Work package list. Work package list
Work package list. Work package No Work package title Lead beneficiary No Estimated indicative person- months Start month End month Deliv- erable No 1 Project management 1 4,5 1 18 2,4 2 Analysis 1 6 1 3 3 3 Recommendations 1 4 4 4 7,8 4 Tender procedure 3 5 5 7 9, 10 5 Development 3 3* 8 13 12 6 Trial 3 3 14 16 13, 14 8 Project implementation 3 2 18 18 16 9 Results viability and dissemination 2 23,5 1 18 1, 5, 6, 11, 17, 18 TOTAL 56 * excluding work performed by the subcontractor Work package number 1 Start date or starting event: Month 1 To provide overall project management and co-ordination of the activities of the project team, including administrative support to the team members and the Steering Committee (see also section F: Project Management).
Work package list. Work- package No1 Workpackage title Lead contract or No2 Person- months Start month3 End mont h4 Deliv- erable No5 1 Management 1 (DPC) 4,50 0 28 D1 D3 2 Coordination with EGEE activities 2 (INFN) 21.85 3 25 D5 D7 D10 D13 D17 3 Civil Protection systems analysis 4 (XXXXXX S-LGEI) 32.20 3 11 D6 D8 D9 D11 4 Research and Innovation Strategies definition 3 (IMAA) 50.30 11 25 D14 D15 D16 5 Dissemination and Exploitation 7 (ANPC) 18.65 0 28 D2 D4 D12 D18 D19D 20 D21 TOTAL 127.50 1 Workpackage number: WP 1 – WP n. 2 Number of the contractor leading the work in this workpackage. 3 Relative start date for the work in the specific workpackages, month 0 marking the start of the project, and all other start dates being relative to this start date.
Work package list overview Work package No Work package title Type of activity Lead participant No Person months Start month End month
Work package list overview
WP 1. Design of photonic components of CV quantum computing. EXP: CNRS/IO TH: ULB, UP, POTSDAM, (ICFO) The “hard core” of this workpackage is primarily devoted to the engineering of mesoscopic quantum states of light, viewed as a central prerequisite to CV quantum processors. This experimental research effort will be supplemented with a main theoretical activity on CV quantum computing, centered on photonic CV information carriers. We will investigate the measurement-induced techniques, where conditioning on single-photon or homodyne detection is used to effect interesting informational operations. We will also explore the prospects of one-way quantum computing with CV cluster states, the simulation of physical systems by CV processors, and even the related foundational issue of the non-locality of CV states (e.g., the classical simulation of CV states with negative Wigner function). This is precisely the point where non-Gaussian states and operations play a central role as it is known that quadratic Hamiltonians (which generate Gaussian states) are insufficient in several applications such as universal computing, entanglement distillation, Bell tests, etc. Thus, a major goal of WP1, on the experimental side, will be the generation of high- purity non-Gaussian mesoscopic states of light with negative Wigner function. This will further lead, in WP3, to the demonstration of quantum gates such as the C-NOT and Hadamard gates, and eventually of cat-state CV computing.
WP 2. Design of atomic components of CV quantum computing. EXP: NBI, CNRS/ENS, (CNRS/IO) TH: MPG, ICFO, (UP), (USTAN) This workpackage is concerned with the physical implementation of the quantum gates or operations used in protocols where atomic information carriers need to be manipulated (in addition to photonic ones). This will, almost by definition, involve the nonlinear interaction of light with matter (with a higher than 2nd order in the canonical variables for non-Gaussian operations). We will first exploit the available techniques and interactions, such as de-Gaussification, measurement-induced operations, feedforward, and non-resonant interaction of light with atoms in order to design more complex (non-Gaussian) interactions between several modes, while optimizing the fidelity and success rate of these schemes. On the theory side, the physics of the various sources of nonlinear coupling will be investigated in depth, such as the Faraday effect in dense atomic vapors, the couplin...
Work package list. Work package No Work package title Lead contractor No Person months Start month End month Phase Deliv- erable No
Work package list. Work package No. Work package title Type of activity Lead participant No Lead participant short name Person- months Start month End month 1 Management MGT 1 SED- ETHZ 36 1 36 2 Engineering requirements and applications RTD 5 UPAV 85 1 36 3 Earthquake sources RTD 3 INGV 178 1 30 4 Strong-ground motion model RTD 4 LGIT-UJF 93 1 24 5 Seismic hazard assessment RTD 2 GFZ 39 1 32 6 Computational infrastructure RTD 1 SED- ETHZ 41 1 36 7 Dissemination OTHER 5 UPAV 13 1 36 TOTAL 485
Work package list. Work package list Work package No Work package title Type of activity Lead partic no. Lead partic. short name Person- months Start month End month
