CH 8050 Zürich
Phone: +41 44 273 16 38
Phone: +41 44 273 16 38
Our usual email response time
is 1-2 business days
GB United Kingdom & IE Ireland
Unit F2 Ote Hall Farm
Phone: +44 (0)1444 233372
Fax: +44 (0)1444 233392
BE-INSTRUMENTS TRADING CO., LTD.
13th Floor, Room 10, Air China Plaza
No. 36, Xiaoyun Road
Chaoyang District, Beijing (P.R. China)
Phone: +86 (0)10-806 983 56
Fax: +86 (0)10-806 983 59
Nerima-ku, Tokyo 178-0061, JAPAN
KR Korea, Republic of
INA Korea Co.,Ltd.
DK B/D, 27-4, Gongduck-Dong,
Mapo-Gu, Seoul 121-020 Korea
Tel : +82-2-714-5456
Add. No. 111, Jiabei 1st St.,
Miaoli County 35058, Taiwan (R.O.C.)
Cellphone : +886-919-706-759
Eisenberg Bros. Ltd.
Arava St. Airport City
Contact: Mr. Eran Montekyo
US United States
United Mineral & Chemical Corp.
160 Chubb Avenue, Suite 206
Lyndhurst, NJ 07071
Tel: +1 201-507-3300
Cell: +1 973-864-0537
AU Australia & NZ New Zealand
CH 8050 Zürich
Phone: +41 44 273 16 38
All other countries, please contact our headquarters in Switzerland
On this page we would like to provide a more in-depth look at our products and also present ongoing and completed projects. Our complete product range can be found in the:
SLAPXPS :: Solid-Liquid Ambient Pressure XPS Endstation with Analysis Chamber Module
Swiss Light Source Beamline: NanoXAS
"We ordered a custom-based ambient pressure XPS endstation from Ferrovac to study solid-liquid interfaces. Ferrovac did an excellent job both in terms of engineering and assembly and delivered the product on time. This endstation is very productive from the very first day it was connected to the synchrotron at the Swiss Light Source."
Z. Novotny, Scientist, Paul Scherrer Institute/University of Zuerich
Sample Handling System for Cryogenic SNOM :: UC San Diego
link?The finishing touches to an all-round sample handling and storage solution were realized mid-year with delivery to the University of California following soon after.
The system was developed in close collaboration between the engineering department of Ferrovac and Alexander S. McLeod and Michael Goldflam of the Department of Physics at UC San Diego.
Once fully assembled and operative, the first results and feedback were altogether positive:
"Behold, [...] an infrared image now from our microscope, showing conductive metallic regions percolating during a metal-insulator transition in an oxide film at ~160K. Suffice to say we are happy everything is working for us now with the RECOMECs, load-lock and wobblestick, this hardware is enhancing our productivity quite a lot!"
- A. McLeod, UC San Diego
Michael Goldflam and Alexander S. McLeod of the Basov Infrared Laboratory, UC San Diego
Developers and builders of the cryogenic scanning near-field optical microscope
The system (pictured above) consists of a customized KS load lock cross and chamber, a WMG40 wobblestick with custom-made PGWMS pincer, a pair of MD linear/rotary feedthroughs equipped with eightfold RECOMSTACK sample storage stacks and the elementary RECOMEC13S receptacles and SHOMEC13 sample plates with electrical contacts.
In very limited space, the approach to the interchangeable probe and sample plates is only possible at a 47° angle, with the probe also tipping forward. A special pincer design accounts for these issues, making access to and exchange of the samples a smooth affair.
By simply twisting the wobblestick to one or the other side and back, the sample plate is held either straight for exchange with either storage stack or at an exact 47° for access to the microscope.
MXYZR :: XYZR Boomerax Manipulator Series
This configuration example provides every necessary degree of freedom for full control over your samples in a UHV environment and sample temperatures down to 10 Kelvin by combining a "Boomerax" high precision XY stage with our MZ linear Z-axis drive and incorporating a well-established and very stable Janis ST-400 continuous flow cryostat.
ST-400 He-Flow Cryostat :: As one of the the simplest methods of providing cooling in an ultra-high vacuum environment, the ST-400 has several features that are specific for UHV requirements.
MR63DPV552 Rotary Feedthrough :: This differentially pumped rotating platform provides the means of translating rotation through a vessel wall without losing vacuum integrity
MZ Z-Translator :: The optionally motorized linear Z-axis drive comes into play for accurate lifting and lowering. It's highest quality edge welded bellows fulfill the strictest requirements in terms of leak tightness and durability.
Boomerax MXY Module :: For smooth and exceptionally precise adjustment, it offers a resolution of 2 microns when manually driven and even higher resolutions when motorized.
Sizes and Options
- Mounting Flange Sizes: DN16CF, DN40CF, DN63CF, DN100CF, DN160CF
- Travelling Flange Sizes: DN16CF, DN40CF, DN63CF, DN100CF, DN160CF
- Limiteable Travel Distances
- Motorization Options Available for All Sizes
- Tilt: 2° in Any Desired Axis
Sample Environment :: Sample Heating Stage assembly for flag style sample plates, featuring a standard rectangular PBN/PG heater.
Further example of Boomerax XYZ Stage, with Chamber for Electrical Feedthroughs
Manual or Motorized Actuation Alternatives for XY Stage ::
Heater assembly for direct current heating of SHOMDC sample holders
Complementing our heating solutions is the recently updated HSASM40-MD16(TS)-TSMDH-HSMDDCOM heater assembly for direct current heating of SHOMDC sample holders.
Customizeable in it's lengths of travel and retraction, it's main element is the sample heating stage that's integrated into a complete assembly including a special DN40CF flange with linear/rotary as well as an electrical feedthrough.
For more information...
Mini NexGeneration UHV Suitcase
From small to mini!
We have developed an even smaller, lighter and more cost efficient version of our UHV suitcase. The VSN40M is equally reliable yet especially practical wherever space is at a premium.
The Mini NexGeneration UHV Suitcase is the ideal solution for carrying and transferring multiple samples at once under true UHV conditions from one instrument to another. The samples are held in a storage mechanism such as a stack of receptacles or a carousel. Should only a single sample holder need to be stored and transferred, this is also possible using a pincer grip, fork or similar instead of the storage option.
Just like the standard size UHV suitcase, the VSN40M is designed as a modular concept so that it can be adapted to suit your specific requirements.
For more information...
Sample Holder for Single Crystals
As an example for a flag style sample holder for single crystals, the SHOMCH can be individually adapted to suit other monocrystalline types.
This special flag style sample holder simplifies the process of mounting single crystals (type K005), it's four slits in the retaining plate ensuring safe and level clamping.
If you use another single crystal type and/or need other dimensions, please do not hesitate to contact us.
For more information...
Hollow Shaft Sample Transporter with In-Vacuum Brake and Belt Drive
The RMHS40-IVBR-TSRMBD serves as a vertically mounted manipulator, commonly used for sample insertion into cryogenic SPM's.
The layout of these systems calls for long travel and precise manipulation.
The RMHS40 sample transporter features a specially treated hollow shaft that offers the necessary straightness, lighter weight and crucially it also avoids excessive thermal conduction.
Strongly recommended for safety reasons is the inclusion of an IVBR in-vacuum brake that prevents the inner shaft from suddenly dropping, should the magnetic coupling be let go by accident.
Facilitating the handling of such long sample transporters, the TSRMBD belt drive provides quick elevation over longer distances using it's belt. Two hand wheels enable precise linear as well as rotary positioning.
For more information...
Pictured below: IVBR In-Vacuum Brake
Application example (with UHV cube) shown: Scanning tunneling microscope setup operating in UHV, very low temperature (T<0.1K) and high magnetic field (B>15T). The hollow shaft, belt-driven sample transporter by Ferrovac enables top-loading of the sample and tip holders from the transfer chamber (UHV cube) down to the STM head.
Engineering: Dominique Grand (Institut Néel, CNRS & Université Grenoble Alpes)
PI: Benjamin Sacépé (Institut Néel, CNRS & Université Grenoble Alpes)
Hexapod Port Aligners
Used to align transfer axes of manipulator-to-chamber or chamber-to-chamber systems, port aligners are indispensable for most sample manipulations and transfer mechanics in UHV.
While all types of port aligner allow for angular and linear adjustments and compensation, the "HEX" models additionally enable lateral axis displacement.
Thanks to this enhanced flexibility, the axis of for example a sample transporter can be aligned with two different sample exchange positions in just one setting.
Hexapod port aligners are also especially sturdy.
For more information...
A great specific example of their implementation is by Imagine Optic, who have made our PA63HEX a standard part of their HASO EUV wavefront sensors (pictured below):
Receivers for SHOM flag style sample plates
Our RECOM receivers are a utilitarian component for UHV systems that operate with SHOM flag style sample plates.
Machined from a solid block, they are available in a variety of shapes and materials to suit specific requirements like high heat resistance or non-ferromagneticity. We also supply matching SHOM plates in a great variety of materials.
Secured in the RECOM by leaf sprung Ruby spheres, the sample plates glide over these point contacts with very low friction.
RECOMs are the fundamental building block for a whole host of sample storage solutions such as revolving carriers for SHOM plates.
Please contact us to find your matching off the shelf or customized sample plate receiver and/or storage solution.
For more information...
The pictured rotatable sample storage is a customized solution with 6 vertically mounted RECOM sample plate receivers
SwissFEL :: Energy Collimator
The HOENCOL energy collimator presented here was developed for the Swiss Free Electron Laser facility (SwissFEL) in close collaboration with the Paul Scherrer Institute. It consists of four magnetic dipoles with a collimator block system installed between the two central dipoles.
The energy collimator acts as a filter to protect the undulator line from parasitic electrons.
In order to vary the energy acceptance of the system, two motorized linear drive units move the shielding blocks along the horizontal axis perpendicular to the direction of the e-beam.
In order to resolve mechanical stress in the process of opening/closing the gap with the linear drives, possible angular errors are compensated by the alignment units. These consist of massive triangular plates held by three sturdy steel studs which are used for the initial alignment.
The edge welded belows allow for the necessary angular freedom.
Linear drive units
Due to potential electromagnetic disturbances caused by the stepper motors, these are placed 0.5 m away from the electron beam axis.
With an accuracy of less than 1 micron, an integrated linear encoder measures the linear displacement of the alignment unit.
Linear force is transmitted via torque shafts to protect the alignment units' belows from distortion.
Energy Collimator Location
Schematic Layout of SwissFEL Aramis beamline (left) and setup of various components on it's girder (right), showing the position of the energy collimator.
Energy Collimator Specifications
In order not to affect the beam quality, the surface and positioning of the two motorized shielding blocks must fulfil the high requirements specified below. The support beams and their supporting structure were laid out with an extreme stiffness using FEM (finite element method) to optimize shape and pocket geometry.
This simulation shows a support beam hanging freely without any base and with a 7kg load. In an overscaled representation, the displacement of the tip is calculated to be less than 0.05 mm.
If you would like more information please contact us with any questions you may have at link?
SwissFEL :: Photocathode Preparation and Load-Lock System
The PCPLS is a novel cathode preparation and loading system designed and built for the Swiss Free Electron Laser facility (SwissFEL) at PSI.
It enables the preparation and exchange of the RF photogun's cathode without breaking the UHV chain. A prerequesite for maintaining the quality of the cathode surface, which is essential.
The SwissFEL electron source is an RF photo-injector in which the photo-cathode plug can be exchanged, all under UHV conditions. Without a load-lock, the cathode exchange takes about one week and the cathode surface gets contaminated in the atmosphere during installation, leading to unpredictable quantum efficiency (QE) fluctuations.
These time and contamination issues motivated the construction of a load lock system to prepare and insert cathodes into the photo-injector, doing away with the need for venting the gun. Now using the vacuum suitcase for the cathode exchange between the preparation chamber and the gun loading chamber, the exchange requires only half a day (including RF conditioning of the new cathode, tested on Cu_17).
The cathode loading system consists of three chambers:
- a) Preparation chamber where cathodes can be cleaned, annealed and where the quantum efficiency (QE) can be checked.
- b) Vacuum suitcase where cathode plugs can be loaded from preparation chamber and transported to the gun.
- c) Gun loading chamber which is permanently attached to the gun and in which cathodes can be transferred from vacuum suitcase to the gun backplane.
This three-part system allows the preparation of the cathode surface with methods like annealing. The QE can be checked with a laser and the plug can be inserted into the gun without breaking the vacuum. This will eventually allow the use of semiconductor cathodes like Cs2Te.
The PCPLS system was successfully installed and tested at the SwissFEL injector Test Facility (SITF).
Storage carousel and grabbing principle
A magnetically coupled manipulator arm can grab the plug (right) out of a parking holder and safely transfer it linearly over half a meter distance under ultra high vacuum. In each of the 3 chambers a rotatable carousel (below) can hold up to 4 cathode plugs.
The figure to the right shows how the vacuum suitcase is connected to the gun loading chamber. The fine adjustment knob of the magnetically coupled manipulator keeps the cathode pushed into the gun during operation.
The quantum efficiency of the cathodes depends on three theoretical parameters: the work function, the surface reflectivity and the local electric field (for a given laser wavelength). Contamination and roughness directly affect these parameters. The PPLS enables optimized preparation procedures and actions for the cathodes.
Cathode surface cleaning is done in the preparation chamber. The most effective way to remove surface contaminants is to heat up the cathode plug for several hours. The preparation chamber is equipped with a heating rod which can be directly inserted into the back of the cathode plug. Thanks to the vacuum suitcase, the cathode is protected from exposure to atmosphere during transfer. Therefore preparation processes such as Dicaesium Telluride vapor deposition can be included.
The deposition chamber is equipped with an easily exchangeable aperture in front of the cathode (for variation of the deposition area)
and a quartz micro-balance. The cathode is loaded from the left and the evaporation source from the right.
If you would like more information please contact us with any questions you may have at link?.
Motorized Sample Transporters
Motorization of manipulators provides reliable, safe and precise movement, positioning and handling. Implemented in our motorized sample transporters are the necessary prerequesites: a fine step resolution and a sturdy construction.
Where different users operate, automation is especially advantageous and also saves valuable working time.
Shown in the video below is a stepper motor-driven linear drive for RM and GMD sample transporters. The motorized drive allows for automatic and reproducible extension of the shaft. Rotary motion is done manually.
Pictured right is a motorized linear and double rotary drive with pincer grip for SHOM sample plates. The separate rotation of each shaft enhances operation of the pincer by being able to open/close and also rotate it.
Motorized Linear- & Rotary Manipulator
Linear motion of the shaft is controlled by a precision motorized spindle that is coupled to the outer magnet. The shaft is rotated via gear wheels that transfer the motion from a second stepper motor.
For more information, please contact us directly.
Portable Scanning Probe Microscope in a UHV-Suitcase
Product VSPROBE2 not available.
|Atomically resolved Graphene on Ni thin film, SiO2/Si substrate.
|SHOMEC13(EBL1) Scan Head
April 2014 - RSI publication: " Design and performance of AERHA, a high acceptance high resolution soft x-ray
By: Sorin G. Chiuzbian, Coryn F. Hague, Antoine Avila, Renaud Delaunay, Nicolas Jaouen, Maurizio Sacchi,
François Polack, Muriel Thomasset, Bruno Lagarde, Alessandro Nicolaou, Stefania Brignolo, Cédric Baumier, Jan Lüning, and Jean-Michel Mariot
Ferrovac would like to thank the authors for mentioning us in the acknowledgment.
Citation: Review of Scientific Instruments 85, 043108 (2014); doi: 10.1063/1.4871362
View online: link?
View Table of Contents: http://scitation.aip.org/content/aip/journal/rsi/85/4?ver=pdfcov
Published by the AIP Publishing
The transport of samples under true UHV conditions from one instrument to another, sometimes from one institution to the other, is an increasingly important task in modern surface science. Ferrovac is constantly extending its product range in order to provide tailor made solutions. We would like to present our new models of NEG/Ion pumped UHV suitcases optimized in size, cost and performance.
M Sacchi et al 2013 J. Phys.: Conf. Ser. 425 202009
M Sacchi, H Popescu, R Gaudemer, N Jaouen, A Avila, R Delaunay, F Fortuna, U Maier and C Spezzani
We have designed, built and tested a new instrument for soft x-ray scattering experiments. IRMA-2 is a UHV set-up for elastic and coherent scattering experiments developed at the SEXTANTS beamline of the SOLEIL synchrotron. Applications will be in the field of solid state physics, with emphasis on the investigation of the magnetic properties of artificially structured materials.