
	50	<br><b><i><font color="#000000">NB2 Text in grey fonts is text produced
	51	at various stages in the process of preparation. It is to be understood
	52	as removed text. Its shadow is left in the file as it</font></i></b>
	53	<br><b><i><font color="#000000">      will probably
	54	be rescued in parts  to improve the present formulation. </font></i></b>
	55	<p><i>Introduction and summary of the activity</i>
	56	<br>
	57	<br>
	58	<p><b><i><font color="#FF0000">Short description meant as an input to
	59	Table 2?</font></i></b>
	60	<pre wrap="">Recent landmark discoveries have again confirmed that <b>the investigation of the properties of neutrinos </b><font color="#000000"><font size=+1>(?</font>) </font><b>is and will be</b> <b>revealing to us fundamental and unique information on </b>the basic nature and texture of <b>fundamental matter</b>. Effective continuation <b>will require an important  investment in accelerator-based beams for neutrino experiments</b>.
	61	This NA is aimed at co-ordinating and integrating the activities of the accelerator and particle physics communities that are giving or promise contributions to t<b>he realization of upgraded and/or new European neutrino facilities</b> of unprecedented performance. The final objectives are 1) recommend <b>the optimal road map</b> from the present infrastructure to design and construction of the most rewarding future facilities 2) assemble <b>a coherent community </b>capable to sustain the long term program of technical realization and scientific exploitation.</pre>
	62
	63	<p><b><i><font color="#FF0000">Longer description to stay here</font></i></b>
	64	<br> <b>The investigation of the properties of the <font color="#000000"><font size=+1>?</font></font>,</b>
	65	70 years after its invention, 46 after the discovery of the <font color="#000000"><font size=+0>its
	66	first</font><font size=+1> ?</font></font><font size=-1>e</font> species
	67	, 27 after the first indirect evidence of its third and so far last <font color="#000000"><font size=+1>?</font></font><font size=-1>?
	68	</font>species, <b>is and will still long be</b> <b>revealing to us fundamental
	69	and unique information </b>on the basic nature and texture of fundamental
	70	matter.
	71	<p>Recent experiments have established transitions in flight of one <b><font color="#000000"><font size=+1>?</font></font></b>
	72	into another, very likely to be oscillations, over two independent long
	73	baselines (LBL), Thus <b><font color="#000000"><font size=+1>?</font></font></b>
	74	<b>do have</b> non zero <b>mixing </b>rates <b>and </b>non zero <b>masses.
	75	</b>The exceptional smallness of the masses points to the existence of
	76	<b>new fundamental physics </b>occurring at a very high-energy scale, providing
	77	indeed the first experimental data constraining it. The pattern of large
	78	mixings is likely to carry the imprint of this new specific physics and,
	79	even more importantly, points to the possibility of a <b>large leptonic
	80	CP violation phase</b>. If true, this may be a key ingredient in the understanding
	81	of the matter-antimatter asymmetry of the universe (including the existence
	82	of our own physical bodies!), rooting it in a fundamental <b>asymmetry
	83	of the mechanism of primordial lepto-genesis</b> by decay of very heavy
	84	<b><font color="#000000"><font size=+1>?</font></font></b>.
	85	<p>This opens a field of research which will last several decades, perform
	86	the complete mapping of the patterns of masses and mixings and culminate
	87	with the discovery of leptonic CP violation. Long baselines impose very
	88	high power: constraints on the physics at the new scale will come only
	89	from statistically significant data samples. <b>These studies will thus
	90	require an important investment in accelerator-based neutrino beams and
	91	experiments</b>, improving significantly the present facilities and/or
	92	developing new ones. <i>Proposed underground neutrino detector locations,
	93	both existing and new, will also need careful scrutiny.</i>
	94	<p>Muon Study Groups, endorsed by ECFA since 2000,  are active since
	95	1998, with mandate  <b>to prepare the evolution of European research
	96	in the field of <font color="#000000"><font size=+1>?</font></font> physics</b>
	97	beyond the present CNGS facility.  Accelerator and particle physicists
	98	together and coherently intend to plan the technical effort, comparing
	99	the physics reach of the different approaches, while closely monitoring
	100	the rapid evolution of the field.  We apply for EC support to <b>a
	101	decisive enhancement of the Networking Activity</b> aspect of our initiative.
	102	<p><br>While Europe is presently building a <font color="#000000"><font size=+1>?</font></font><font size=-2>?
	103	</font>facility (<b>CNGS</b>) based on a conventional ? decay tunnel, the
	104	concept of a <b>Neutrino Factory</b>, novel multi-accelerator complex whose
	105	final stage is a high energy <font size=+0>?</font> storage & decay
	106	ring, has been proposed as  the ultimate tool for precise study of
	107	<font color="#000000"><font size=+0>both</font><font size=+1> ?</font></font><font size=-2>?</font><font color="#FF0000">
	108	</font>& <font color="#000000"><font size=+1>?</font><font size=-1>e
	109	</font></font>properties. Its high power p-driver would also offer, however,
	110	early on the way,  the possibility of a <b>SuperBeam</b>, a superior
	111	conventional <font color="#000000"><font size=+1>?</font></font><font size=-2>?</font>
	112	beam (as well as of an  unprecedented facility for fundamental
	113	experiments  with  slow <font size=+0>?</font>). In addition,
	114	the unique complentary physics reach of the <b>BetaBeam</b>, pure <font color="#000000"><font size=+1>?</font></font><font size=-1>e</font>
	115	beam from a high energy storage & decay ring for ?-active ions, has
	116	recently been pointed out at CERN, as a possible evolution of existing
	117	accelerators. Our NA will investigate coherently these few attractive main
	118	options<b>. </b>
	119	<p>The present European program (CNGS) is expected to produce decisive
	120	evidence of <font color="#000000"><font size=+0>transitions into</font><font size=+1>
	121	?</font></font><font size=-1>? </font>. It will operate in 2006 and will,
	122	after that, will benefit from R&D towards improved performance. In
	123	addition. not much later its coming into operation, we should have a clear
	124	view of the nature, characteristics and logistics of the investments necessary
	125	for a further major upgrade of our discovery potential in this sector.
	126	<b>This Networking Activity</b> on neutrino beams, <b>integrating all the
	127	proposed studies, aims at developping</b>, from the present basic conceptual
	128	road map, <b>a true road-map of technical milestones leading both to the
	129	most rewarding utilization of the existing facilities and to the realization
	130	of the most attractive and intense new European <font color="#000000"><font size=+1>?</font></font>
	131	facility. </b>A coherent and properly planned effort can make a Conceptual
	132	Design Report (CDR) of such a facility possible by 2008,  a conceivable
	133	date for discussions of new significant investments in an European particle
	134	physics program. We intend to foster, prepare and launch, assembling the
	135	necessary human and material resources, all the R&D and technical preparatory
	136	work indispensable to this achievement.
	137	<p><b>We plan to  continue to investigate coherently</b> the requirements
	138	posed on accelerators by this long term program of experimental LBL neutrino
	139	physics, and to define and prepare (after HARP, MUSCAT, the first BNL-CERN
	140	target experiment and other current activities) the R&D necessary for<b>
	141	our present few  main options </b>of future <b><font color="#000000"><font size=+1>?</font></font></b>
	142	beams of unprecedented intensity and quality.<font color="#000000"> This
	143	implies a number of items to be assembled.</font>
	144	<br><font color="#000000">A  <b>A wide consensus on physics requirements</b></font>
	145	<br><b><font color="#000000">A proper road map of specific priorities towards
	146	proposals of studies and R&D necessary</font></b> to
	147	<br><font color="#000000">B.<b>  choice and design of the optimal
	148	proton driver. </b></font>
	149	<br><font color="#000000">C. and D.  <b>design of an integrated Target
	150	and Collection Station</b>.</font>
	151	<br><font color="#000000">E.<b> design of a Neutrino Factory Front-end
	152	and of its acceleration system.</b></font>
	153	<br><font color="#000000">F <b> first design studies of a Betabeam.</b></font>
	154	<p>Such a coherent and coordinated European program on neutrino beams will
	155	involve the large majority of the European experts in this field and will
	156	allow Europe to play a world leader role. It will enhance considerably
	157	the collaboration between accelerator physicists on the one hand and will
	158	develop a synergy between particle physicists and accelerator physicists
	159	on the other, ensuring the long-term sustainability of the field.
	160	<p>Very limited resources are presently available in Europe for accelerator
	161	neutrino physics. The LHC crisis appears to inevitably imply reduced support
	162	from the European agencies, even to the approved CNGS program. <b>Decisive
	163	added  value would result, from </b>the <b>EC support </b>that we
	164	are requesting here, <b>to the strategic goal of producing a timely European
	165	initiative and leadership in the fondamental area of neutrino science</b>.<font color="#CCCCCC">
	166	This applies both to this Networking Activity and to R&D Projects.
	167	Among those,  HIPPI, proposed within this IA, and MICE, entering soon
	168	its final design phase, appear as the natural continuation of the R&D
	169	projects (MUSCAT, HARP and the first BNL-CERN target experiment) that,
	170	as ECFA Muon Study Groups, we have initiated in the recent past. </font>
	171	<br> </td>
	172	</tr>
	173	</table>
	174
	175	<p><b><font color="#009900"><font size=+2>Objectives and Work Packages:</font></font></b>
	176	<br>
	177	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	178	<caption>
	179	<br><tbody></tbody><tbody>
	180	<br></tbody></caption>
	181
	182	<tr>
	183	<td><i>Summary of the objectives, described in terms of work packages (where
	184	relevant) </i>
	185	<p>The practical implementation of the program will be carried out by forming
	186	<b>the following specific working group</b>
	187	<ul>
	188	<li>
	189	<b>Physics demands on neutrino accelerator facilities</b><i> </i>Coordinator:
	190	<b>M. Mezzetto(Padova)  </b>shortname: <b>PHYSICS</b><font color="#CC0000"> </font></li>
	191
	192	<table BORDER CELLSPACING=2 CELLPADDING=2 WIDTH="100%" >
	193	<caption><tbody>
	194	<br></tbody></caption>
	195
	196	<tr>
	197	<td VALIGN=TOP>
	198	<ul>
	199	<li>
	200	<font color="#330033"><b>The group will establish a consensual set of physics
	201	requirements,</b>  mainly emerging from collective studies of <b><font size=+1>?</font></b>
	202	oscillation physics, on the ultimate reach of the CNGS and on the value
	203	of a Neutrino Factory,  Super-beam,  Beta-beam or combinations
	204	of them (but also on the value of additional powerful facilities made possible
	205	by a high power proton driver, slow muons and much  more).  It
	206	will have to take  into account the likely availability of funding
	207	and the state of the relevant technologies and provide indications driving
	208	the main choices listed below. More information is provided in table PHYSICS
	209	and </font><font color="#CCCCCC"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/Network,%20TARGETS.doc">
	210	much more information is available here.</a></font></li>
	211
	212	<li>
	213	</li>
	214
	215	<li>
	216	</li>
	217
	218	<li>
	219	<font color="#CCCCCC">Monitor the development of the field of n-physics
	220	(SNO, Kamland, K2K, NuMI, ) and identify the most rewarding experimental
	221	and technical strategy</font></li>
	222
	223	<li>
	224	<font color="#CCCCCC">Follow closely realization & operation of the
	225	CNGS. Assess, at a later stage, gains in performance resulting from the
	226	HIPPI Joint Research Project, enhancements of neutrino yield per proton,
	227	in particular for future searches of the subdominant transition leading
	228	to nue appearance, ultimate intensity limitations. Explore nature, characteristics
	229	and logistics of the investments necessary for further major upgrades of
	230	the facilitiy.<b>A. Guglielmi (Padova) </b>is the <i>proposed </i>coordinator
	231	of this subset of the effort .....</font></li>
	232
	233	<li>
	234	<font color="#CCCCCC">Evaluate the impact on physics of n beam characteristics
	235	(neutrino energy, baseline, power & flux, energy spread, beam emittance,
	236	timing) for different type of beam (Superbeam, Neutrino Factory, Betabeam).
	237	Define a strategy of successive measurements of neutrino oscillation rates
	238	with  different beams and baselines capable of a complete mapping
	239	of the mixing matrix overcoming ambiguities, correlations & degeneracies. </font></li>
	240	</ul>
	241
	242	<ul>
	243	<li>
	244	<font color="#CCCCCC">Identify realistic and concrete future options building
	245	on existing or planned european accelerator facilities and undergound neutrino
	246	detector laboratories (LNGS, Frejus etc). </font></li>
	247
	248	<li>
	249	<font color="#CCCCCC">Keep other interesting physics in view; in particular
	250	foster the design of a new high intensity slow muon facility <b>A. V. der
	251	Schaaf (Zurich)</b> is the <i>proposed </i>coordinator of this subset of
	252	the effort.........................  all this is being  properly
	253	reformulated by the Coordinator  ...... </font></li>
	254	</ul>
	255
	256	<ul>
	257	<li>
	258	</li>
	259	</ul>
	260
	261	<ul>
	262	<li>
	263	<font color="#CCCCCC">Study the optimization of future  n beams in
	264	terms of beam energy, beam structure, composition, flux, emittance, baseline
	265	etc. Study a design of the different beam options capable to reduce at
	266	minimum systematic errors.</font></li>
	267
	268	<li>
	269	<font color="#CCCCCC">Study the coherence of the neutrino detector(s) located
	270	close to the Superbeam decay tunnel with the beam instrumentationin target/collector/tunnel/dump
	271	areas. Do the same for the BetaBeam and Neutrino Factory.</font></li>
	272
	273	<li>
	274	<font color="#CCCCCC">Develop and define the analysis method for assessing
	275	the physics potential of different experiments</font></li>
	276
	277	<li>
	278	<font color="#CCCCCC">Monitor the development of the field of n-physics
	279	(SNO, Kamland, K2K, MiniBoone and further). Their results will provide
	280	the necessary information for the process of optimization.</font></li>
	281
	282	<li>
	283	<font color="#CCCCCC">Study the potential of already aproved experiments
	284	MINOS and CNGS</font></li>
	285
	286	<li>
	287	<font color="#CCCCCC">Study near term options: roadmap to a initial SB
	288	versus future reactor experiments (theta_13..)</font></li>
	289
	290	<li>
	291	<font color="#CCCCCC"> Define a strategy of successive measurements
	292	in the different beams capable of a complete mapping of the mass hierarchy
	293	and of the mixing matrix, including in particular the CP violating phase
	294	delta, overcoming ambiguities, correlations & degeneracies.
	295	Define the possible synergies between SuperBeams, BetaBeams and Neutrino
	296	Factories.</font></li>
	297	</ul>
	298
	299	<ul>
	300	<li>
	301	<font color="#CCCCCC">Identify realistic and concrete future options building
	302	on existing or planned european accelerator facilities and undergound neutrino
	303	detector laboratories (LNGS, Frejus etc).. </font></li>
	304
	305	<li>
	306	<font color="#CCCCCC">Identify and promote a serie of ancillary experiments
	307	devoted to reduce the experimental systematic errors:  measurements
	308	of neutrino cross sections, particle identification, charge measurement
	309	etc.</font></li>
	310
	311	<li>
	312	<font color="#CCCCCC">Implement the results of dedicated experiments (Muscat,
	313	Harp) in the simulation Monte Carlo codes. Promote the developing of MonteCarlo
	314	codes suitable to the simulation of the future beam lines.</font></li>
	315
	316	<li>
	317	<font color="#CCCCCC">Keep other interesting physics in view; in particular
	318	foster the design of a new high intensity slow muon facility <b>A. V. der
	319	Schaaf (Zurich)</b> is the <i>proposed </i>coordinator of this subset of
	320	the effort.</font></li>
	321
	322	<li>
	323	</li>
	324	</ul>
	325	<font color="#000000">It should finally be kept in view that the launch
	326	of neutrino detector studies and R&D, for future neutrino beams, will
	327	also become a necessity, at some point. </font>
	328	<br> </td>
	329	</tr>
	330	</table>
	331
	332	<li>
	333	<b>High Power proton drivers</b> Coordinator:<b> P. Debu (CEA) </b>shortname:
	334	<b>DRIVER</b> </li>
	335
	336	<table BORDER CELLSPACING=2 CELLPADDING=2 WIDTH="100%" >
	337	<caption><tbody>
	338	<br></tbody></caption>
	339
	340	<tr>
	341	<td VALIGN=TOP>
	342	<ul>
	343	<li>
	344	<b><font color="#000000">The group will foster the choice and design of
	345	a proton driver. </font></b><font color="#000000">Several possibilities
	346	are being considered: Superconductive Proton Linacs and similar CW machines
	347	in linear or cyclotron mode and/or  Rapid Cycling Synchrotron.
	348	A careful study of the pros ccons of the various option, using the HARP
	349	data on particle production, could bring to definition of the baseline
	350	option <b>by NUFACT05 (spring 2005</b>)<b> </b>pmaking complete design
	351	possible in view of a CDR in 2008 <b>. </b></font><font color="#330033">More
	352	information is provided in table DRIVER and </font><font color="#CCCCCC"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/Network,%20TARGETS.doc">much
	353	more information is available here.</a></font></li>
	354
	355	<br>
	356	<li>
	357	</li>
	358
	359	<li>
	360	</li>
	361
	362	<li>
	363	<font color="#CCCCCC">Perform the studies of the several critical elements
	364	demanded for R&D towards high intensity proton drivers:
	365	a reliable intense source of H- ions,
	366	a very fast beam chopper to select the bunches to be injected inside the
	367	following synchrotron buckets,
	368	the various accelerating structures, drift tube linacs, hybrid drift tube
	369	linacs, coupled cavities, side coupled linacs, low b superconducting structures,
	370	the RF system
	371	the high intensity beam diagnostics and a very precise beam dynamics simulation
	372	code to estimate the beam halo and losses </font></li>
	373
	374	<li>
	375	<font color="#CCCCCC">Share the expertise among the various laboratories
	376	and establish a common R&D strategy</font></li>
	377
	378	<li>
	379	<font color="#CCCCCC">Assess and disseminate the results of the Joint Research
	380	Project on High Intensity Pulsed Proton Injectors (HIPPI) which is proposed
	381	within this IA (I3). </font></li>
	382
	383	<li>
	384	<font color="#CCCCCC">Progress on the conceptual design of  a Rapid
	385	Cycling Synchrotron ring alternative and/or complementary to Superconducting
	386	Proton Linac  .................. all this is to be revised, refined
	387	and finalized  by the Coordinator  .</font></li>
	388	</ul>
	389	</td>
	390	</tr>
	391	</table>
	392
	393	<li>
	394	<b>High power targets (concept, materials, installations)</b> Coordinator<b>
	395	R.Bennett (RAL)  </b>shortname: <b>TARGET</b> </li>
	396
	397	<table BORDER CELLSPACING=2 CELLPADDING=2 WIDTH="100%" >
	398	<caption><tbody>
	399	<br></tbody></caption>
	400
	401	<tr>
	402	<td>
	403	<ul>
	404	<li>
	405	<b><font color="#000000">The group will share with the COLLECTOR group
	406	the aim to foster the choice and design an integrated Target and Collection
	407	Station</font></b><font color="#000000">. Considerable  progress was
	408	achieved, in collaboration with the US, for the option of a liquid metal
	409	target with collection by a high field solenoid. This requires now the
	410	design and construction or refurbishment of large (20T or so) solenoid.
	411	Alternative options include other targets (liquid jet, solid levitating
	412	rings, solid granular targets) imbedded in a solenoid or a horn. Use of
	413	several target & horn systems in parallel is also proposed. <b>Work
	414	on a proposal to set up a target test area (TTA)</b> in Europe including
	415	a beam, a liquid jet and a high field solenoid <b>is in progress</b>. <b>A
	416	proposal for a test area </b>to test the limits <b>of  horns </b>in
	417	term of rep. rate and sustainable beam power (resistance to radiation)
	418	<b>is also being prepared</b>. <b> A viable final design</b> of target
	419	and collection area <b>for 4->10 MW</b> beam power, perhaps the most formidable
	420	challenge of the entire program,  including aspects of safety, radiation
	421	and waste disposal, <b>may thus be achieved by 2008 </b></font><font color="#330033">More
	422	information is provided in table TARGET and </font><font color="#CCCCCC"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/Network,%20TARGETS.doc">much
	423	more information is available here.</a></font></li>
	424
	425	<li>
	426	</li>
	427
	428	<li>
	429	<font color="#CCCCCC">Review the oustandingly severe technical problems
	430	in dissipating high power densities in targets for the proposed neutrino
	431	factories 1)  effective heat removal  2) sustainability of
	432	severe pulsing shock waves 3) operation in large B field  4) integration
	433	in densely packed general layout 5) guarantee of safety in operation, maintenance
	434	& disposal </font></li>
	435
	436	<li>
	437	<font color="#CCCCCC">Review merits & limitations of main leading technologies
	438	(molten metal jet or contained flow, tantalum spheres,  rotating bands
	439	... ), none yet conclusively shown to work. Explore all new emerging options. </font></li>
	440
	441	<li>
	442	<font color="#CCCCCC">Define an R&D roadmap towards solutions capable
	443	to overcome limitations, actively liasing with similar efforts for pulsed
	444	neutron facilities and radioactive beam facilities, in Europe, the USA
	445	and Japan .</font></li>
	446
	447	<li>
	448	<font color="#CCCCCC">Form R&D project collaborations aiming at proving
	449	realistic, safe and economic feasibility of one or more option.  NB
	450	the target sector apperas as the one most dangerous potential show stopper
	451	at the moment!  .................. all this is to be revised, refined
	452	and finalized  by the Coordinator  . </font></li>
	453
	454	<li>
	455	<font color="#CCCCCC">The following issues need to be addressed:</font></li>
	456
	457	<p><br><font color="#CCCCCC">1.    Thermal dissipation and
	458	distribution in the target due to the beam</font>
	459	<br><font color="#CCCCCC">2.    Thermal dissipation and
	460	distribution in the beam dump due to the beam</font>
	461	<br><font color="#CCCCCC">3.    Thermal dissipation and
	462	distribution in the surroundings horn, solenoid etc.</font>
	463	<br><font color="#CCCCCC">4.    Radiation damage to the
	464	target</font>
	465	<br><font color="#CCCCCC">5.    Radiation damage to the
	466	beam dump</font>
	467	<br><font color="#CCCCCC">6.    Radiation damage to the
	468	surroundings horn, solenoid etc.</font>
	469	<br><font color="#CCCCCC">7.    Thermal cooling studies
	470	for the different target designs and the beam dump</font>
	471	<br><font color="#CCCCCC">Impact on the surroundings horn, solenoid etc.</font>
	472	<br><font color="#CCCCCC">Water cooling requirements; activity in water.
	473	Helium cooling and activity.</font>
	474	<br><font color="#CCCCCC">8.    Nuclear radiation heating
	475	and cooling in the target and the surroundings</font>
	476	<br><font color="#CCCCCC">9.    Evolution of gases from
	477	the targets and surroundings. </font>
	478	<br><font color="#CCCCCC">Assess radioactive inventory and disposal.</font>
	479	<br><font color="#CCCCCC">10.    Shock stress in solid targets
	480	and lifetime</font>
	481	<br><font color="#CCCCCC">11.    Effects of pulsed proton
	482	beam on mercury jets</font>
	483	<br><font color="#CCCCCC">12.    Effects of pulsed proton
	484	beam on contained flowing mercury targets</font>
	485	<br><font color="#CCCCCC">13.    Effects of the magnetic
	486	field on the jet, contained mercury and rotating band targets</font>
	487	<br><font color="#CCCCCC">14.    Mechanical design and maintenance
	488	of each target design and the beam dump</font>
	489	<br><font color="#CCCCCC">The impact on the surroundings horn, solenoid
	490	etc.</font>
	491	<br><font color="#CCCCCC">15.    Disposal of radioactive
	492	items</font>
	493	<br><font color="#CCCCCC">16.    Are proton and pion beam
	494	windows required? </font>
	495	<br><font color="#CCCCCC">Design of proton beam windows at this intensity</font>
	496	<br><font color="#CCCCCC">17.    Health and Safety issues
	497	radiation and chemical (with mercury)</font>
	498	<br><font color="#CCCCCC">18.    Safety legislation - requirements</font></ul>
	499	</td>
	500	</tr>
	501	</table>
	502
	503	<li>
	504	<b>High power collection systems (horns, solenoids, etc)</b><i>  </i>Coordinator<b>
	505	J. E. Campagne (LAL) </b><i> </i>shortname: <b>COLLECTOR</b> </li>
	506
	507	<table BORDER CELLSPACING=2 CELLPADDING=2 WIDTH="100%" >
	508	<caption><tbody>
	509	<br></tbody></caption>
	510
	511	<tr>
	512	<td><b><font color="#000000">The major motivation of this group is that
	513	the Collection System for the high intensity neutrino beams foreseen </font></b>
	514	<br><b><font color="#000000">in SuperBeam and ultimatly Neutrino Factory
	515	projects will have to keep up with unprecedent challenging conditions. </font></b>
	516	<br><b><font color="#000000">So, the group will share with the TARGET group
	517	the aim to foster the choice and the design of an integrated Target and </font></b>
	518	<br><font color="#000000"><b>Collection Station</b>. The group will focus
	519	on "horn" technology those general principles are well known but it will
	520	push the concept</font>
	521	<br><font color="#000000">at the limits. To do so, it will take benefit
	522	of the experience of the Europeen CNGS horn presently in construction,
	523	and also on gathering </font>
	524	<br><font color="#000000">experience of past and present european and non-european
	525	neutrino beam horn designs. The group will propose Researches </font>
	526	<br><font color="#000000">and Developments to validate technical choices
	527	that will emerge from conceptual studies. </font>
	528	<br><font color="#330033">More information is provided in table COLLECTOR
	529	and </font><font color="#CCCCCC"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/Network,%20TARGETS.doc">much
	530	more information is available here.</a></font>
	531	<ul>
	532	<li>
	533	</li>
	534
	535	<li>
	536	<font color="#CCCCCC">Study limitations of the present technologies
	537	consequences of high power dissipation in targets for the design of collection
	538	systems
	539	resistance of different materials proposed  for collectors operating
	540	under severe radiation condition
	541	simulated predictions  of thermal stress, mechanical stresses and
	542	fatigue from  neutron irradiation                                                                                                        </font></li>
	543
	544	<li>
	545	<font color="#CCCCCC">Estimate reliably  lifetime expectations under
	546	unprecedented operation conditions (highly radiactive enviroments at high
	547	repetetition rate). </font></li>
	548
	549	<li>
	550	<font color="#CCCCCC">compare focusing and collection capabilities of the
	551	few main options of collection systems, as simulated by the few main existing
	552	codes</font></li>
	553
	554	<li>
	555	<font color="#CCCCCC">define, in collaboration with the TARGET team,
	556	a viable solution to all the integration problems imposed by the need of
	557	locating the target inside the collector</font></li>
	558
	559	<li>
	560	<font color="#CCCCCC">form R&D projects and establish collaborations
	561	for the design and test of horns and other collection systems,.as they
	562	are likely to evolve to cope with increasingly severe conditions, from
	563	the present conventional beams up to full power neutrino factories
	564	........................  all this is to be revised, refined and finalized
	565	by the Coordinator  . </font></li>
	566
	567	<li>
	568	<font color="#CCCCCC">The major motivation of a Network Activity and also
	569	R&D studies in this field  is that the collection system for the
	570	future neutrino beams will have to keep up with unprecendent challenging
	571	conditions as such as 1) more than one order magnitude more electric stresses
	572	(expressed in A.Hz) than the MiniBOON Horn and  more than two orders
	573	of magnitudes than the present K2K Horn and the future NuMI and CNGS Horns
	574	and 2) a huge rapid neutron flux 10^22n/cm^2/6weeks due to the necessary
	575	integration of the TARGET inside the COLLECTOR system. The NA will attack
	576	the challenge by</font> </li>
	577
	578	<li>
	579	<font color="#CCCCCC">Defining, in collaboration with the TARGET team,
	580	a viable solution to all the integration problems imposed by the need of
	581	locating the target inside the collector: neutron radiation, heat load...</font></li>
	582
	583	<li>
	584	<font color="#CCCCCC">Comparing focusing and collection capabilities of
	585	the few main options of collection systems, as simulated by the few main
	586	existing codes</font></li>
	587
	588	<li>
	589	<font color="#CCCCCC">Conducting particle production and collection simulations
	590	using different Monte Carlo programs: GEANT, MARS,... </font></li>
	591
	592	<li>
	593	<font color="#CCCCCC">Conducting simulation of  thermal and mechanical
	594	stresses of the collection systems to define the critical points </font></li>
	595
	596	<li>
	597	<font color="#CCCCCC">Studing resistance of different materials proposed
	598	for collectors operating under severe radiation conditions</font></li>
	599
	600	<li>
	601	<font color="#CCCCCC">Studing the cooling system to optimize  the
	602	operating heating temperature of the alloy </font></li>
	603
	604	<li>
	605	<font color="#CCCCCC">Estimating reliably  lifetime expectations under
	606	unprecedented operation conditions (highly radioactive enviroments at high
	607	repetetition rate). </font></li>
	608
	609	<li>
	610	<font color="#CCCCCC">Proposing R&D projects and establishing collaborations
	611	for the design and test of horns and other collection systems, as they
	612	are likely to evolve to cope with increasingly severe conditions, from
	613	the present conventional beams up to full power neutrino factories </font></li>
	614
	615	<li>
	616	</li>
	617	</ul>
	618	</td>
	619	</tr>
	620	</table>
	621
	622	<li>
	623	<b>Muon Front End (ionization cooling , phase rotatiion etc ) </b>Coordinator:<b>
	624	R. Edgecock (RAL)   </b>shortname: <b>COOLING</b> </li>
	625
	626	<table BORDER CELLSPACING=2 CELLPADDING=2 WIDTH="100%" >
	627	<caption><tbody>
	628	<br></tbody></caption>
	629
	630	<tr>
	631	<td VALIGN=TOP>
	632	<ul>
	633	<li>
	634	<font face="Times New Roman, Times, serif"><font color="#000000"><font size=+0><b>The
	635	groups aims at the design of a muon frontend </b>(pion decay channel, muon
	636	phase rotation, ionization cooling and initial acceleration). The muon
	637	frontend forms one of the most complex and expensive components of a Neutrino
	638	Factory and it is essential to select the optimum design for a European
	639	Neutrino Factory based on cost and performance. The network will develop
	640	existing simulations of frontends with cooling, will investigate alternatives
	641	both with and without cooling and will interact closely with US and Japanese
	642	colleagues working on different frontend designs in those countries. It
	643	will determine what R&D needs to be performed on these frontends before
	644	a final choice can be made and will assist it doing it. It will also perform
	645	simulations of the MICE experiment, which is proposed to investigate the
	646	muon cooling technique, ionisation cooling, to ensure that all the relevant
	647	information for the frontend selection that can be produced is made available
	648	and will participate in the analysis of the data. The network will conclude
	649	with a conceptual design report for the selected frontend. </font></font></font><font color="#330033">More
	650	information is provided in table COOLING and </font><font color="#CCCCCC"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/Network,%20TARGETS.doc">much
	651	more information is available here.</a></font></li>
	652	</ul>
	653
	654	<blockquote><font color="#CCCCCC"><b>The design of the Neutrino Factory
	655	Front-end </b>(Ionization Cooling, Phase rotation) <b>and of acceleration.
	656	</b>The <b>MICE experiment is being proposed</b> and constitutes the major
	657	experimental effort in the area of muon cooling. <b>R&D</b> <b>towards
	658	</b>cheap, high peak power, pulsed <b>RF power sources and fast kickers
	659	with large acceptance for future ring coolers is being undertaken</b>.
	660	Comparative studies will be necessary of the two different European and
	661	American preliminary baseline front end designs (tboth based on cooling),
	662	as well as of the Japanese scheme that relies on little or no cooling,
	663	by means of a cascade of  very large aperture (Fixed Field Alternated
	664	Gradient) accelerators. <b>A viable final design</b> of the front end <b>can
	665	thus be achieved by 2008</b>. The acceleration scheme, with re-circulating
	666	linacs or with FFAG, must also be defined down to complete conceptual design.</font></blockquote>
	667
	668	<br>
	669	<ul>
	670	<li>
	671	<font color="#CCCCCC">Develop the baseline European  design of the
	672	muon front end, including more realistic RF and B fields and engineering
	673	context.</font></li>
	674
	675	<li>
	676	<font color="#CCCCCC">Investigate alternative front end designs, ranging
	677	from extended (cooling rings) to no application of cooling. </font></li>
	678
	679	<li>
	680	<font color="#CCCCCC">Establish, through detailed simulation,  plans
	681	for additional experiments in MICE beyond its baseline plans</font></li>
	682
	683	<li>
	684	<font color="#CCCCCC">Assess the potential of MICE as a general tool to
	685	measure emittance reduction of  a variety of front end designs. </font></li>
	686
	687	<li>
	688	<font color="#CCCCCC">Outline the road map for assessing muon front ends
	689	and defining the R&D towards the realization of one</font></li>
	690
	691	<li>
	692	<font color="#CCCCCC">Consolidate the links with the front end R&D
	693	geoups  in US and Japan .......................   all this
	694	is to be revised, refined and finalized  by the Coordinator
	695	. </font></li>
	696	</ul>
	697	</td>
	698	</tr>
	699	</table>
	700
	701	<li>
	702	<b>Beta-beams R&D (ion sources, acceleration, storage)</b><i> </i>Coordinator:
	703	<b>M. Lindroos(CERN)  </b>shortname: <b>BETABEAM</b> </li>
	704
	705	<table BORDER CELLSPACING=2 CELLPADDING=2 WIDTH="100%" >
	706	<caption><tbody>
	707	<br></tbody></caption>
	708
	709	<tr>
	710	<td VALIGN=TOP>
	711	<ul>
	712	<li>
	713	<font color="#000000"><b>The group will prepare a preliminary design study
	714	of a Betabeam.</b> <i>Some more description is probably needed here</i>.
	715	In preparation for that, we are considering  target development studies
	716	at ISOLDE and possibly at at ISAC with high intensity proton beam,
	717	pre-acceleration, accumulation and storage studies at existing facilities
	718	(TSL in Uppsala, ESR at GSI, LEIR at CERN), and low intensity test (possibly
	719	in the SPS) of the high energy accumulation scheme using stable ions. <b>This
	720	could result in a conceptual design report by 2008. </b></font><font color="#330033">More
	721	information is provided in table BETABEAM and </font><font color="#CCCCCC"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/Network,%20TARGETS.doc">much
	722	more information is available here.</a></font></li>
	723
	724	<li>
	725	</li>
	726
	727	<li>
	728	<font color="#CCCCCC">A "green field" study of a betabeam facility to establish
	729	limits imposed by using existing facilities and to create a site independent
	730	alternative </font></li>
	731
	732	<li>
	733	<font color="#CCCCCC">A R&D roadmap including preparation (or execution,
	734	where possible) of R&D project collaborations, like
	735	1) target development studies at ISOLDE with possible tests at ISAC with
	736	high intensity proton beam
	737	2) pre-acceleration, accumulation and storage studies at existing facilities
	738	(TSL in Uppsala, ESR at GSI, LEIR at CERN)
	739	3) low intensity test (in the SPS ? ) of the high energy accumulation scheme
	740	using stable ions</font></li>
	741
	742	<li>
	743	<font color="#CCCCCC">Preparation of a proposal for a Design Study of all
	744	different parts of a complete beta beam facility.
	745	.......................   all this is to be revised, refined
	746	and finalized  by the Coordinator  .      </font> </li>
	747	</ul>
	748	</td>
	749	</tr>
	750	</table>
	751	</ul>
	752	</td>
	753	</tr>
	754	</table>
	755
	756	<p><b><font color="#009900"><font size=+2>Contracting Participants:</font></font></b>
	757	<br>
	758	<table BORDER COLS=5 WIDTH="100%" BGCOLOR="#FFFFFF" >
	759	<caption><tbody>
	760	<br></tbody></caption>
	761
	762	<tr>
	763	<td ALIGN=CENTER WIDTH="6"><b>Participant number</b></td>
	764
	765	<td ALIGN=CENTER><b>Organisation name </b>
	766	<br> <b>(and short name)</b></td>
	767
	768	<td ALIGN=CENTER WIDTH="6"><b>Local responsible</b> <b>and team members,
	769	number of FTE (incl. associated members)</b></td>
	770
	771	<td ALIGN=CENTER><b>Interests, expertise </b> <b>(and relevant WPs)</b></td>
	772
	773	<td ALIGN=CENTER><b>Associated members (short names), number of FTEs</b></td>
	774	</tr>
	775
	776	<tr>
	777	<td ALIGN=CENTER>1  (co-ordinator)</td>
	778
	779	<td ALIGN=CENTER>Sezione
	780	<br>INFN
	781	<br> Napoli, Italy
	782	<br><b>(INFN-<font color="#FF0000">nu</font></b>)</td>
	783
	784	<td ALIGN=CENTER WIDTH="6">Vittorio.Palladino@napoli.infn.it
	785	<br><font color="#3366FF"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">>8
	786	scientists, >0,7 FTE</a></font></td>
	787
	788	<td><font face="Times New Roman, Times, serif">Organization co-ordinating
	789	a consortium of physicists fr<font size=-1>om Italian Universities and
	790	Sezioni INFN (see Table below) contributing long term expertise in the
	791	field of neutrino physics, experiments & beams (design, detailed simulation,
	792	operation and analysis of their data), involved in several major R&D
	793	projects in progress (HARP,MICE). It will contribute  to the <b>general
	794	</b>steering </font></font><font size=-1>and to the <b>PHYSICS, COLLECTOR,
	795	COOLING and BETABEAM</b> WPs</font></td>
	796
	797	<td ALIGN=CENTER><font color="#3366FF">Padova, Genova, Legnaro, </font>
	798	<br><font color="#3366FF">and possibly more</font>
	799	<br> </td>
	800	</tr>
	801
	802	<tr>
	803	<td ALIGN=CENTER>2</td>
	804
	805	<td>
	806	<center> Laboratori. Nazionali
	807	<br>INFN, Frascati, Italy
	808	<br>(<b>LNF</b>)</center>
	809	</td>
	810
	811	<td ALIGN=CENTER WIDTH="6">Michele.Castellano or
	812	<br>Mauro.Migliorati@lnf.infn.it
	813	<br><font color="#3366FF"><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">3
	814	scientists, 0,6 FTE</a></font>
	815	<br> </td>
	816
	817	<td>T<font size=-1>he Laboratory will contribute to the studies of <b>COOLING
	818	</b>techniques both theoretical (simulation, design) and experimental (measurements
	819	of emittances) as well as to the <b>general </b>steering <i>(and to the
	820	<b>PHYSICS </b></i></font><font face="Times New Roman, Times, serif"><font size=-2><i>WP</i>').</font></font></td>
	821
	822	<td ALIGN=CENTER>
	823	<br> </td>
	824	</tr>
	825
	826	<tr>
	827	<td ALIGN=CENTER>3
	828	<br> </td>
	829
	830	<td ALIGN=CENTER>CERN, Geneva, Switzerland
	831	<br><b>(CERN)</b></td>
	832
	833	<td ALIGN=CENTER WIDTH="6">Helmut.Haseroth@cern.ch
	834	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">12
	835	scientists, 1,75 FTE</a></td>
	836
	837	<td><font size=-1>The Laboratory has made together with other European
	838	labs a feasibility study for a Neutrino Factory and is currently building
	839	the next European neutrino beam (CNGS). It will provide expertise and some
	840	leadership in the R&D for a neutrino factory in general and specifically
	841	in target technology. Theoretical and experimental among the users physicists
	842	will be contributing leading expertise in the field of neutrino physics,
	843	experiments & beams and promotion of betabeam studies. Depending on
	844	the requirements excellent test beams may be available. <font face="Times New Roman, Times, serif">It
	845	will contribute  to  the <b>general </b>steering </font>and to
	846	the <b>TARGET, COLLECTOR, COOLING, BETABEAM</b></font> <font size=-1>WPs</font>
	847	<i><font size=-1>and  probably more</font></i>. </td>
	848
	849	<td ALIGN=CENTER></td>
	850	</tr>
	851
	852	<tr>
	853	<td ALIGN=CENTER VALIGN=TOP>
	854	<br>
	855	<p>4
	856	<br> </td>
	857
	858	<td ALIGN=CENTER VALIGN=TOP>Univ. of Geneva,  Geneva, Switzerland
	859	<br><b>(CH-<font color="#FF0000">nu</font>)</b>
	860	<br> </td>
	861
	862	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Alain.Blondel@unige.ch or Andre.Rubbia@cern.ch
	863	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">2
	864	scientists, ? FTE</a></td>
	865
	866	<td VALIGN=TOP><font size=-1>Organization coordinating a consortium of
	867	physicists from Swiss Universities (including ETH and Zurich) contributing
	868	long term expertise in the field of neutrino physics, experiments &
	869	beams (design, detailed simulation, operation and analysis of their data),
	870	expertise in horn technology and in the field of intense low energy muon
	871	beams and leadership in the experimental studies of muon ionisation cooling,.
	872	It will contribute to  the <b>general </b>steering and to the <b>PHYSICS,
	873	TARGET, HORN, COOLING </b>WPs <i>and  probably more</i></font>.</td>
	874
	875	<td ALIGN=CENTER VALIGN=TOP>
	876	<p><font color="#3366FF">Zurich, ETH?,      Novosibirsk?</font>
	877	<br> </td>
	878	</tr>
	879
	880	<tr>
	881	<td ALIGN=CENTER VALIGN=TOP>
	882	<br>5
	883	<br> </td>
	884
	885	<td VALIGN=TOP>
	886	<center>Paul Scherrer Institute, Villigen, Switzerland
	887	<br><b>(PSI</b>)</center>
	888	</td>
	889
	890	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Knud.Thomsen@psi.ch
	891	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">2
	892	scientists, 0,2 FTE</a></td>
	893
	894	<td VALIGN=TOP>The Laboratory operates the highest power proton machine
	895	presently available and can <font size=-1>contribute long term expertise
	896	in most sectors. It will specifically contribute to the <b>general </b>steering
	897	and to the studies of <b>TARGET </b>technologies. </font></td>
	898
	899	<td ALIGN=CENTER VALIGN=TOP></td>
	900	</tr>
	901
	902	<tr>
	903	<td ALIGN=CENTER VALIGN=TOP>
	904	<p>6</td>
	905
	906	<td ALIGN=CENTER VALIGN=TOP>Rutherford Appleton Laboratory, Didcot,UK
	907	<br><b>(CCLRC)</b></td>
	908
	909	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">P.R.Norton@rl.ac.uk or  K.Peach@rl.ac.uk
	910	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">?
	911	scientists, ? FTE</a></td>
	912
	913	<td VALIGN=TOP>T<font size=-1>he Laboratory will contribute to the studies
	914	towards a Neutrino factory in general, and specifically to studies of proton
	915	drivers and targets. It is providing the home and the technical and human
	916	resources to make experimental studies of muon ionisation cooling possible.
	917	<i><font color="#FF0000">Infrastructure providing access?</font></i> It
	918	will contribute to the <b>general </b>steeering and to the  <b>PHYSICS,
	919	DRIVER, TARGET, COOLING </b>WPs <i>and probably more ....</i> <font face="Times New Roman, Times, serif"> <i>
	920	</i></font><i><font color="#3366FF">to be revised by the local responsible</font></i></font></td>
	921
	922	<td ALIGN=CENTER VALIGN=TOP><font color="#3366FF"> all the UK Universities?</font>
	923	<p><font color="#3366FF">ITEP?</font>
	924	<br>
	925	<br> </td>
	926	</tr>
	927
	928	<tr>
	929	<td ALIGN=CENTER VALIGN=TOP>
	930	<p>7</td>
	931
	932	<td ALIGN=CENTER VALIGN=TOP>Imperial College, London, UK
	933	<br>   <b>(UK-<font color="#FF0000">nu</font>)</b></td>
	934
	935	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Kenneth.Long@ic.ac.uk
	936	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">?
	937	scientists, ? FTE</a>
	938	<br> </td>
	939
	940	<td VALIGN=TOP>Organization coordinating a consortium of physicists from
	941	UK Universities, including Oxford <i>and who else?,</i> contributing long
	942	term expertise in the field of neutrino physics, experiments & beams),
	943	involved in most major R&D projects in progress (HARP, MUSCAT, MICE).<font size=-1>
	944	It will contribute to  the <b>general </b>steeering and to the
	945	<b>PHYSICS, DRIVER, TARGET, COOLING </b>WPs <i>and probably more.</i> <font face="Times New Roman, Times, serif">
	946	</font><i><font color="#3366FF">to be revised by the local responsible</font></i></font></td>
	947
	948	<td ALIGN=CENTER VALIGN=TOP><font color="#3366FF"> Oxford? A few more?</font>
	949	<br> </td>
	950	</tr>
	951
	952	<tr>
	953	<td ALIGN=CENTER VALIGN=TOP>
	954	<br>8
	955	<br> </td>
	956
	957	<td ALIGN=CENTER VALIGN=TOP>Forschungszentrum, Julich, Germany
	958	<br><b>(FZJ)</b></td>
	959
	960	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">g.bauer@fz-juelich.de
	961	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">?
	962	scientists, ? FTE</a></td>
	963
	964	<td VALIGN=TOP>The Laboratory will contribute to the <b>general </b>steering
	965	and to studies of <font size=-1>high power</font><b> TARGETry </b><font size=-1>and
	966	related technologies with emphasis on liquid metal targets and their enclosure.
	967	The main sectors will be: studies relating to the effects of pressure wave
	968	mitigation in targets exposed to intense short pulses of energetic particles;
	969	radiation effects in target walls and on the wall-liquid interface; fluid
	970	dynamics and thermal hydraulics/ thermomechanics, spallation products and
	971	associated technology issues; loop components, diagnostics and remote handling
	972	issues; waste management</font>.<font size=-2> <i><font color="#3366FF">to
	973	be revised by the local responsible</font></i></font></td>
	974
	975	<td ALIGN=CENTER VALIGN=TOP>
	976	<br>Institute of Physics, University of Latvia(IPUL),
	977	<br>
	978	<p>NRG, Petten, NL</td>
	979	</tr>
	980
	981	<tr>
	982	<td ALIGN=CENTER VALIGN=TOP>
	983	<br>9</td>
	984
	985	<td ALIGN=CENTER VALIGN=TOP>GSI (Gesellshaft fur Schwerionenforschung)
	986	<br>Darmstadt, Germany
	987	<br><b>(GSI)</b></td>
	988
	989	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">B.Franzke@gsi.de
	990	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">5
	991	scientists, 0,5 FTE</a></td>
	992
	993	<td VALIGN=TOP>The Laboratory will contribute to the studies of beam dynamics
	994	in general, high intensity phenomena, beam stability<font face="Times New Roman, Times, serif"><font size=-2>.
	995	Main interest is in the <b>general </b>steering and  in the <b>BETABEAM
	996	</b>WP. ... </font><i><font color="#3366FF"><font size=-1>to be revised
	997	by the local responsible</font></font></i></font></td>
	998
	999	<td ALIGN=CENTER VALIGN=TOP></td>
	1000	</tr>
	1001
	1002	<tr>
	1003	<td ALIGN=CENTER VALIGN=TOP>
	1004	<br>10</td>
	1005
	1006	<td ALIGN=CENTER VALIGN=TOP>Technical University Muenchen, Germany
	1007	<br> <b>(D-<font color="#FF0000">nu</font>)</b></td>
	1008
	1009	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Manfred.Lindner@ph.tu-muenchen.de
	1010	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">5
	1011	scientists, 2,05 FTE</a></td>
	1012
	1013	<td VALIGN=TOP><font size=-1>Organization grouping around it a consortium
	1014	of physicists from Germany Universities, <i>including Dortmund</i>, contributing
	1015	long term expertise in the field of neutrino <i>and muon  </i>physics
	1016	and experiments.  It will contribute to the <b>general </b>steering
	1017	and studies of the <b>PHYSICS </b>potential of future long baseline experiments.
	1018	The studies aim at guiding the exploration, planning and construction of
	1019	conceivable setups by identifying the capabilities and the crucial components
	1020	and limitations.</font></td>
	1021
	1022	<td VALIGN=TOP>
	1023	<i>Dortmund? </i></td>
	1024	</tr>
	1025
	1026	<tr>
	1027	<td ALIGN=CENTER VALIGN=TOP>
	1028	<br>11
	1029	<br> </td>
	1030
	1031	<td ALIGN=CENTER VALIGN=TOP>
	1032	<br>CEA/DSM/DAPNIA, Saclay, France (CEA)
	1033	<br> <b>(CEA)</b></td>
	1034
	1035	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">pascal.debu@cea.fr
	1036	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">17
	1037	scientists, 2,0 FTE</a></td>
	1038
	1039	<td VALIGN=TOP><font size=-1>The laboratory will mostly contribute to the
	1040	studies of high power proton <b>DRIVERs </b>especially the low energy end,
	1041	but also to <b>general </b>steering, to the definition of the <b>PHYSICS
	1042	</b>demands on neutrino accelerator facilities, the <b>COLLECTOR </b>systems,
	1043	the <b>COOLING </b>effort and the <b>BETABEAM </b>R&D.</font></td>
	1044
	1045	<td ALIGN=CENTER VALIGN=TOP>
	1046	<br> </td>
	1047	</tr>
	1048
	1049	<tr>
	1050	<td ALIGN=CENTER VALIGN=TOP>
	1051	<p>12
	1052	<br> </td>
	1053
	1054	<td ALIGN=CENTER VALIGN=TOP>
	1055	<br>IN2P3, France
	1056	<br><b>(IN2P3-<font color="#FF0000">nu</font>)</b></td>
	1057
	1058	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Stavros.Katsanevas@admin.in2p3.fr
	1059	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">9
	1060	scientists, 2,35 FTE</a></td>
	1061
	1062	<td VALIGN=TOP><font size=-1>The Institute will coordinate a consortium
	1063	including physicists from French CNRS and University Laboratories
	1064	(IPN Lyon, LAL, LPNHE Paris VI&VII) contributing long term expertise
	1065	in the field of neutrino <b>PHYSICS, </b>experiments &  beams.
	1066	It expects then to contribute to the <b>general </b>steering and provide
	1067	technical expertise in the field of <b>COLLECTOR </b>technology (and of
	1068	<b><font color="#CC0000">BETABEAM ????</font></b> )</font> <font size=-1>design
	1069	studies.</font><font face="Times New Roman, Times, serif"><font size=-2>..
	1070	</font><i><font color="#3366FF"><font size=-1>to be revised by the local
	1071	responsible</font></font></i></font></td>
	1072
	1073	<td ALIGN=CENTER VALIGN=TOP><font color="#3366FF"> IPN Lyon, LAL,
	1074	LNPHE Paris 6&7</font></td>
	1075	</tr>
	1076
	1077	<tr>
	1078	<td ALIGN=CENTER VALIGN=TOP>
	1079	<p>13</td>
	1080
	1081	<td ALIGN=CENTER VALIGN=TOP>Univ. of Barcelona, Barcelona, Spain
	1082	<br> <b>(E-<font color="#FF0000">nu</font>)</b></td>
	1083
	1084	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Federico.Sanchez@ifae.es
	1085	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">?
	1086	scientists, ? FTE</a></td>
	1087
	1088	<td VALIGN=TOP>Organization coordinating a consortium of physicists from
	1089	Spanish contributing long term expertise in the field of neutrino <b>PHYSICS
	1090	</b>experiments & beams, involved in major R&D projects in progress
	1091	(HARP). This consortium  provides recognized leadership in the <b>general
	1092	</b>steering and identification of the physics reach of future neutrino
	1093	facilities. <font face="Times New Roman, Times, serif"><font size=-2>...
	1094	</font><i><font color="#3366FF"><font size=-1>to be revised by the local
	1095	responsible</font></font></i></font></td>
	1096
	1097	<td ALIGN=CENTER VALIGN=TOP><font color="#3366FF"> Valencia? Madrid? </font></td>
	1098	</tr>
	1099
	1100	<tr>
	1101	<td ALIGN=CENTER VALIGN=TOP>
	1102	<br>14
	1103	<br> </td>
	1104
	1105	<td ALIGN=CENTER VALIGN=TOP>Univ. Catholique, Louvain-la-Neuve, Belgium
	1106	<br> <b>(B-<font color="#FF0000">nu</font>)</b></td>
	1107
	1108	<td ALIGN=CENTER VALIGN=TOP WIDTH="6">Thierry.Delbar@fynu.ucl.ac.be
	1109	<br><a href="file:///C:/Documents%20and%20Settings/Administrator/Documenti/copia%20condivisa%20su%20pcpalladino2/EU%20application/NAComposition">3
	1110	scientists, 0,6 FTE</a></td>
	1111
	1112	<td VALIGN=TOP>Organization coordinating a consortium of physicists from
	1113	universities and laboratories from Benelux, contributing long term expertise
	1114	in the field of neutrino physics, experiments & beams, involved in
	1115	major R&D projects in progress (HARP, MICE) expected to contribute
	1116	to the <b>general </b>steering, to  the <font color="#000000"><b>COOLING
	1117	</b>and the <b>BETABEAM </b><font face="Times New Roman, Times, serif"><font size=-2>WP,
	1118	where </font></font><font face="Times New Roman, Times"><font size=-1>it
	1119	holds extensive experience in ion sources and in production of radioactive
	1120	ion beams (6He,  13N, 18Ne, 18F,...)</font></font></font><font face="Times New Roman, Times, serif"><font size=-2>
	1121	... </font><i><font color="#3366FF"><font size=-1>to be revised by the
	1122	local responsible</font></font></i></font></td>
	1123
	1124	<td ALIGN=CENTER VALIGN=TOP><font color="#3366FF"> Bruxelles? NIKHEF? </font></td>
	1125	</tr>
	1126	</table>
	1127
	1128	<p><b><font color="#009900"><font size=+2>Associated Members:</font></font></b>
	1129	<br>
	1130	<table BORDER COLS=4 WIDTH="100%" BGCOLOR="#FFFFFF" >
	1131	<caption><tbody>
	1132	<br></tbody></caption>
	1133
	1134	<tr>
	1135	<td><b>Organisation name </b>
	1136	<br><b>(and short name)</b></td>
	1137
	1138	<td><b>Local team responsible, number of FTEs</b></td>
	1139
	1140	<td><b>Interests, expertise </b>
	1141	<br><b>(and relevant WPs)</b></td>
	1142
	1143	<td><b>Associated to:</b>
	1144	<br>(participant short name)</td>
	1145	</tr>
	1146
	1147	<tr>
	1148	<td>Sezione INFN Genoa, Italy
	1149	<br>Sezione INFN Padova, Italy
	1150	<br>Lab. Naz. INFN Legnaro, Italy
	1151	<br>Sezione INFN Milano, Italy
	1152	<br>Sezione INFN Roma 3, Italy
	1153	<br>Bologna, Torino expressed interested
	1154	<br>Bari, Trieste may still join
	1155	<br>
	1156	<br>
	1157	<p><i>but what if INFN were just one organization? </i></td>
	1158
	1159	<td>Pasquale Fabbricatore  3 scientists, ? FTE's
	1160	<br>Mauro Mezzetto
	1161	>1 scientist, ? FTE's
	1162	<br>Ugo Gastaldi
	1163	1 scientist, ? FTE
	1164	<br>Maurizio Bonesini         1
	1165	scientist, ? FTE
	1166	<br>Domizia Orestano         ?
	1167	scientists, ? FTE
	1168	<br>Representative
	1169	<br>Representative
	1170	<br>
	1171	<br>
	1172	<br>
	1173	<br>
	1174	<br> </td>
	1175
	1176	<td>general, COLLECT, COOLING
	1177	<br>general, PHYSICS, BETABEAM
	1178	<br>general, DRIVING, COOLING
	1179	<br>general, PHYSICS
	1180	<br>
	1181	<br>
	1182	<br>
	1183	<br>
	1184	<br>
	1185	<br>
	1186	<br>
	1187	<br> </td>
	1188
	1189	<td> INFN-nu</td>
	1190	</tr>
	1191
	1192	<tr>
	1193	<td VALIGN=TOP></td>
	1194
	1195	<td VALIGN=TOP></td>
	1196
	1197	<td VALIGN=TOP></td>
	1198
	1199	<td VALIGN=TOP></td>
	1200	</tr>
	1201
	1202	<tr>
	1203	<td VALIGN=TOP>Institute of Physics, University of Latvia(IPUL),
	1204	<br> </td>
	1205
	1206	<td VALIGN=TOP>Janis Freibergs
	1207	4 scientist 1,7 FTE's </td>
	1208
	1209	<td VALIGN=TOP>general, TARGET
	1210	<br>IPUL has many years of expertise in designing and operating liquid
	1211	metal loops and in developing necessary equipment and technologies. IPUL
	1212	will contribute to the study and development of liquid metal high power
	1213	targets and make available its existing facilities for work within the
	1214	collaboration</td>
	1215
	1216	<td VALIGN=TOP>FZJ
	1217	<br> </td>
	1218	</tr>
	1219
	1220	<tr>
	1221	<td VALIGN=TOP>NRG, Petten, NL</td>
	1222
	1223	<td VALIGN=TOP>Ed Komen
	1224	? scientists, 2,5 FTE's</td>
	1225
	1226	<td VALIGN=TOP>general, TARGET
	1227	<br>NRG is experienced in fluid dynamics, structural mechanics and thermal
	1228	hydraulics calculations and in developing suitable computer software. Their
	1229	contribution will be to the optimisation of the target configuration under
	1230	the above aspects.</td>
	1231
	1232	<td VALIGN=TOP>FZJ</td>
	1233	</tr>
	1234
	1235	<tr>
	1236	<td ALIGN=CENTER>ITEP, Moscow, Russia
	1237	<br>(ITEP)</td>
	1238
	1239	<td ALIGN=CENTER>Boris.Sharkov@itep.ru
	1240	<br><font color="#3366FF">and here?</font></td>
	1241
	1242	<td> The Laboratory will contribute to the studies of beam dynamics
	1243	and RF technology NB As any Russian institute this can only be a
	1244	partner,  not  a participant. Groups of  Russian particle
	1245	physicists may be associated in similar way.</td>
	1246
	1247	<td> RAL?</td>
	1248	</tr>
	1249
	1250	<tr>
	1251	<td ALIGN=CENTER>Novosibirsk, Russia
	1252	<br>( NSBRSK )</td>
	1253
	1254	<td ALIGN=CENTER>A.N.Skrinsky@inp.nsk.su
	1255	<br><font color="#3366FF">and here?</font></td>
	1256
	1257	<td>The Laboratory will contribute to the studies of RF technology, superconducting
	1258	magnets, general accelerator technology. NB As any Russian instituts this
	1259	can only be a  partner,  not  a participant.  Groups
	1260	of  Russian particle physicists may be associated in similar way.</td>
	1261
	1262	<td> CH-n?</td>
	1263	</tr>
	1264
	1265	<tr>
	1266	<td ALIGN=CENTER> US Muon Collider & NuFact Collaboration
	1267	<br>(MUCOLL)</td>
	1268
	1269	<td ALIGN=CENTER>S. Geer, spokesman,
	1270	<br> Fermilab, USA </td>
	1271
	1272	<td>We expect from contacts and synergy with the sister US Neutrino Factory
	1273	Collaboration contributions of widest general scope aa well as significant
	1274	technical  impact on the work of all WPs. </td>
	1275
	1276	<td>Coordinating Organization?</td>
	1277	</tr>
	1278
	1279	<tr>
	1280	<td ALIGN=CENTER VALIGN=TOP>Japanese Nufact-J
	1281	<br>Collaboration
	1282	<br>(Nufact-J)</td>
	1283
	1284	<td ALIGN=CENTER VALIGN=TOP>Y. Kuno, spokesman,
	1285	<br>Univ. of Osaka,
	1286	<br>Japan </td>
	1287
	1288	<td VALIGN=TOP>We expect from contacts and synergy with the sister NuFact
	1289	J Collaboration contributions of widest general scope aa well as significant
	1290	technical  impact on the work of all WPs. </td>
	1291
	1292	<td VALIGN=TOP>Coordinating Organization?</td>
	1293	</tr>
	1294
	1295	<tr>
	1296	<td VALIGN=TOP></td>
	1297
	1298	<td VALIGN=TOP></td>
	1299
	1300	<td VALIGN=TOP></td>
	1301
	1302	<td VALIGN=TOP></td>
	1303	</tr>
	1304	</table>
	1305
	1306	<h2>
	1307	<font color="#009900">Deliverables and relevant milestones:</font></h2>
	1308
	1309	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	1310	<caption>
	1311	<br><tbody></tbody><tbody>
	1312	<br></tbody></caption>
	1313
	1314	<tr>
	1315	<td><i><font color="#000000">Describe the results expected from the NA,
	1316	in terms of achieved designs, solutions to problems, etc... </font></i>
	1317	<p><i><font color="#000000">Outline the milestones to be achieved by means
	1318	of the NA, as relevant to each work package. </font></i>
	1319	<p><i><font color="#000000">Links to obtained results can also be given
	1320	here (or a link to a site prepared for disseminating the acquired knowledge)</font></i>
	1321	<p><b><font color="#000000">Main Deliverables </font></b>
	1322	<p><font color="#000000">The main deliverable of the NA wil be a road map
	1323	</font><b>of technical milestones for the realization of  an upgraded
	1324	and/or new European neutrino facility</b>. Its
	1325	<br>recognized goal is  <b>a complete Conceptual Design Report (CDR
	1326	) of  such a facility by 2008.</b>
	1327	<p><b>Reports and proposals to be inserted here ............. </b>
	1328	<p>This will imply the following individual deliverables<b> </b>in the
	1329	early part of the life of the NA
	1330	<p><font color="#000000">-- recommendation for the parameters of the proton
	1331	driver (spring 2005) </font>
	1332	<br><font color="#000000">-- Interim tool: location and home lab for a
	1333	Test Target Area  (summer 2003)</font>
	1334	<br><font color="#000000">-- List and estimate of experiments to be carried
	1335	out at the TTA. (summer 2003) </font>
	1336	<br><font color="#000000">-- Design of a 4 ® 10 MW target station.
	1337	(2007)</font>
	1338	<br><font color="#000000">-- Design (2003) and realization (2006) of a
	1339	horn power supply unit, horn(s), horn optics. </font>
	1340	<br><font color="#000000">-- Paper study (2004) of high aperture kickers
	1341	for cooling (or phase rotation) rings </font>
	1342	<br><font color="#000000">-- Realization of a kicker prototype (2006). </font>
	1343	<br><font color="#000000">-- Design of the pulsed RF power stations needed
	1344	for muon front-end and acceleration (2004)</font>
	1345	<br><font color="#000000">-- Development of a prototype pulsed RF power
	1346	station (2006) </font>
	1347	<br><font color="#000000">-- design of an FFAG magnet for acceleration
	1348	and cost estimate (2004).</font>
	1349	<br><font color="#000000">-- recommendation for accelerator design (2005) </font>
	1350	<br><font color="#000000">-- construction of a prototype FFAG magnet and
	1351	characterization </font>
	1352	<p><font color="#000000">and  of  the production of contributions
	1353	from each WP to the CDR in the second phase  of  the</font>
	1354	<br><font color="#000000">NA. </font>
	1355	<p><font color="#000000">There are some decision points: the launch of
	1356	a super-beam experiment could probably be envisaged around 2005. </font>
	1357	<p><b><font color="#000000">Milestones</font></b>
	1358	<p><font color="#000000">We identify two major milestones, after 18 nicely
	1359	matching the return to Europe, with three </font>
	1360	<br><font color="#000000">years periodicity, of the major international
	1361	NuFact Workshop of the international community</font>
	1362	<br><font color="#000000">working in the sector. </font>
	1363	<p><font color="#000000">NuFact 05 Summer 2005 Complete the phase of preliminary
	1364	comparative studies. </font>
	1365	<br><font color="#000000">
	1366	Define a first set of parameters to launch design work. </font>
	1367	<p><font color="#000000">NuFact08   Spring-Sunmer 2008 Completion
	1368	of design work. Publication of the CDR </font>
	1369	<br>
	1370	<p><font color="#000000"><b>A more detailed set of deliverables and milestones,
	1371	both the ones globally concerning  BENE and those specific of each
	1372	working group, is given in tabular form in Table BENE_TIMETABLE.</b>
	1373	It  includes meetings, workshpos, proceedings, mid road and final
	1374	reports, web sites and more . Natural deadlines are identified for well
	1375	defined proposals for R&D preparatory work,  adequately manned
	1376	and supported. </font>
	1377	<br>
	1378	<p><i><font color="#CCCCCC"><b>Describe the results expected from the NA,
	1379	in terms of achieved designs, solutions to problems, etc..</b>. </font></i>
	1380	<p><i><font color="#CCCCCC"> .....  specify the  deliverables
	1381	......</font></i>
	1382	<p><i><font color="#CCCCCC">The expected outcome of the NA will consist
	1383	of technical notes, articles, reports, proceedings of workshops and meetings
	1384	devoted to the solve (or prepare solution of) all problems necessary to
	1385	launch in the shortest possible time complete conceptual design studies
	1386	of a realistic option for each of the three mentioned types of future neutrino
	1387	source.</font></i>
	1388	<p><i><font color="#CCCCCC">NB More work needed, considering that the main
	1389	delivrables of a NA are described by the EC as </font></i>
	1390	<br><i><font color="#CCCCCC"> -the organization of general meetings,
	1391	workshops or specialized meeting with corresponding proceedings. Normally,
	1392	the general meetings are meant to identify limitations, establish the state-of-the-art
	1393	and share expertise, workshops and specialized meetings are meant to study
	1394	particular issues.</font></i>
	1395	<br><i><font color="#CCCCCC">Important deliverables will be also </font></i>
	1396	<br><i><font color="#CCCCCC">-reports on comparative studies, </font></i>
	1397	<br><i><font color="#CCCCCC">- development of roadmaps,</font></i>
	1398	<br><i><font color="#CCCCCC">- definitions of joint research projects for
	1399	which EU funding could be requested at a later stage. </font></i>
	1400	<br><i><font color="#CCCCCC">Other delivrables could be </font></i>
	1401	<br><i><font color="#CCCCCC">- the definition and selection of common protocols,
	1402	for example for portability of software </font></i>
	1403	<br><i><font color="#CCCCCC">-  databases </font></i>
	1404	<br><i><font color="#CCCCCC">-  simulation codes and their maintenance. </font></i>
	1405	<br><i><font color="#CCCCCC">In any case, a detailed plan of the activities
	1406	for the 18 first months with clear objectives and delivrables should be
	1407	proposed and the longer-term perspectives should be explicited.</font></i>
	1408	<br><i><font color="#CCCCCC">A proposal for full Technical Design Study
	1409	can also be given as a deliverable. </font></i>
	1410	<p><font color="#CCCCCC">.<i>.... to be done largely by the 7 coordinators
	1411	first and then in collegially by   the NA SG  ...
	1412	for now, excerpts from contributions from Coordinators are being collected
	1413	below </i></font>
	1414	<p><b><font color="#CCCCCC">PHYSICS</font></b>
	1415	<ul>
	1416	<li>
	1417	<font color="#CCCCCC">Organize 3-4 meetings/year continuing the existing
	1418	activity of the ECFA neutrino oscillation working group. These meetings
	1419	constitute an open forum of discussion with frequent contributes of overseas
	1420	physicists. Transparencies of the meetings are regularly published on the
	1421	web.</font></li>
	1422
	1423	<li>
	1424	<font color="#CCCCCC">Three general reports will be written on a) the general
	1425	problem of solving ambiguities, correlation and degeneracies with a set
	1426	of measurements. b) the optimization of the design of future neutrino beams
	1427	and the identification of the main sources of systematic errors and how
	1428	to attack them. c)the definition of the roadmap for the mapping of the
	1429	neutrino mixing matrix, the experimental choices and options providing
	1430	the parameter list of the optimized neutrino beam characteristics.</font></li>
	1431
	1432	<li>
	1433	<font color="#CCCCCC">Topical international workshops will be organized
	1434	to focus on the subjects of the reports.</font></li>
	1435
	1436	<li>
	1437	<font color="#CCCCCC">Regular contribution will be done to the NUFACT international
	1438	workshops. In particular the budget will also used to subsidize young physicists
	1439	to present their results at the conferences.</font></li>
	1440
	1441	<li>
	1442	<font color="#CCCCCC">The "neutrino unbound" web site, which provides a
	1443	complete, updated and elaborated information on experimental and theoretical
	1444	work on the physics of neutrinos<b>, </b>will be mantained and improved. </font></li>
	1445
	1446	<li>
	1447	<font color="#CCCCCC">Monte Carlo codes ....</font></li>
	1448
	1449	<li>
	1450	</li>
	1451	</ul>
	1452
	1453	<ul>
	1454	<li>
	1455	<font color="#CCCCCC">Organize 3 meetings/year continuing the existing
	1456	activity of the ECFA neutrino oscillation working group. These meetings
	1457	constitute an open forum of discussion with frequent contributes of oversea
	1458	physicists. Transparencies of the meetings are regularly published on the
	1459	web.</font></li>
	1460
	1461	<li>
	1462	<font color="#CCCCCC">3 general reports will be written on a) the general
	1463	problem of solving ambiguities, correlation and degeneracies with a set
	1464	of measurements. b) the optimization of the design of future neutrino beams
	1465	and the identification the main sources of systematic errors and to attack
	1466	them. c)the definition of the roadmap for the mapping of the neutrino mixing
	1467	matrix, the experimental choices and options providing the parameter list
	1468	of the optimized neutrino beam characteristics.</font></li>
	1469
	1470	<li>
	1471	<font color="#CCCCCC">Topical international workshops will be organized
	1472	to focus the arguments of the reports.</font></li>
	1473
	1474	<li>
	1475	<font color="#CCCCCC">Regular contribution will be done to the NUFACT international
	1476	workshops. In particular the budget will also used to subsidize young physicists
	1477	to present their results at the conferences.</font></li>
	1478
	1479	<li>
	1480	<font color="#CCCCCC">The "neutrino unbound" web site, which provides a
	1481	complete, updated and elaborated information on experimental and theoretical
	1482	work on the physics of neutrinos<b>, </b>will be mantained and improved. </font></li>
	1483
	1484	<li>
	1485	<font color="#CCCCCC">Monte Carlo codes and analysis tools.</font></li>
	1486	</ul>
	1487	<font color="#CCCCCC"><b>CNGS </b>?</font>
	1488	<br><b><font color="#CCCCCC">DRIVER.</font></b>
	1489	<br><font color="#CCCCCC">Meetings will be held regularly (about once every
	1490	2 months) to discuss progresses, and a general workshop once a year is
	1491	foreseen. Proceedings will be published describing the results obtained
	1492	and the strategy to further develop the R&D topics. The broadening
	1493	of expertise within the network will allow a better definition of technological
	1494	developments to be undergone. The creation and maintenance of a website
	1495	will facilitate the sharing of information.</font>
	1496	<br><font color="#CCCCCC">Another important topic of the meetings and workshops
	1497	will be a prospective to further extend the possible applications of such
	1498	high intensity proton drivers in other physics domains and for practical
	1499	applications. This would be an extra bonus to the R&D pursued within
	1500	the HIPPI JRP. In addition, the regular publication of reports is a quality
	1501	insurance of the JRPs.</font>
	1502	<br><font color="#CCCCCC"><b>TARGET </b>The main oustanding expected deliverable
	1503	is a consensus on the best way forward for the successful construction
	1504	of targets for a European Neutrino Factory. Individual deliverables are
	1505	expected to be 1) a comprehensive summary report, reviewing the present
	1506	status 2) solidly rooted links with the presently loosely tied existing
	1507	world wide expertise  3) establishment in Europe of the best possible
	1508	up-to-date and durable knowledge base of world wide activities in target
	1509	development 4) careful & structured dissemination of information and
	1510	progress 4) detailed investigation and documentation of the possible solutions
	1511	of the limitations of each of the technological options 5) expression of
	1512	interest and proposals of  detailed and realistic R&D projects
	1513	capable to prove the solutions </font>
	1514	<br><font color="#CCCCCC"><b>COLLECTOR</b> The main expected deliverable
	1515	is a comprehensive final report on horn designs, proposing multiple specific
	1516	solutions respectivelly adequate to performance and lifetime requirements
	1517	in a classical beam, a superbeam and ultimately in a neutrino factories.This
	1518	will be based on detailed thermo-mechanical simulations, complete technical
	1519	specification of electric supply and discharge equipment and state-of -the
	1520	art knowledge of mechanical properties of alloys under high rate neutron
	1521	irradiation. It will include specific solutions to the choices ( of material
	1522	for the collection device, of machining, soldering and assembling techniques,
	1523	of  heat removal and cooling system) necessary to achieve a lifetime
	1524	of 200 M pulses or more, as well as to the problems of real life integration
	1525	of horn and target and of  periodic replacement of either or both
	1526	after 200 M pulses, in the average.</font>
	1527	<br><font color="#CCCCCC">The first deliverable for Summer 2004 will be
	1528	a status report (R1) on existing collection systems used in the past and
	1529	currently in operation (MiniBOON/K2K) and in construction (NuMI/CNGS).
	1530	Then, till end 2006, studies will be condcuted,  to produce a detail
	1531	report (R2) on a specific solution for the SuperBeam project. Then, till
	1532	the end of the NA Jan. 2008, it is foreseen to produce a detail report
	1533	(R3) on the different solutions that will be avaliable for the Neutrino
	1534	Factory project. </font>
	1535	<p><font color="#CCCCCC">The 2 last reports  (R2 and R3) will be based
	1536	on </font>
	1537	<blockquote>
	1538	<ol>
	1539	<li>
	1540	<font color="#CCCCCC">a detailed particle collection simulations (Monte
	1541	Carlo based simulations with state-of-the art code: GEANT4, MARS,...),</font></li>
	1542
	1543	<li>
	1544	<font color="#CCCCCC">thermo-mechanical simulations that implies for instence
	1545	to experimentally measure some relevant parameters (heat diffusion coefficients,
	1546	stress limit under high neutron fluxes and after 10^8 cycles...),</font></li>
	1547
	1548	<li>
	1549	<font color="#CCCCCC">complete technical specifications of electric power
	1550	supply and discharge equipment</font></li>
	1551
	1552	<li>
	1553	<font color="#CCCCCC">state-of -the art knowledge of mechanical properties
	1554	of alloys under high rate neutron irradiation as already mentionned.</font></li>
	1555	</ol>
	1556	</blockquote>
	1557	<font color="#CCCCCC">They  will include proposition of specific solutions
	1558	or R&D to be conducted  necessary to achieve a lifetime of such
	1559	system of few 100 Mega cycles or more. For instance, the documents will
	1560	address solutions </font>
	1561	<ul>
	1562	<li>
	1563	<font color="#CCCCCC">to the choices of material for the collection device,</font></li>
	1564
	1565	<li>
	1566	<font color="#CCCCCC">of machining, soldering and assembling techniques,</font></li>
	1567
	1568	<li>
	1569	<font color="#CCCCCC">of  heat removal and cooling system,</font></li>
	1570
	1571	<li>
	1572	<font color="#CCCCCC"> to the problems of TARGET integration in the
	1573	collection system</font></li>
	1574
	1575	<li>
	1576	<font color="#CCCCCC">and of  periodic replacement in a high radioactive
	1577	environment.</font></li>
	1578	</ul>
	1579	<font color="#CCCCCC">Other deliverables will be intermediate specialized
	1580	notes and worshop proceedings that will be used for the final </font>
	1581	<br><font color="#CCCCCC">document, and simulation programs that will be
	1582	worth to develop for these studies. </font>
	1583	<p><font color="#CCCCCC"><b>COOLING </b>Main deliverables are 0) Formation
	1584	of a European muon front end network , with consolidated link with US and
	1585	Japan 1) Determination of the performance of the European  design
	1586	incorporating realistic fields and real engineerization. 2) Simulation
	1587	of cooling free  front ends in  comparison with our baseline;
	1588	quantitative appraisal  of  the indispensability of cooling 3)
	1589	Simulation of front ends based on cooling rings 4)Assessment of the technologies
	1590	required by <i>1)2) & 3)</i> and of  their feasibility 5) Proposal
	1591	of a coherent R&D program as a result of this assessment 6) Determination
	1592	of the resolution of MICE (in the measurement of emittance and emittance
	1593	reduction) and of its potential beyond its baseline measurements plans </font>
	1594	<br><b><font color="#CCCCCC">BETABEAM</font></b>
	1595	<br><font color="#CCCCCC">We aims at a team including RAL, TSL in Uppsala,
	1596	GSI, GANIL, INFN Legnaro associating TRIUMF and FermiLab. Its expected
	1597	deliverables in the first 18 months are </font>
	1598	<br><font color="#CCCCCC">1) Meeting at GSI in September 2003: Follow up
	1599	of Moriond in March and discussions on possible synergy with the future
	1600	GSI design study.2) International workshop on a beta-beam facility in June
	1601	2004 3) Theoretical study and appraisal of experimental tests of longitudinal
	1602	stacking scheme for the decay ring (in the CERN PS) 4) Computer simulation
	1603	and theoretical study of losses in the decay ring 5) Proposal for targets
	1604	to be tested for the production of suitable beta-beam isotopes 6) Study
	1605	of cyclotron injection into a storage ring using a charge injection scheme
	1606	(TSL and Triumf) 7) Study of dynamic aperture in the SPS (RAL)</font>
	1607	<br><font color="#CCCCCC">A comprehensive report, "Ideas for a beta-beam
	1608	facility", would conclude the first 18 months  Further meetings would
	1609	be held at least once a year but it will depend on a possible design study.
	1610	Reports will be delivered as conference papers and as CERN reports. The
	1611	next stage would be a conceptual design report but the likely date for
	1612	that would heavily depend on a possible design study.</font>
	1613	<br><font color="#CCCCCC">Only fresh resources, presently unavailable,
	1614	would evidently permit us to address a larger number of issues such as:
	1615	lattice for decay ring and storage ring, optics for transfer lines and
	1616	injection line, full simulation of stacking scheme, full simulation of
	1617	losses, test of injection schemes (both storage ring and decayring), construction
	1618	and test of prototype target at ISOLDE and test of targets at TRIUMF with
	1619	a high intensity proton.</font>
	1620	<br>
	1621	<p><b><i><font color="#CCCCCC">Outline the milestones to be achieved by
	1622	means of the NA, as relevant to each work package.</font></i></b>
	1623	<p><i><font color="#CCCCCC"> ..... to be done largely by the 7 coordinators
	1624	first and then in collegially by   the NA SG</font></i>
	1625	<p><b><font color="#CCCCCC">PHYSICS</font></b>
	1626	<br>
	1627	<p><font color="#CCCCCC"><b>DEC 04 </b>Workshop on Ambiguities, Degeneracies
	1628	and Correlations in the search for Leptonic CP and possible experimental
	1629	strategies. (Munich?)</font>
	1630	<p><font color="#CCCCCC"><b>JUN 05 </b>A report on the same argument</font>
	1631	<p><font color="#CCCCCC"><b>FEB 06 </b>Workshop on SuperBeams vs. Beta
	1632	Beams vs NuFact, synergies and priorities (Valencia ?)</font>
	1633	<p><font color="#CCCCCC"><b>SEP 06 </b>A report on the same argument</font>
	1634	<p><font color="#CCCCCC"><b>SEP 07 </b>A report on an optimized parameter
	1635	list for SB, BB and NF. Addressing the problems of systematic errors<b>.</b></font>
	1636	<br><font color="#CCCCCC"><b>DEC 08 </b>Final report with the roadmaps.</font>
	1637	<p><b><font color="#CCCCCC">DRIVER</font></b>
	1638	<br><font color="#CCCCCC">-    publication of the proceedings
	1639	of  the yearly workshop </font>
	1640	<br><font color="#CCCCCC">-    2004 :  report on the
	1641	state of the art for the various elements, redaction of an agreement for
	1642	a common R&D strategy and sharing of work, plans to explore applications
	1643	to other fields</font>
	1644	<br><font color="#CCCCCC">-    2005 : publication of
	1645	results of the studies for most elements (source, chopper, accelerating
	1646	structures, RF couplers, beam dynamics, rapid cycling cyclotron alternative)</font>
	1647	<br><font color="#CCCCCC">-    2006 & 2007 : definition
	1648	and revision of the planning for tests, prototyping, studies depending
	1649	on results obtained and technical problems encountered</font>
	1650	<br><font color="#CCCCCC">-    2008 : final general report
	1651	on results, TDR for the realization of a  high power proton driver
	1652	with draft costing and schedule, assessment of the outcomes of the NA,
	1653	prospective, applications to other fields, proposals for further developments </font>
	1654	<br><b><font color="#CCCCCC">TARGET </font></b>
	1655	<br><b><font color="#CCCCCC">COLLECTOR milestones</font></b>
	1656	<br><font color="#CCCCCC">1)a comprehensive status report of the current
	1657	state of the art in the early phase of the NA</font>
	1658	<br><font color="#CCCCCC">2) the formation of a collaboration to propose
	1659	a complete  design study </font>
	1660	<br><font color="#CCCCCC">2) the publication of a detailed proposal for
	1661	the evolution ("road map") towards  the design </font>
	1662	<br><font color="#CCCCCC">of a complete collection system, properly integrated
	1663	upstream with the design of the target and </font>
	1664	<br><font color="#CCCCCC">downstream with the one of the muon  front
	1665	end </font>
	1666	<br><font color="#CCCCCC">3)yearly international workshops, assembling
	1667	EU,  USA and Japanese expertise and timely</font>
	1668	<br><font color="#CCCCCC">addressing the milestones of this evolution </font>
	1669	<br><font color="#CCCCCC">4) a report on comparative studies of different
	1670	simulation of the complete production and </font>
	1671	<br><font color="#CCCCCC">collection of neutrino parents</font>
	1672	<p><b><font color="#CCCCCC"><font size=+2>Plans for the first  18
	1673	monthes </font></font></b>
	1674	<br><font color="#CCCCCC">Before the NA will start: </font>
	1675	<ul>
	1676	<ul>
	1677	<li>
	1678	<font color="#CCCCCC">report on 6000 type alloy caracteristics on mecanical
	1679	properties under high intensity neutron flux based on bibliographic documentation</font></li>
	1680
	1681	<li>
	1682	<font color="#CCCCCC">initiate collaboration with French-CEA for stress
	1683	limit measurement of 6000 type alloy under high level of neutron flux.</font></li>
	1684
	1685	<li>
	1686	<font color="#CCCCCC">report on analytic solutions of the Horn thermal/mecanical
	1687	design</font></li>
	1688
	1689	<li>
	1690	<font color="#CCCCCC">start of  thermal/mecanical simulation of the
	1691	Horn for a SuperBeam project</font></li>
	1692
	1693	<li>
	1694	<font color="#CCCCCC">first report on electric power design of the Horn
	1695	for SuperBeam project</font></li>
	1696
	1697	<li>
	1698	<font color="#CCCCCC">proposal for Horn prototype building as Design Studies
	1699	Technical Work Project</font></li>
	1700	</ul>
	1701
	1702	<li>
	1703	<font color="#CCCCCC">Spring 2004</font></li>
	1704
	1705	<ul>
	1706	<li>
	1707	<font color="#CCCCCC">first guide of the collection systems used in the
	1708	past, present and near future (along R1 publication): mechanical stresses
	1709	and design, electric power caracteristics and design, heat dissipation
	1710	system design, failure description, lifetime in operation</font></li>
	1711
	1712	<li>
	1713	<font color="#CCCCCC">status report of the CERN Horn prototype</font></li>
	1714
	1715	<li>
	1716	<font color="#CCCCCC">reports on other mechanical tests as diffusion coefficient
	1717	measurements</font></li>
	1718
	1719	<li>
	1720	<font color="#CCCCCC">integration of preliminary TARGET parameters on thermal/mecanical
	1721	simulation of the Horn for a SuperBeam project</font></li>
	1722
	1723	<li>
	1724	<font color="#CCCCCC">first drawing design of a new Horn prototype</font></li>
	1725	</ul>
	1726
	1727	<li>
	1728	<font color="#CCCCCC">Summer 2004</font></li>
	1729
	1730	<ul>
	1731	<li>
	1732	<font color="#CCCCCC">R1 repport production</font></li>
	1733
	1734	<li>
	1735	<font color="#CCCCCC">status report on thermo/mechanical simulations</font></li>
	1736
	1737	<li>
	1738	<font color="#CCCCCC">status report on electric power design to deliver
	1739	300kA/50Hz</font></li>
	1740	</ul>
	1741
	1742	<li>
	1743	<font color="#CCCCCC">Spring 2005</font></li>
	1744
	1745	<ul>
	1746	<li>
	1747	<font color="#CCCCCC">first result on stress limit measurement of irradiated
	1748	materials</font></li>
	1749
	1750	<li>
	1751	<font color="#CCCCCC">final design of a new Horn prototype to launch realisation</font></li>
	1752	</ul>
	1753	</ul>
	1754	<font color="#CCCCCC">Afterwards their will be prototype realisation by
	1755	the Design Studies TWP and measurement campain that will end by the writing
	1756	of R2. Then, new work will be undertaken by DS TWP in the line of R3 report
	1757	goal.</font>
	1758	<br>
	1759	<br>
	1760	<p><b><font color="#CCCCCC">COOLING</font></b>
	1761	<p><font color="#CCCCCC">(0) Q1 2004: have European network formed and
	1762	working.</font>
	1763	<br><font color="#CCCCCC">(1) Q2 2004: completion of simulation of at least
	1764	one frontend without cooling</font>
	1765	<br><font color="#CCCCCC">
	1766	using detailed simulation codes. Comparison with existing studies</font>
	1767	<br><font color="#CCCCCC">
	1768	of the baseline European design.</font>
	1769	<br><font color="#CCCCCC">(2) Q2 2004: complete detailed analysis of the
	1770	systematic errors for the </font>
	1771	<br><font color="#CCCCCC">
	1772	baseline MICE experiment and hence a determination of total </font>
	1773	<br><font color="#CCCCCC">
	1774	emittance resolution.</font>
	1775	<br><font color="#CCCCCC">(3) Q3 2004: begin assessment of US ring cooler
	1776	designs and start to develop</font>
	1777	<br><font color="#CCCCCC">
	1778	a ring cooler to fit into the European Neutrino Factory.</font>
	1779	<br><font color="#CCCCCC">(4) Q4 2004: begin determination of more realistic
	1780	fields for the baseline</font>
	1781	<br><font color="#CCCCCC">
	1782	cooling channel.</font>
	1783	<br><font color="#CCCCCC">(5) Q2 2005: determine performance of the baseline
	1784	channel with realistic </font>
	1785	<br><font color="#CCCCCC">
	1786	fields.</font>
	1787	<br><font color="#CCCCCC">(6) Q3 2005: complete a preliminary outline design
	1788	for a European ring cooler.</font>
	1789	<br><font color="#CCCCCC">(7) Q3 2005: start assessment of the use of MICE
	1790	for testing alternative</font>
	1791	<br><font color="#CCCCCC">
	1792	frontends or running the cooling cell components in different</font>
	1793	<br><font color="#CCCCCC">
	1794	modes.</font>
	1795	<br><font color="#CCCCCC">(8) Q4 2005: start optimising Neutrino Factory
	1796	designs for different frontend</font>
	1797	<br><font color="#CCCCCC">
	1798	designs.</font>
	1799	<br><font color="#CCCCCC">(9) Q2 2006: start to look at technological aspects
	1800	of implementing the</font>
	1801	<br><font color="#CCCCCC">
	1802	different frontends and preparing R&D programmes.</font>
	1803	<br><font color="#CCCCCC">(10) Q1 2007: start assessment of first results
	1804	from MICE.</font>
	1805	<br><font color="#CCCCCC">(11) Q3 2007: complete studies of alternative
	1806	MICE experiments. Start preparing</font>
	1807	<br><font color="#CCCCCC">
	1808	a proposal if the results are positive.</font>
	1809	<br><font color="#CCCCCC">(12) Q1 2008: complete technology investigations
	1810	and Neutrino Factory design</font>
	1811	<br><font color="#CCCCCC">
	1812	optimisation.</font>
	1813	<br><font color="#CCCCCC">(13) Q2 2008: assess impact of full MICE results.</font>
	1814	<br><font color="#CCCCCC">(14) Q3 2008: complete detailed comparison between
	1815	the alternative frontend</font>
	1816	<br><font color="#CCCCCC">
	1817	designs.</font>
	1818	<br><font color="#CCCCCC">(15) Q4 2008: if sufficient information is not
	1819	available from MICE, devise an </font>
	1820	<br><font color="#CCCCCC">
	1821	R&D programme for proving the best frontend can be built and </font>
	1822	<br><font color="#CCCCCC">
	1823	will work. Write a proposal.</font>
	1824	<p><b><font color="#CCCCCC">BETABEAM</font></b>
	1825	<br>
	1826	<br>
	1827	<br>
	1828	<br>
	1829	<br>
	1830	<br>
	1831	<p><b>Links to obtained results can also be given here (or a link to a
	1832	site prepared for disseminating the acquired knowledge)</b>
	1833	<br>Bibliography? .... <font color="#FF0000">throu the EBNE Website, to
	1834	be set  up .</font>.... recycling the wealth of the ECFA Muon site
	1835	... what else?
	1836	<br>
	1837	<br> </td>
	1838	</tr>
	1839	</table>
	1840
	1841	<h2>
	1842	<font color="#009900">Impact and benefits to the community:</font></h2>
	1843
	1844	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	1845	<caption>
	1846	<br><tbody></tbody><tbody>
	1847	<br></tbody></caption>
	1848
	1849	<tr>
	1850	<td><i>Describe the expected benefits and impact on the community.</i>
	1851	<p><i>ie indicate how the participants and the relevant scientific community
	1852	will benefit from the expected results of this particular networking activity. </i>
	1853	<p><i>The NA plans to hold regular and structured Weeks of meetings and
	1854	discussion organized 3 to 4 times a year. . In addition one or two dedicated
	1855	workshop are foreseen per year. </i>
	1856	<p><i>The international community meets once a year at the occasion of
	1857	the ECFA-sponsored NuFact & Superbeam Workshop. A NUFACT School is
	1858	held, since 2002, yearly on the same location of the Workshop ... this
	1859	does not seem to be eligible ...</i>
	1860	<p><i>Such a coherent and coordinated European program on neutrino beams
	1861	will involve the large majority of the European experts in this field and
	1862	will allow Europe to play a world leader role. It will enhance considerably
	1863	the collaboration between accelerator physicists on the one hand and will
	1864	develop a synergy between particle physicists and accelerator physicists
	1865	on the other, ensuring the long-term sustainability of the field.</i>
	1866	<br><i>R&D experiments and projects as the ones being performed (HARP,
	1867	high intensity target R&D, horn R&D etc )  or planned (MICE),
	1868	will be pursued and multiplied , will mark the technical progress of our
	1869	studies and will provide training and learning opportunities to large number
	1870	of students and postdocs. </i>
	1871	<p><i>We should also contribute to the description of the overall plan
	1872	to disseminate, promote and exploit the knowledge derived from the NA both
	1873	within and beyond the consortium: publications, conferences, workshops
	1874	and web-based activities aiming at disseminating the knowledge and technology
	1875	produced.</i>
	1876	<br>
	1877	<p><i>NB Only preliminary thoughts. </i>
	1878	<p><i>We are suggested also to explain, looking at the ensemble of the
	1879	networking activities, how they will enhance the services provided by
	1880	the research infrastructures in the proposed programme of activities under
	1881	consideration.</i>
	1882	<p><i>To be done later.</i></td>
	1883	</tr>
	1884	</table>
	1885
	1886	<h2>
	1887	<font color="#3333FF">Execution plan:</font></h2>
	1888
	1889	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	1890	<caption>
	1891	<br><tbody></tbody><tbody>
	1892	<br></tbody></caption>
	1893
	1894	<tr>
	1895	<td><b><i><font color="#CCCCCC">Describe in detail the execution plan in
	1896	terms of a chart showing the time expected to be spent concluding each
	1897	of the milestones specified in the different work packages. This chart
	1898	can be made with standard tools and inserted here.</font></i></b>
	1899	<p><i><font color="#CCCCCC">.e. give an indicative multi-annual execution
	1900	plan (in tabular form) for the whole duration of the I3 that cover all
	1901	the networking activities. For each activity, you should specify the relevant
	1902	milestones and the expected deliverables. Additional information can be
	1903	provided, if necessary, in free text.</font></i>
	1904	<p><i><font color="#CCCCCC">Detailed work needed here.</font></i>
	1905	<p><i><font color="#CCCCCC">A contribution of N4 to the18 months plan will
	1906	also have to be provided. </font></i>
	1907	<br><i><font color="#CCCCCC">Should one give here a correspondingly more
	1908	detailed execution plan for the first 18 months? </font></i>
	1909	<p><i><font color="#CCCCCC">We should also produce a general road map,
	1910	detailing our view of the time scale of initiatives in the sector of neutrino
	1911	beams in the medium and long-term future.</font></i>
	1912	<p><i><font color="#CCCCCC">In order to prompt discussion, I just attempt
	1913	the following</font></i>
	1914	<p><i><font color="#CCCCCC">R&D and design studies from now to 2007
	1915	or 2008</font></i>
	1916	<p><i><font color="#CCCCCC">Conceptual Design Report for a Neutrino Factory
	1917	in 2008 </font></i>
	1918	<br><i><font color="#CCCCCC">Realization of  a  Superbeam, a
	1919	European high power conventional neutrino facility(2012 at earliest?)</font></i>
	1920	<br><i><font color="#CCCCCC">Realization of the first Neutrino Factory
	1921	in 2015 (or later?)</font></i>
	1922	<br><i><font color="#CCCCCC">First possible date for a running Betabeam
	1923	complex? </font></i>
	1924	<p><i><font color="#CCCCCC">..... collecting here from  the 7 coordinators
	1925	first </font></i>
	1926	<br><b><i><font color="#CCCCCC">PHYSICS</font></i></b>
	1927	<br><b><i><font color="#CCCCCC">CNGS </font></i></b>
	1928	<br><b><i><font color="#CCCCCC">DRIVER.</font></i></b>
	1929	<br><b><i><font color="#CCCCCC">TARGET </font></i></b>
	1930	<br><b><i><font color="#CCCCCC">COLLECTOR </font></i></b>
	1931	<br><b><i><font color="#CCCCCC">COOLING</font></i></b>
	1932	<br><b><i><font color="#CCCCCC">BETABEAM</font></i></b></td>
	1933	</tr>
	1934	</table>
	1935
	1936	<p><b><font color="#3333FF"><font size=+2><i>Estimate of total cost per
	1937	partici</i>pant and work package:</font></font></b>
	1938	<br><b><font color="#3333FF"><font size=+2>(including associate members)</font></font></b>
	1939	<br>
	1940	<p><br>
	1941	<center><table BORDER COLS=7 WIDTH="100%" BGCOLOR="#FFFFFF" >
	1942	<caption>
	1943	<center>
	1944	<br><tbody></tbody><tbody>
	1945	<br></tbody></center>
	1946	</caption>
	1947
	1948	<tr>
	1949	<td><b>Participants </b>
	1950	<br>(give short name and include ass.
	1951	<br>members)</td>
	1952
	1953	<td>        <b>WP1</b>
	1954	<p>a.  FTE
	1955	<br>b.  networking</td>
	1956
	1957	<td>       <b>WP2</b>
	1958	<p>a.  FTE
	1959	<br>b.  networking</td>
	1960
	1961	<td>        <b>WP3</b>
	1962	<p>a.  FTE
	1963	<br>b.  networking</td>
	1964
	1965	<td>      <b> ......</b></td>
	1966
	1967	<td> </td>
	1968
	1969	<td><b>Sum per      participant</b>
	1970	<br>a.  FTE
	1971	<br>b.  networking</td>
	1972	</tr>
	1973
	1974	<tr>
	1975	<td>       <b>1</b></td>
	1976
	1977	<td>a.
	1978	<br>b. </td>
	1979
	1980	<td>a.
	1981	<br>b. </td>
	1982
	1983	<td>a.
	1984	<br>b. </td>
	1985
	1986	<td> </td>
	1987
	1988	<td> </td>
	1989
	1990	<td>a.
	1991	<br>b. </td>
	1992	</tr>
	1993
	1994	<tr>
	1995	<td>       <b>2</b></td>
	1996
	1997	<td>a.
	1998	<br>b. </td>
	1999
	2000	<td>a.
	2001	<br>b. </td>
	2002
	2003	<td>a.
	2004	<br>b. </td>
	2005
	2006	<td> </td>
	2007
	2008	<td> </td>
	2009
	2010	<td>a.
	2011	<br>b. </td>
	2012	</tr>
	2013
	2014	<tr>
	2015	<td>       <b>3</b></td>
	2016
	2017	<td>a.
	2018	<br>b. </td>
	2019
	2020	<td>a.
	2021	<br>b. </td>
	2022
	2023	<td>a.
	2024	<br>b. </td>
	2025
	2026	<td> </td>
	2027
	2028	<td> </td>
	2029
	2030	<td>a.
	2031	<br>b. </td>
	2032	</tr>
	2033
	2034	<tr>
	2035	<td>       <b>...</b></td>
	2036
	2037	<td> </td>
	2038
	2039	<td> </td>
	2040
	2041	<td> </td>
	2042
	2043	<td> </td>
	2044
	2045	<td> </td>
	2046
	2047	<td> </td>
	2048	</tr>
	2049
	2050	<tr>
	2051	<td> </td>
	2052
	2053	<td> </td>
	2054
	2055	<td> </td>
	2056
	2057	<td> </td>
	2058
	2059	<td> </td>
	2060
	2061	<td> </td>
	2062
	2063	<td> </td>
	2064	</tr>
	2065
	2066	<tr>
	2067	<td>   Sum per WP</td>
	2068
	2069	<td>a.
	2070	<br>b. </td>
	2071
	2072	<td>a.
	2073	<br>b. </td>
	2074
	2075	<td>a.
	2076	<br>b. </td>
	2077
	2078	<td> </td>
	2079
	2080	<td> </td>
	2081
	2082	<td>Total  FTE
	2083	<br>Total networking</td>
	2084	</tr>
	2085	</table></center>
	2086
	2087	<p><b><font color="#3333FF"><font size=+2>Requested cost per participant
	2088	and work package:</font></font></b>
	2089	<br><b><font color="#3333FF"><font size=+2>(including associate members)</font></font></b>
	2090	<br>
	2091	<p><br>
	2092	<center><table BORDER COLS=7 WIDTH="100%" BGCOLOR="#FFFFFF" >
	2093	<caption>
	2094	<center>
	2095	<br><tbody></tbody><tbody>
	2096	<br></tbody></center>
	2097	</caption>
	2098
	2099	<tr>
	2100	<td><b>Participants </b>
	2101	<br>(give short name and include ass.
	2102	<br>members)</td>
	2103
	2104	<td>        <b>WP1</b>
	2105	<p>a.  FTE
	2106	<br>b.  networking</td>
	2107
	2108	<td>       <b>WP2</b>
	2109	<p>a.  FTE
	2110	<br>b.  networking</td>
	2111
	2112	<td>        <b>WP3</b>
	2113	<p>a.  FTE
	2114	<br>b.  networking</td>
	2115
	2116	<td>      <b> ......</b></td>
	2117
	2118	<td> </td>
	2119
	2120	<td><b>Sum per      participant</b>
	2121	<br>a.  FTE
	2122	<br>b.  networking</td>
	2123	</tr>
	2124
	2125	<tr>
	2126	<td>       <b>1</b></td>
	2127
	2128	<td>a.
	2129	<br>b. </td>
	2130
	2131	<td>a.
	2132	<br>b. </td>
	2133
	2134	<td>a.
	2135	<br>b. </td>
	2136
	2137	<td> </td>
	2138
	2139	<td> </td>
	2140
	2141	<td>a.
	2142	<br>b. </td>
	2143	</tr>
	2144
	2145	<tr>
	2146	<td>       <b>2</b></td>
	2147
	2148	<td>a.
	2149	<br>b. </td>
	2150
	2151	<td>a.
	2152	<br>b. </td>
	2153
	2154	<td>a.
	2155	<br>b. </td>
	2156
	2157	<td> </td>
	2158
	2159	<td> </td>
	2160
	2161	<td>a.
	2162	<br>b. </td>
	2163	</tr>
	2164
	2165	<tr>
	2166	<td>       <b>3</b></td>
	2167
	2168	<td>a.
	2169	<br>b. </td>
	2170
	2171	<td>a.
	2172	<br>b. </td>
	2173
	2174	<td>a.
	2175	<br>b. </td>
	2176
	2177	<td> </td>
	2178
	2179	<td> </td>
	2180
	2181	<td>a.
	2182	<br>b. </td>
	2183	</tr>
	2184
	2185	<tr>
	2186	<td>       <b>...</b></td>
	2187
	2188	<td> </td>
	2189
	2190	<td> </td>
	2191
	2192	<td> </td>
	2193
	2194	<td> </td>
	2195
	2196	<td> </td>
	2197
	2198	<td> </td>
	2199	</tr>
	2200
	2201	<tr>
	2202	<td> </td>
	2203
	2204	<td> </td>
	2205
	2206	<td> </td>
	2207
	2208	<td> </td>
	2209
	2210	<td> </td>
	2211
	2212	<td> </td>
	2213
	2214	<td> </td>
	2215	</tr>
	2216
	2217	<tr>
	2218	<td>   Sum per WP</td>
	2219
	2220	<td>a.
	2221	<br>b. </td>
	2222
	2223	<td>a.
	2224	<br>b. </td>
	2225
	2226	<td>a.
	2227	<br>b. </td>
	2228
	2229	<td> </td>
	2230
	2231	<td> </td>
	2232
	2233	<td>Total  FTE
	2234	<br>Total networking</td>
	2235	</tr>
	2236	</table></center>
	2237
	2238	<p><b><font color="#3333FF"><font size=+2>Additional information concerning
	2239	the cost estimate:</font></font></b>
	2240	<br>
	2241	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	2242	<caption>
	2243	<br><tbody></tbody><tbody>
	2244	<br></tbody></caption>
	2245
	2246	<tr>
	2247	<td><i>Specify additional details relevant to the structure of the budget
	2248	requested (number of workshops and collaboration weeks to be attended,
	2249	new events to be organised, eventual service tasks, fraction of young/senior
	2250	researchers, inviting high-level experts from outside the IA, support for
	2251	dissemination of the knowledge, educational tools and actions, outreach,...)</i>
	2252	<br><b><i>Specify additional details relevant to the structure of the budget
	2253	requested (fraction of total cost requested to be funded, number of workshops
	2254	and collaboration weeks to be attended, new events to be organised, eventual
	2255	service tasks, fraction of young/senior researchers, inviting high-level
	2256	experts from outside the IA, support for dissemination of the knowledge,
	2257	educational tools and actions, outreach,...)</i></b>
	2258	<br>
	2259	<p><i>No attempt to fill the financial table has been done yet. Only an
	2260	early first rough underestimate of the level of funding useful to adequately </i>
	2261	<br><i>reinforce participation to these network of activities in 2004-7
	2262	was performed several weeks ago and is reproposed here as such for now. </i>
	2263	<p><i>1) assuming that about 20 people would be supported to travel for
	2264	each of the  Weeks, at 1000 € each, 60 to 80 K€ per year
	2265	are needed </i>
	2266	<p><i>2) 20 to 40 researchers would be supported to travel to the NuFact
	2267	Workshop (faculty and postdocs) and/or the NuFact School (postdocs </i>
	2268	<br><i>and students). About 40 to 80  K€ per year will be needed</i>
	2269	<p><i>3) additional funds will be needed to cover expenses of invited speakers
	2270	to the Weeks</i>
	2271	<p><i>4) additional funds will be needed to support participation to dedicated
	2272	workshops. </i>
	2273	<p><i>A request of 800 to 1000 K€ over 4 years emerged at the time,
	2274	to be soon seriously revised. </i>
	2275	<p><i>The Guide for proposers implies that the main cost is to be requested
	2276	for the organization of meetings, travel and subsistence expenses. In some
	2277	special case, the cost of for hiring a postdocs or a student can be supported
	2278	provided his task is a service task (such as maintenance and exportability
	2279	of code, database
	2280	). EU funding can cover up to 100% of the real costs
	2281	of the networking activities. No explicit limit is indicated, however it
	2282	seems that total amounts largely exceeding 1 Meuros for each NA over the
	2283	entire IA period (i.e. 5 years) will be difficult to obtain.</i>
	2284	<p><i>We are seriously considering requesting also the cost for hiring
	2285	a postdoc in charge of the centralization, maintenance and distribution
	2286	of the NA patrimony of simulation codes and of the NA Website. </i></td>
	2287	</tr>
	2288	</table>
	2289
	2290	<p><b><font color="#3333FF"><font size=+2>Management structure:</font></font></b>
	2291	<br>
	2292	<table BORDER COLS=1 WIDTH="100%" BGCOLOR="#FFFFFF" >
	2293	<caption>
	2294	<br><tbody></tbody><tbody>
	2295	<br></tbody></caption>
	2296
	2297	<tr>
	2298	<td><i>Specify the structure of the NA management, based on the guidelines
	2299	provided, with names and functions of the people nominated. </i>
	2300	<br><b><i>Co-ordinator: </i></b>
	2301	<br><b><i>Deputy co-ordinator: </i></b>
	2302	<br><b><i>Work-package co-ordinators:</i></b>
	2303	<br><i>A link to the <a href="http://esgard.lal.in2p3.fr/Project/Activities/Organisation/index.php">WEB-based
	2304	description</a> of the central management structure of the CARE IA can
	2305	be provided. Specific functions NA co-ordinators in the central management
	2306	structure can be highlighted (for example the deputy co-ordinator of the
	2307	NA is a member of the Knowledge Dissemination Board, etc...).</i></td>
	2308	</tr>
	2309	</table>
	2310
	2311	<br>
	2312	</body>
	2313	</html>

Note: See TracBrowser for help on using the repository browser.

Context Navigation

source: Backup NB/Talks/MEMPHYSetal/NA_BENEvers09.html@ 410

Download in other formats: