Anderssen, E. - Search Results - CERN Document Server

Home > Search Results: Anderssen, E.

Search collections:

Sort by:	Display results:	Output format:

CERN Document Server	34 records found 1 - 10 jump to record:	Search took 0.73 seconds.

The Role of Azimuthal Prestress in the Longitudinal Degradation of Nb3Sn Superconducting Magnets / Vallone, G (LBL, Berkeley) ; Ambrosio, G (Fermilab) ; Anderssen, E (LBL, Berkeley) ; Ferracin, P (LBL, Berkeley) /LARP Collaboration
Superconducting magnet coils are subject to enormous electro-magnetic forces which push the cables away from the winding pole, and against the surrounding structure. This structure is usually optimized trying to limit the overall motion and the strains experienced by the superconducting elements. [...]
FERMILAB-PUB-24-0947-TD.- 2025 - 5 p. - Published in : IEEE Trans. Appl. Supercond. 35 (2025) 4000705 Fulltext: PDF; External link: Fermilab Accepted Manuscript

Detailed record

Design and manufacture of the supports for the ATLAS barrel strip staves / Yang, Qing (University of Oxford (GB)) ; Viehhauser, Georg (University of Oxford (GB)) ; Claybaugh, Todd Masao (Lawrence Berkeley National Lab. (US)) ; Anderssen, Eric (Lawrence Berkeley National Lab. (US)) ; Cooper, Liam James (Science and Technology Facilities Council STFC (GB)) ; Evans, Charles /ATLAS Collaboration
In the ATLAS barrel strip system silicon strip modules are mounted on local supports (staves). The staves are supported on four large concentric carbon fibre support cylinders. [...]
ATL-ITK-SLIDE-2024-127.- Geneva : CERN, 2024 - 24 p. Fulltext: PDF; External link: Original Communication (restricted to ATLAS)

Detailed record

A Review of the Mechanical Properties of Materials Used in Nb3Sn Magnets for Particle Accelerators / Vallone, G (LBNL, Berkeley) ; Anderssen, E (LBNL, Berkeley) ; Bordini, B (CERN) ; Ferracin, P (LBNL, Berkeley)
Superconducting magnets experience significant thermo-mechanical loads throughout their life cycle. These are introduced by the electro-magnetic forces during powering, but also by the prestress applied in many magnet designs. [...]
2023 - 6 p. - Published in : IEEE Trans. Appl. Supercond. 33 (2023) 4002806

Detailed record

Measurement and Computation of Nb$_3$Sn Rutherford Cables Strength Under Multi-Axial Loading Conditions / Vallone, G (LBNL, Berkeley) ; Croteau, J F (LBNL, Berkeley) ; Anderssen, E (LBNL, Berkeley) ; Bordini, B (CERN) ; D'Addazio, M (LBNL, Berkeley ; Polytech. Turin) ; Ferracin, P (LBNL, Berkeley) ; Niccoli, F (Calabria U.)
Superconducting magnet coils are subject to large thermo-mechanical loads applied during magnet assembly, cooldown and operation. These loads can cause the reduction of their critical current due to mechanical strains or local filament failures. [...]
2024 - 5 p. - Published in : IEEE Trans. Appl. Supercond. 34 (2024) 8400105

Detailed record

A Novel Design for Improving the Control on the Stainless-Steel Vessel Welding Process for Superconducting Magnets / Vallone, G (LBL, Berkeley) ; Ambrosio, G (Fermilab) ; Anderssen, E (LBL, Berkeley) ; Fehrer, S (Fermilab) ; Ferracin, P (LBL, Berkeley) ; Ferradas Troitino, J (CERN)
Stainless steel vessels see widespread use in superconducting magnets for particle accelerator applications. Their function varies in different magnet designs: they always provide the necessary liquid helium containment, but in some cases are also used to provide azimuthal prestress and can also be welded to the magnet end plate to provide additional longitudinal stiffness. [...]
FERMILAB-PUB-22-858-TD.- 2023 - 5 p. - Published in : IEEE Trans. Appl. Supercond. 33 (2023) 4001705 Fulltext: PDF; External link: Fermilab Library Server

Detailed record

ALICE upgrades during the LHC Long Shutdown 2 / ALICE Collaboration
A Large Ion Collider Experiment (ALICE) has been conceived and constructed as a heavy-ion experiment at the LHC. During LHC Runs 1 and 2, it has produced a wide range of physics results using all collision systems available at the LHC. [...]
arXiv:2302.01238; CERN-EP-2023-009.- Geneva : CERN, 2024-05-23 - 159 p. - Published in : JINST 19 (2024) P05062 Draft (restricted): PDF; Fulltext: 2302.01238 - PDF; document - PDF;
In : The Large Hadron Collider and The Experiments for Run 3

Detailed record

Failure Assessments for MQXF Magnet Support Structure with a Graded Approach / Pan, Heng (LBL, Berkeley) ; Anderssen, Eric C (LBL, Berkeley) ; Cheng, Daniel W (LBL, Berkeley) ; Prestemon, Soren O (LBL, Berkeley) ; Ambrosio, Giorgio (Fermilab)
The High-Luminosity Large Hadron Collider (HLLHC) upgrade requires new quadrupoles, MQXF, to replace the present LHC inner triplets. The MQXFA magnet is the first prototype that has a 150 mm aperture and uses Nb3Sn superconducting technology in a 4.2 m magnetic length structure. [...]
FERMILAB-PUB-19-057-TD.- 2019 - 7 p. - Published in : IEEE Trans. Appl. Supercond. 29 (2019) 8401507 Fulltext: PDF; External link: Fermilab Accepted Manuscript
In : Applied Superconductivity Conference 2018, Seattle, United States Of America, 28 Oct - 2 Nov 2018, pp.8401507

Detailed record

Mechanical Characterization of Low-Carbon Steels for High-Field Accelerator Magnets: Application to Nb$_{3}$Sn Low-$\beta$ Quadrupole MQXF / Aviles Santillana, I (CERN) ; Vallone, G (LBNL, Berkeley) ; Anderssen, E (LBNL, Berkeley) ; Izquierdo Bermudez, S (CERN) ; Bonnin, S (CERN) ; Crouvizier, M. D. (CERN) ; Principe, R (CERN) ; Sgobba, S (CERN) ; Weiss, K P (KIT, Karlsruhe, TP) ; Bagrets, N (KIT, Karlsruhe, TP) et al.
In the quest for higher field accelerator superconducting magnets, essential parts of their design are the so called yokes, which are traditionally made of low – carbon magnetic steel. In currently used magnets, they are typically found in the form of fine – blanked laminations, or machined from laminated heavy plates. [...]
2022 - 7 p. - Published in : IEEE Trans. Appl. Supercond. 32 (2022) 4100507
In : 27th International Conference on Magnet Technology (MT-27), Fukuoka, Japan, 15 - 19 Nov 2021, pp.4100507

Detailed record

First demonstration of in-beam performance of bent Monolithic Active Pixel Sensors / ALICE ITS project Collaboration
A novel approach for designing the next generation of vertex detectors foresees to employ wafer-scale sensors that can be bent to truly cylindrical geometries after thinning them to thicknesses of 20-40$\mu$m. To solidify this concept, the feasibility of operating bent MAPS was demonstrated using 1.5$\times$3cm ALPIDE chips. [...]
arXiv:2105.13000.- 2022-04-01 - 14 p. - Published in : Nucl. Instrum. Methods Phys. Res., A 1028 (2022) 166280 Fulltext: PDF;

Detailed record

10.

A methodology to compute the critical current limit in Nb$_3$Sn magnets / Vallone, G (LBNL, Berkeley) ; Anderssen, E (LBNL, Berkeley) ; Bordini, B (CERN) ; Ferracin, P (LBNL, Berkeley) ; Troitino, J F (CERN) ; Prestemon, S (LBNL, Berkeley)
Numerous experiments have shown that the loads applied to Nb$_3$Sn strands and cables can reduce their critical current. Experiments, performed on uniaxially loaded strands, allowed to define clear laws to describe the evolution of the critical surface as a function of the applied current, field, temperature and strain. [...]
2021 - 13 p. - Published in : Supercond. Sci. Technol. 34 (2021) 025002

Detailed record

See also: similar author names
18	Anderssen, E
5	Anderssen, E C
8	Anderssen, Eric
5	Anderssen, Eric C
4	Anderssen, Eric Christopher

Interested in being notified about new results for this query?
Set up a personal email alert or subscribe to the RSS feed.

Haven't found what you were looking for? Try your search on other servers:
Anderssen, E. in Amazon Anderssen, E. in CERN EDMS Anderssen, E. in CERN Intranet Anderssen, E. in CiteSeer Anderssen, E. in Google Books Anderssen, E. in Google Scholar Anderssen, E. in Google Web Anderssen, E. in IEC	Anderssen, E. in IHS Anderssen, E. in INSPIRE Anderssen, E. in ISO Anderssen, E. in KISS Books/Journals Anderssen, E. in KISS Preprints Anderssen, E. in NEBIS Anderssen, E. in SLAC Library Catalog Anderssen, E. in Scirus

CERN Document Server

Access articles, reports and multimedia content in HEP

Main menu

CERN Accelerating science