HPR-20 R&D in Thailand


The Hiden HPR-20 R&D installed at the Department of Environmental Engineering, Faculty of Engineering, Chulalongkorn University, Bangkok is performing well.

The investigation is using a two-stage thermophilic anaerobic bioreactor (ThAn) for methane gas generation. The Hiden gas analysis mass spectrometer is quantitatively measuring the reactant and product gases during each experimental cycle.

Hiden MASsoft control and analysis software features a mass spectral peak identification and deconvolution module, which greatly assisted identifying the gas mixtures measured during the process.

Hiden HPR-20 R&D with two-stage thermophilic anaerobic bioreactor in background
Peak identification of gas mixture
Two-stage thermophilic anaerobic bioreactor with Hiden HPR-20 R&D in background
Peak identification of gas mixture


Hiden’s agent, Mercantile Hi-Tech (MHC) has been assisting the customer with the experiments

HPR-20 R&D

Peak identification of MASsoft

MHC page

New Article: Mass Spectrometry in Real Time

Mass spectrometry as a technique has grown significantly in recent decades, with many analytical requirements are addressed by mass spectrometry in some form or other.

The techniques of ionisation, mass separation and detection are varied, and the process is now used in analytical sectors ranging from relatively simple vacuum and vacuum process monitoring to the more complex life sciences and biomedical applications.

Peter Hatton and Dr David Lundie of Hiden Analytical have written an article “Mass Spectrometry in Real Time” recently published in the July edition of Labmate UK & Ireland. In this article they address the little known but powerful technique of real time mass spectrometry by quadrupole mass spectrometry applied to gas analysis and dissolved gas analysis in environmental studies, catalysis, electrochemistry and thermo-gravimetric mass spectrometry, TG-MS. The article describes how the technology works, and how it is applied to several key applications at near atmospheric pressure with both portable and laboratory devices.

hpr-20 tms

Read the complete article here (First published in Labmate UK & Ireland, Volume 45, Issue 5)

Surface Engineering & Thin Film Nanotechnology

Nanotechnology represents a new frontier in research and development (R&D) across a broad spectrum of human endeavours. Though concerned with the miniscule, the scope of nanotechnology is undeniably vast. However, most of the exciting nanoscience research being conducted is in a purely contemplative phase – or at least an extended period of prototypical development.

The Reality of Modern Nanotechnology

Consider graphene: A monomolecular allotrope of carbon that was first isolated from graphite via physical exfoliation over a decade ago. Though remarkable as the first atomically thick substance ever engineered, media hyperbole regarding next-generation applications of graphene have largely proven fruitless. That isn’t to say that graphene hasn’t been successfully functionalised, just that the realm of nanotechnology has a fair way to go before the likes of magnetic medicine and quantum computing become our new reality.

Exploring Spectrometers for Thin Film Applications

One of the few functional successes of nanoscience to date is the thin film. Though there is no singular definition of thickness that constitutes a thin film, they typically deal with coatings that are no thicker than a few micrometres (μm). Manufacturers are increasingly able to deposit precise thin coatings of just a few nanometres (nm) due to improvements in process sophistication and quality. This advanced method of surface engineering has proven essential to the ongoing ingenuity of manufacturers and researchers in a range of fields.

Cutting-Edge Surface Engineering

Select coating processes, such as atomic layer deposition (ALD), have pushed the boundaries of thin film nanotechnology by enabling the production of conformal films with tight control of both composition and thickness at the atomic range. By selectively and sequentially introducing precursor gases into an ALD vacuum chamber, complex substrates are exposed to individual gas phases in a series of alternating cycles. Gas molecules precipitate on the target surface in a self-limiting manner, which means reactions cease as soon as all reaction sites are occupied. Theoretically, this yields a precisely uniform, extremely thin coating of precipitate which acts as the new reaction surface for subsequent gas phase molecules.

ALD is envisaged as one of the greatest processes for electronic device miniaturization, next-level integrated circuit (IC) density, and novel energy storage systems. However, it is not a singular process and is instead used as an umbrella term to encompass a broad framework of systems that operate on these basic surface engineering principles.

Thin Films & Nanomaterials Today

Yet, even as mankind’s chemical surface engineering efforts continue to push towards the atomic scale, research at the nano-, micro- and even macroscales are continuing to pay dividends in terms of nanotechnological progress.

Vacuum-rated crystal growth furnaces are increasingly used to develop high-purity semiconducting alloys such as gallium arsenide or indium phosphide, both critical contenders for high bandgap multijunction photovoltaics – also known as tandem solar cells. These are generated epitaxially, much like conventional silicon, but offer dramatically improved quantum efficiency and performance.

We are also beginning to see the increased application of nanocrystals in the form of quantum dots (QDs); electro- and photoluminescent materials that are mainly used in display applications due to their outstanding spectral characteristics. Materials like QDs are expected to form part of the backbone of the display and lighting market in the coming years, even as scientists continue to explore novel uses of synthesised nanocrystals such as energy generation and nanomedicine.

Carefully engineered micro-electromechanical systems (MEMS) based on thin films on the order of micrometres are similarly pushing the technological letter in the field of telecommunications, as ultrafast 5G networks continue to rollout across the world.

Learn more about Surface Engineering of Thin Film Materials

At Hiden Analytical, we develop and deliver high-performance quadrupole mass spectrometry solutions for a broad range of application areas including, real time gas analysis, vacuum process monitoring, plasma ion and radical analysis and thin film surface analysis at the nanometre scale. Our mass spectrometry tools provide an understanding of the processes involved in nano-material science enabling the next generation of discovery. Our experience with nanoscience and technology is unprecedented, as we routinely offer systems for quality assurance and control (QA/QC), gas analysis, vacuum diagnostics, and much more. If you have any questions about our mass spectrometry systems for nanotechnology applications, simply contact a member of the team today.

New AMZ-QPS Brochure

Hiden Analytical introduce the new advanced multi zone quadrupole (AMZ-QPS) brochure.

The AMZ-QPS offers configurations that will maximise your performance  whatever your application. Hiden’s Advanced Multi Zone, High Power Quadrupole Power Supply complements the range of 9 and 20 mm (pole diameter) quadrupole mass filters.

Hiden instruments give the very best performance in terms of reliability, stability, mass range and resolving power and these attributes are a result of both the innovative design and the uncompromising quality of component selection used in the manufacture of the AMZ-QPS and the
Quadrupole Filter itself.

Download the brochure here.

Contact us for more information on this or any Hiden Analytical instrument.


Mr Sachin Raj Menon joins Hiden Analytical Europe

We are delighted to announce that we have expanded our Hiden Analytical Europe team in Düsseldorf with the recruitment of Mr  Sachin Raj Menon as Service und Anwendungsingenieur

Mr  Sachin Raj Menon  will provide service and application support for our customers in Germany and Austria.

Sachin joins our growing team at Hiden Analytical Europe headquartered  in Dusseldorf,  and he will work alongside  Senior Sales Manager Mr. Andre Kayser,  and Geschäftsführer Mr Wolfgang Kerschbaum who together as a team  provide sales, service and application support for Hiden customers in Germany and Austria.

Full contact details for our new service and applications support engineer:

M.Sc. Sachin Raj Menon

Service und Anwendungsingenieur

Hiden Analytical Europe GmbH

Kaiserswerther Strasse 215



T +49 211 54080 302

M +49 (0) 176 625 593 64

Download Press Release (English language version) | Click here

Download Press Release (German language version) | Click here


COVID-19 pandemic : Hiden Analytical

Update 12th June 2020

Hiden  Analytical is adapting to the rapidly changing global business environment brought on by the COVID-19 pandemic.  We are committed to maintaining our ongoing business operations and keep projects moving forward while providing our best possible service and support.  Currently, we have suspended employee travel and implemented working from home where possible.

Sales, application and service support will continue to be provided  by email from our office based staff working from home, and can be contacted using your usual contact email.

For suppliers, our purchasing department will continue working, from home, and can be contacted using your usual contact email.

We are constantly monitoring the situation regarding our employees’ health, supply chain, maintenance and production capabilities to ensure long term viability of the business.

Above all we hope that everyone remains safe and well.

Solar Cell Thin Film Analysers: The Basics

Global energy consumption is rapidly outstripping the available supply. When we factor in that over half of the world’s electricity is generated by non-renewables and that the global population growth remains incredibly high, concerns about the energy sector’s ability to provide for future generations seem well-founded. A gradual pivot towards renewables seems both inevitable and logical, but there are bottlenecks to such a transition.

Solar Cell Thin Film Analysers from Hiden Analytical

Solar cells, for instance, are among the front-running technologies in renewable energy, but current generation photovoltaics are simply incapable of providing the quantities of energy that we need to reduce our reliance on fossil fuels. This is primarily due to inefficiencies in quantum efficiency and high production costs. Thin-film solar cells could dramatically improve this dynamic, but – as the technology remains in the research and development (R&D) phase of its lifecycle – large-scale market penetration will rely on robust solar cell thin film analyzers.

What is a Solar Cell Thin Film Analyser?

A solar cell thin film analyzer technically refers to any analytical system used to investigate photovoltaic cells that are comprised of multiple layers of material with micro- and sub-micro scale (μm) thicknesses.

At Hiden Analytical, we have spent decades building a proprietary catalog of quadrupole mass spectrometers for an array of high-technology applications, building a reputation as the go-to provider of thin film analyzers irrespective of the underlying processing method. This has enabled us to support innovative research into novel photovoltaic structures with specialist solar cell thin film analyzers like the SIMS Workstation.

Secondary ion mass spectrometry (SIMS) is an extremely sensitive and versatile technique used for depth profiling of various substrate types. Using a cesium or oxygen ion gun to sputter surfaces and an integrated detector to obtain and profile secondary ions ejected from a sample’s uppermost surface levels, SIMS analysis enables researchers to characterize samples under test with a mass range of up to 5000 atomic mass units (AMU) at depths of 30μm down to a single atomic layer.

The SIMS method works so well for solar cell thin film analyzers due to this outstanding combination of sensitivity and depth resolution. Unlike conventional solar cells, which are composed of thick films of alternating p- and n-type crystalline silicon (c-Si), emerging photovoltaics based on thin films comprise several different semiconductors stacked on top of one another. This is what is known as a multi-junction, or tandem, photovoltaic cell.

The Importance of Tandem Solar Cells

Tandem solar panels do already exist, but thin film photovoltaic cells are still a relatively immature technology, with extensive R&D still ongoing into the best possible materials and structures. Solar cell thin film analyzers are an essential driving force behind this intensive research, spearheading greater quantum efficiencies in solar power. This could prove integral to providing clean energy to future generations.

If you would like to learn more about Hiden Analytical solar cell thin film analyzers, simply contact a member of the team today.

Mr André Kayser joins Hiden Analytical Europe

We are delighted to announce that we have expanded our Hiden Analytical Europe team in Düsseldorf with the recruitment of Mr André Kayser. Mr. Dipl.-Ing. André Kayser has over 30 years Sales experience in vacuum technology and has previously worked for well-known listed vacuum companies. Mr. Kayser will support you as Senior Sales Manager and will put together solution-oriented proposals.
His sales area is Germany (except Bavaria and Baden Württemberg). Mr Wolfgang Kerschbaum will continue to support customers in southern Germany and Austria.

The Working Principle of a Mass Spectrometer

Updated: Originally published 14/02/2018

The analytical technique of mass spectrometry has a broad range of uses including to identify unknown compounds within a material, measure the amount of a known material that is present in a sample, and to measure changes in sample composition in real time. Mass spectrometry is applied to solids , liquids, gases and vapour.

Read More: Real-Time Gas Analysis and Reaction Monitoring using Mass Spectrometry

The measurement of changes to gas and vapour composition in real time extends the application use of mass spectrometry to applications in fuel cells, catalysis, plasma, environment and electro-chemistry.


Mass Spectrometer Components

Every mass spectrometer consists of three basic components; the ion source, the analyzer, and the detector system.

The ion source is used to generate the gaseous ions from the sample, which are required to perform the measurement. The analyzer is used to separate the different types of ions according to their mass-to-charge ratio, and the detector reads these ions and records the amount in each group.

Mass Spectrometer Process

The first part of the process within a mass spectrometer is ionization, and this occurs when an atom within the sample gains a negative or positive charge. Most standard mass spectrometers work with positive ions.

Once the ions are generated, they are all accelerated to ensure they all have the same kinetic energy, and they are then deflected by a field according to their mass-to-charge ratio to filter the ions into a detector.

Mass Spectrometers from Hiden Analytical

Hiden Analytical has been designing, developing, and manufacturing mass spectrometers for the past 35 years. Our mass spectrometers are used for a range of different applications, including gas analysis, catalysis, thermal analysis, surface engineering, and surface analysis.

Our product range is vast and we manufacture mass spectrometers in different configurations and for mass ranges of 1-5000 AMU. Our versatile product offering enables the analysis of a variety of volatile organic, metal organic, and inorganic compounds.

If you would like to learn more about the basic operating principles of mass spectrometry, download our presentation on Quadrupole Mass Spectrometry Concepts

Or, if you would like any more information about our range of mass spectrometers, please send us a message.