This LaVision High-Speed 2D PIV System is employed to acquire comprehensive insights into the swash flows generated by a train of solitary waves and the concurrent turbulence structure. This system conducts two-dimensional velocity measurements utilising a 100-Hz high-speed particle image velocimetry (HSPIV) technique.

LaVision's flow field imaging laser systems, known as FlowMaster, leverage cutting-edge Particle Image Velocimetry (PIV) techniques.

The study of turbulent combustion greatly hinges on flow-chemistry interactions. Our high-speed laser imaging technology, which incorporates both PIV and OH-PLIF simultaneously within the same light sheet plane, enables the exploration of these intricate flow-flame interactions inherent in phenomena like ignition and flame extinction processes. LaVision's laser imaging framework uniquely facilitates such concurrent PIV and PLIF measurements, supported by our established FlowMaster and FlameMaster systems, both utilising the DaVis platform for synchronised image capture and data processing.

LaVision creates personalised solutions using the different techniques such as Particle Imagine Velocity PIV - based on your experiments & projects. Read more about the different techniques available; alternatively you may contact us for more information. 

Our engineering team has assisted aixacct in the technical support in the aixDBLI system. 

The Industrial Line DBLI systems offers manufacturers of piezoelectric MEMS products the ability to monitor quality in the production process for the first time.

​With a DBLI system from our Industrial Line, you can test whether the piezoelectric behaviour of your thin films meets your requirements and ensure consistent performance across the wafer. All this early on in the production process before the films are processed further to form the finished component. Fully or semi-automated quality control lets you achieve outstanding reliability and reproducibility in your production. You can benefit from excellent production efficiency and maximum output, with flawless components.

​The systems in our aixDBLI Industrial Line are fitted with an industrial probe from Formfactor (formally Süss Microtech). A wafer handler can also be fitted as an optional extra, enabling you to measure wafers fully automatically. Our DBLI Commander control software means the measurement system could not be easier to use. On top of this, handling with automatic alignment and pattern recognition ensures reliable measurement data across users. Different operator levels give you access to all parameters. Alongside a wafer map editor and recipe editor, you can also choose from a range of measurement modes. A SecsGEM interface allows the system to communicate with higher-level production management software.

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We are pleased to announce that Kessil products are now part of the offerings in Analytical Technologies. Kessil specializes in providing UVA LED solutions meticulously optimized for diverse applications, including photochemistry, biomedicine, material science, and UV curing.

Distinguished by its remarkable attributes, the Kessil UVA LED stands out with an impressive threefold increase in power compared to its competitors. This heightened irradiance capability translates to enhanced photoreactivity, while simultaneously ensuring a safer operational environment, extended operational lifespan, reduced heat emissions, and heightened environmental sustainability.

Moreover, Kessil presents comprehensive holistic systems that are purposefully engineered for seamless integration. These systems serve to transform conventional setups into efficient photoreactors tailored for a spectrum of laboratory photocatalytic reactions. This versatility opens doors to applications ranging from direct photoexcitation to the activation of alkyl and aryl halides, while also encompassing photoreactor design aspects. The incorporation of Kessil products within these systems underscores their commitment to advancing innovation across multiple domains. 

Looking for a controlled environment within an open lab for your experiments?

​Our team of engineers specialises in crafting customised dark enclosures tailored to seamlessly fit your workspace. These enclosures not only provide the necessary controlled conditions but also come equipped with safety switches, ensuring a secure and optimised environment for your experiments.

Click the link here to view a different enclosure with HEPA filter.

This was a customised solutions that Analytical Technologies has worked with EVERBEING for probing onto your PCB boards, accommodating a range of sizes according to your specifications. Our stations seamlessly integrate with various applications, including DC, RF, mmW, and High Temperature capabilities. Certain models also support double-sided probing (top and bottom) for enhanced versatility.

Please find the link below to access the complete inventory of available probe stations, which includes detailed information about the Large Area PCB Probe Station.

Alternatively, feel free to reach out to us directly to discuss customizing a probe station tailored to your project requirements.

HORIBA Scientific, a global frontrunner in the realm of Raman microscopy, is pleased to unveil its latest innovation, the LabRAM Odyssey. This cutting-edge system represents a fully automated and remotely manageable solution.

The LabRAM Odyssey replaces the best seller LabRAM HR Evolution. Developed on the same platform, the LabRAM Odyssey is now more user friendly and offers new functionalities, advanced confocal imaging capabilities in 2D and 3D, and is fully compliant with all market requirements. 

The LabRAM Odyssey can also be configured to enable semiconductor process engineers to qualify the different steps in a timely manner, with a high level of confidence. The LabRAM Odyssey Semiconductor is the ideal tool for photoluminescence and Raman imaging on wafers up to 300 mm diameter with its 300 mm × 300 mm automated sample stage and its automated objective turret. It offers a high spatial resolution mode to detect and identify defects and submicron inhomogeneities to understand and give insight about their origin. 

The LabRAM Odyssey Raman microscopes are ideally suited for both micro and macro measurements, and offer advanced confocal imaging capabilities in 2D and 3D. The true confocal Raman microscope enables the most detailed images and analyses to be obtained with speed and confidence.

The large dedicated application range in the LabSpec 6 software suite makes it possible to configure the software to suit and evolve for specific needs. Along with the unique SWIFT™ and DuoScan™ fast Raman imaging technologies, the LabRAM Odyssey also integrates two new calibration tools: VRM and Objective Adjustment.

• VRM (Video-Raman Matching) ensures a perfect match between the video image and the Raman map locations. Such calibration is essential for correlating optical images with the chemical images obtained by Raman microscopy.
  
• Objective Adjustment allows you to keep your region of interest in the field of view with whichever objective you use, simply by adjusting the sample position in XYZ directions.

​The LabRAM Odyssey Semiconductor includes the DuoScan imaging function to permit both variable size laser macrospots for full wafer maps and high spatial submicron step scanning for small area maps. The range of available excitation lasers, combined with a wide range of spectral detection, from deep UV to near IR, makes the LabRAM Odyssey Semiconductor system a two-in-one Raman and Photoluminescence spectroscopy tool. The “Tilt at midway” autofocus function overcomes possible sample/holder tilt and ensures reliability in uniformity response.

Read the full article here. 

​HORIBA is pleased to introduce the latest addition to its repertoire, the LabRAM Odyssey Semiconductor system. This pioneering Raman/Photoluminescence microscope derives its foundation from the widely acclaimed LabRAM HR Evolution Confocal Raman Microscope, renowned for its exceptional high resolution capabilities. Noteworthy enhancements include the integration of a sample mounting stage adept at accommodating the prevalent 300 mm wafer size, catering directly to the semiconductor industry's standard requirements.

As compound semiconductors are becoming more complex with a higher number of elements, uniformity assessment on blanket wafers is essential for high quality devices and high yield. The LabRAM Odyssey Semiconductor system will help process engineers qualify the different process steps in a timely manner and with a high level of confidence. With a high spatial resolution mode, the LabRAM Odyssey Semiconductor offers the capability to detect and identify defects and submicron inhomogeneities to understand and give insights about their origin.

The LabRAM Odyssey Semiconductor system includes a 300 mm × 300 mm automated sample stage and an automated objective turret, enabling the acquisition of maps of full wafers of diameter up of 300 mm.  In addition, the DuoScan imaging function permits both variable size laser macrospot for full wafer maps and high spatial submicron step scanning for small area maps.  The range of available excitation lasers, combined with a wide range of spectral detection, from deep UV to near IR, makes the LabRAM Odyssey Semiconductor system a two-in-one Raman and Photoluminescence spectroscopy tool. The “Tilt at midway” autofocus function overcomes possible sample/holder tilt and ensures reliability in uniformity response.

As Raman and Photoluminescence characterization is moving from the lab to the fab for the emerging 2D materials-based devices, the LabRAM Odyssey Semiconductor system is the perfect tool for metrology technical managers.

Our local technical support team has successfully commissioned a semiconductor variant of the world renowned LabRAM Evolution Confocal MicroRaman System.  Fully equipped with multiple lasers from UV to NIR and  unique upgrades, the system is able to handle Raman as well as Photoluminescence measurements.

The LabRAM Confocal MicroRaman system microscopes are ideally suited for both micro and macro measurements, and offer advanced confocal imaging capabilities in 2D and 3D. The true confocal Raman microscope enables the most detailed images and analyses to be obtained with speed and confidence.  It is widely used for standard Raman analysis such as PhotoLuminescence (PL), it can also be further integrated for other hybrid analysis.

The system was enclosed using a customised laser safety curtain that was customised & designed by our engineers. The implementation of a custom laser safety curtain around the system is a critical safety measure that protects the well-being of lab personnel. 

The NanoRaman system equipped with LabRAM Evolution being installed locally by Analytical Technologies' in-house team.

LabRAM Evolution, the world renowned Raman solution for research and analysis. The integral flexibility of the LabRAM HR Evolution makes it the ideal platform for combined with the fully integral nano-Raman for research to TERS (tip enhanced Raman scattering).  

A close up of the integration of a customised environmental chamber and electrochemical cell within a NanoRaman (as shown above) setup designed a sophisticated and versatile experimental configuration to enhance the capabilities of this analytical instrument.

This integrated system is further augmented by the inclusion of a bipotentiostat, a critical component for conducting Tip Enhanced Raman Spectroscopy (TERS) experiments.  
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Personalised hands-on guidance and training provided by a HORIBA's application scientist represents a valuable and tailored educational experience designed to empower researchers, technicians, and users with the skills and knowledge required to make the most effective use of HORIBA's instruments. 

Another angle of the HORIBA's LabRAM HR Evolution Setup before the integration of NanoRaman, with HORIBA's in-house software installed in the computer (right).