Tables for section 3.1
 Use plain text for the tables in section 3.1. If the proposal is invited to start Grant Agreement preparation, these tables will have to be encoded in the grant management IT tool, where no graphics or special formats are supported. 
Table 3.1a: 	List of work packages
Work package No	Work Package Title	Lead Participant No	Lead Participant Short Name	Person-Months	Start Month	End month	
1	Project management				1	48	
2	Communication, outreach and KT				1	48	
3	Test beam, Irradiation, characterisation facilities and 1related infrastructure				1	48	
4	Solid state sensors for overtaxing, tracking and timing				1	48	
5	Photodetector sensors and PID				1	48	
6	Gas detectors				1	48	
7	Calorimeters				1	48	
8	Mechanics and cooling		INFN LECCE (Beneficiary):
A.Miccoli
S.Maggiore
A.Corvaglia
C.Veri
IN2P3 – IJCLab
G. Charles 10
INFN - Bari
N. De Filippis 6

Total=59.2 PM
i.e. 60% of the total PM required in the project
PM required for the project= 98.7PM
PM requested to EC= 39.5PM
Industrial Partner:
(as subcontractor)
CETMA Composities Company (www.cetma.it)
Jacques Allemann (https://www.jacques-allemann.com/jac_en/)
Luma Wire Tech (https://lumawiretech.com/)	14,4
9,6
9,6
9,6	1
1
1
1	48	
9	Microelectronics				1	48	
10	Software				1	48	
11	Blue-Sky				1	48	

Table 3.1b:	Work package description 
For each work package: 
Work package number 	8.2	
Work package title	Design of lightweight and low-mass mechanical structures	
 Participants involved in each WP and their efforts are shown in table 3.1f. Lead participant and starting and end date of each WP are shown in table 3.1a.)
Objectives 
Construction of an ultra-light drift chamber equipped with a novel system of the wire tension recovery	

Description of work 

The central tracker we proposed for the IDEA detector at the future FCC-ee accelerator is a large-volume drift chamber, ultra-light, “full stereo”, operating with a helium-based gas mixture and equipped to perform an excellent particle identification by applying the cluster counting technique. 
The detector design is inspired by that of the drift chamber of the KLOE experiment, at the Dane accelerator of the INFN Frascati national laboratories, then evolved into that of the chamber of the MEG2 experiment, currently in the data collection phase at the PSI Laboratory in Zurich.
The IDEA drift chamber, currently being designed, adopts a new construction technology, completely based on carbon fiber, and with the peculiarity of allowing the recovery of deformations on the “endplates” due to the load of the wires (about 344,000 wires for a total load of 10 tons).
A prototype of the full-length chamber, 4 meters, is planned for the next few years, in order to verify: the electrostatic stability of the wires along the entire length and at the nominal stereo angles, the use of different materials for the wires, the anchoring procedures and the tension recovery scheme, the front-end electronics, the acquisition system and the assembly procedures.
The realization of such an innovative chamber involves several engineering issues:
 •	Finite element method (FEM) analysis and simulation of an ultralight mechanical structure in carbon fiber;
• engineering design of the drift chamber with thin wires, with separation of the gas containment envelope from the wire support structure (“feed-through-less”);
• design of a new system for recovering the mechanical tension of the wires, increasing the granularity of the chamber and the number of wires but reducing their thickness, and therefore the material in the detector, the multiple scattering and the total tension on the “endplates”;
• sstudy of a new typology of carbon based field wires, with a thin metal film to prevent corrosion;
• preparation of the layout for beam tests with different configurations of drift tubes to establish the optimal operating parameters for the efficient application of the “cluster counting” technique.
Basically, the tracker consists of an external structural cylinder on which 24 spokes are hinged per each side. The spokes are essentially trapezoidal section rods with a length of 1640mm, held inside by a non-structural ring, on which a 200um mylar cylinder is tensioned. The peculiarity of this drift chamber is the recovery of the endplates deformations, by means of 15 stays per spoke, equipped with load cell for tension control, due to the load of the wires.

	

Table 3.1c:	List of Deliverables    
Only include deliverables that you consider essential for effective project monitoring. 
Number	Deliverable name	Short description	Work package number 	Short name of lead participant 	Type	Dissemination level	Delivery date
(in months)	
8.2.1	FEM Analysis and simulation	Single components FEM analysis and assembled full structure FEM analysis of the DCH prototype	8.2	?	R	PU	
6	
8.2.2	Production	Production and dimensional analysis of the composite parts of the DCH prototype by CETMA/Technologycom company
	8.2	?	Other	PU	18	
8.2.3	Assembly methodology	Validation of the correct mechanical structure assembling of the DCH prototype
	8.2	?	R	PU	24	
8.2.4	Control and survey system	Position control systems during DCH prototype construction  
	8.2	?	R	PU	36	
8.2.5	Study of the mechanical response stresses	Mechanical response of the full DCH prototype and tension recovery system test
	8.2	?	DMP	PU	48	
8.2.6	Study of new field wires	Carbon based wires are lighter and stronger but need coating that will be tested with manufacturers.	8.2	G. Charles	DEM	PU	48	

KEY 
Deliverable numbers in order of delivery dates. Please use the numbering convention <WP number>.<number of deliverable within that WP>. 
For example, deliverable 4.2 would be the second deliverable from work package 4.

Type: 
Use one of the following codes: 
R:	Document, report (excluding the periodic and final reports) 
DEM:	Demonstrator, pilot, prototype, plan designs 
DEC:	Websites, patents filing, press & media actions, videos, etc.
DATA:	Data sets, microdata, etc.
DMP: 	Data management plan
ETHICS:	Deliverables related to ethics issues.    
SECURITY: Deliverables related to security issues
OTHER: Software, technical diagram, algorithms, models, etc.

Dissemination level: 
Use one of the following codes: 
PU – Public, fully open, e.g. web (Deliverables flagged as public will be automatically published in CORDIS                    project’s page)
SEN – Sensitive, limited under the conditions of the Grant Agreement	
Classified R-UE/EU-R – EU RESTRICTED under the Commission Decision No2015/444
Classified C-UE/EU-C – EU CONFIDENTIAL under the Commission Decision No2015/444
Classified S-UE/EU-S – EU SECRET under the Commission Decision No2015/444

Delivery date
Measured in months from the project start date (month 1)	

Table 3.1d:	List of milestones 
Milestone number	Milestone name	Related work package(s)	Due date (in month)	Means of verification	
	M18	Production and simulation of composite parts of the DCH Prototype
	18	Descriptive document of dimesional values adn quality check	
	M36	Design and construction of positioning control system	36	Laser Directive guideline
	
	M36	Validation of the assembly methodology and the tension recovery systems
	36	Check with optical system and check the wires tension with strain gauge equipped device 
	
	M48	Dimensional and geometric analysis of the assembled prototype
	48	Report of dimensional and geometric values
	
	M48	Small prototype with carbon based wires mounted	48	Optical check and tensile strength measurements of the coated wires. Detectors mounted with the new wires characterized in gain and efficiency.	

KEY
Due date
Measured in months from the project start date (month 1)

Means of verification 
Show how you will confirm that the milestone has been attained. Refer to indicators if appropriate. For example: a laboratory prototype that is ‘up and running’; software released and validated by a user group; field survey complete and data quality validated.