Development of Instruments for Pioneering Research
Instrument development to enable groundbreaking scientific experiments.
Trusted and experienced partner for the scientific community.
25 Years of Scientific Experience
In working for renowned institutes in pioneering scientific research
Experienced in Contract-Based Development
Experienced in contract-based development of complex instruments
Extreme Environmental Conditions
Instruments for use in vacuum, cryogenic or magnetic environments
World-Class Manufacturing Technology
Embedded in the technology & manufacturing hotspot of the world
The Key to Bespoke Scientific Instruments
We stand out in the development of cutting edge, bespoke scientific instruments. We enable the scientific community to perform the most extreme experiments. These are our assets.
What do we Offer
Precision engineering for science
We share the curiosity with respect to the questions in present fundamental science research. We deploy our expert knowledge in precision engineering and mechatronics instrument development to contribute to the advances in this field.
Contract based development
Pioneering scientific research pushes the limits of technical feasibility in instrumentation development. Therefor the development of bespoke instruments is not always easy to manage in terms of timing and budgets. On top of that, these programs are mostly executed under rigid administrative and financial regulations. This can complicate the involvement of commercial development partners. However, our leading engineering expertise and our long-term experience in this working field make that we can excel within this challenging environment.
Advanced production facilities
We have cleanroom facilities for assembly, integration and testing. We don’t have manufacturing facilities as we closely cooperate within an established network of subcontractors that is specialized in manufacturing high precision parts, optics, surface treatments, etc. These companies are part of the global technology and manufacturing hotspot, related to the vast high-tech OEM industry in our (Eindhoven) region. In such a way we can keep full focus on our key expertise which is developing innovative and pioneering scientific instrumentation.
We are always open for new opportunities. Let’s discuss what we can do for you!
Huub Janssen – CEO & founder of JPE
Interested to find out what we can do for you?
We respect the confidential nature of the work that we perform for our customers. Therefore we can only display a small collection of our developments. Feel free to contact us to discuss any opportunity.
Configurable Slit Unit
Multi-Object Masking Mechanism for Astronomy
The light spectrum of stars contains valuable information for astronomy research. In order to derive the spectrum of a single, specific object in the sky it should be isolated from other objects. For the GTC telescope, the largest telescope in the world, it was envisioned to develop a configurable slit unit (CSU) for this purpose. This CSU should be able to make 55 individual slits, by inserting 110 independently driven masking bars with micrometer motion accuracy, from opposite sides of a 340 mm square field of view. And by the way, in a vacuum and 77 Kelvin (LN2) environment.
Within the given constraints of vacuum and cryogenic operation, and moreover the limited design envelope, there were no position actuators and sensors available on the market that could be used to drive the 110 individual masking elements. We came up with a promising concepts for both vital functions. Feasibility was proven by breadboard testing. From there a controlled project with integrated risk mitigation actions was defined; a clear path was followed from breadboard to a fully engineered and qualified solution via intermediate prototype milestones.
The CSU is installed as part of the EMIR instrument on the Gran Telescopio Canarias on the island La Palma (Canary Islands). It is the first instrument ever which enables (re)configuration of the masking elements at cryo temperatures in astronomy. By this, the CSU enables to capture a unprecedented amount of individual objects in the sky per observation night; the observing capacity is unrivelled by factors compared to other existing observatories. This means a massive step forward for the astronomy community in the quest to build a better understanding of the universe.
High Transmission X-Ray Spectrometer
Advanced Material Research
An renown cyclotron facility had identified the need to extend their capabilities for advanced material research in the direction of batteries and solar cells. More specifically, the need was identified to include a soft x-ray spectrometer within the energy range between 54.3 eV to 1836 eV. Such a system is not commercially available, though based on previous studies an optical scheme had been established for this spectrometer. Within the optical concept, a number of optical elements should be moved (gratings, aptertures, mirrors) over centimeters range with micrometer accuracy and submicron stability.
The design and realization of the spectrometer was tendered to the industry. The major challenge within the contract was not only the fullfillment of the motions, but also the stress-free and stable integration of the sensitive optical elements into the mechanism.
Out of the competition, we were contracted based on two decisive assets. The ability to use our own of-the-shelf actuators which were completely suited for the job was a decisive risk mitigation for the customer. Our long-standing expertise in kinematic and stress-free optical mounts was seen as a second crucial expertise.
The spectrometer has been designed and built by JPE. Manafucturing was sub-contracted within our established network of manufacturing partners.
The spectrograph is installed at the beamline endstation and succesfully commisioned. It will enable the scientific community to further extend material research to the benefit of the whole society.
High Magnet Field Sample Rotator
Material Research by Neutron Scattering in High Magnetic Field
For various kinds of fundamental physics research, samples are placed in an extremely high magnetic field and then bombarded with neutrons. The scattering pattern of particles that are ‘blown away’ reveals valuable scientific insights.
The facility with the worldwide strongest continuous magnet for neutron scattering experiments was in need for a mechanism to rotate samples during experiments. In other words: we need a sample rotator that operates in a 25T strong magnet field, at Ultra High Vacuum pressure, and 0.5 K absolute temperature and within a very confined envelope at the extremely compact center of the magnet.
Based on our own of-the-shelf actuators with proven ability to work under these conditions, and our long-term experience in developing scientific experimental instrumentation we were selected as a partner for this development.
Due to the confined envelope availble within the magnet structure, we proposed the option to design the sample rotator mechanism as an integral part of the magnet inner core structure. This urged for a very close cooperation with the customer for proper alignment of all details, but it enabled us to come up with a bespoke design for the mechanism that fullfilled every aspect of the requirements.
The sample rotator was designed and produced by JPE. The core of the mecahism was was tested at JPE facilities at 4K before transfer to the customer’s facility to ensure up-to-spec operation before installation. Thereafter, the rotator mechanism is integrated in the setup at the customer’s site. Here it will open up new possibilities for users of the High Magnetic Field Facility for Neutron Scattering and allow to do exciting new research.
Cryogenic Vibration Isolator for Einstein Telescope
The optical Cold Mirror in the ET Pathfinder needs to be supported completely quiet. Nevertheless cooling wires will be needed to make a thermal connection to the so called Cold Finger which is connected to a cryo plant providing cooling to 8K. Seismic vibrations from the floor and from the cooling plant will excite the Cold Finger and vibrations of the Cold Finger will be transferred to the Cold Mirror. In order to minimize this, stabilization of the Cold Finger is required.