HIGH Quality Support and leading for Scientific Infrastructures & R&D

Leading-edge design, procurement, and integration of complex systems for Scientific Research

INTEGRATION WORKFLOW

1. ASSESSMENT

Analysis of UHV constraints, material compatibility, and experimental goals.

2. DESIGN

Full 3D CAD modeling of the experimental end-station and component routing.

3. ASSEMBLY

Cleanroom integration of optical elements, positioning mechanics, and sensors.

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4. VALIDATION

Laser alignment, vacuum leak testing, and DAQ system verification.

WHAT WE DO

Beam instrumentation

Comprehensive design and supply of beam diagnostic devices: Wire Scanners, SEM-Grid, Collimators, Beam Stop, Faraday Cups, and more.

Astrophysics Instrumentation

Design and procurement of Optomechanical devices.

Experimental Setups

Design and procurement of experimental setups, integrating beam conditioning, sample positioning, and detectors.

Large Experiments Infrastructure

Integration of complex projects: from Supporting Structures, Vacuum, Cryogenics Systems and Detectors

High Precision Mechanics

Micrometric linear and rotational positioning and alignment systems for demanding scientific environments.

Vacuum Technologies

Complete design and procurement of vacuum pipes lines, vacuum vessels, and in-vacuum devices.

Cryogenics

Complete design and procurement of Cryogenics Systems, Cryostatos, Radiation Shield (active and pasive), Thermal holders.

OUR CLIENTS

Latest publications

Design and validation methodology of the control system for a particle beam size measurement instrument at the CERN laboratory

2017 – Jonathan Emery ; Ana Barjau ; Bernd Dehning ; Juan Herranz Alvarez ; Pierre-Jean Lapray ; Matteo Macchini.

Conference: 2017 American Control Conference (ACC), At Seattle, WA, USA, USA.

A new generation of the Beam Wire Scanner (BWS) instrument is being developed for the Large Hadron Collider (LHC) and its injector chain at the European Organization for Nuclear Research (CERN)…

Vibration measurements of a wire scanner – Experimental setup and models.

2016 – Juan Herranz, Ana Barjau, Bernd Dehninga.

Volumes 70–71, March 2016, Pages 974-994.

In the next years the luminosity of the LHC will be significantly increased. This will require a much higher accuracy of beam profile measurement than actually achievable by the current wire scanner. The new performance demands a wire travelling speed up to 20 m s−1 and…

Dynamical Models of a Wire Scanner

2016 – Ana Barjau, Juan Herranz, Bernd Dehning.

Vib. Acoust. Oct 2016, 138(5): 051012 (17 pages).

The accuracy of the beam profile measurements achievable by the current wire scanners at CERN is limited by the vibrations of their mechanical parts. In particular, the vibrations of the carbon wire represent the major source of wire position uncertainty which limits the beam profile measurement accuracy. In the coming years, due to the Large Hadron Collider (LHC) luminosity upgrade…