Luminescence, UV & Image Analysis New Range of Versatile Image Analysis Systems Launched
Syngene have announced the introduction of the new PXi Touch range of high resolution, multi-application image analysis systems. These easy-to-use systems are ideal for scientists wanting a rapid touch screen driven method of accurately imaging chemiluminescent and fluorescent blots, as well as 1-D and 2-D gels stained with any type of visible or fluorescent dye.
The PXi Touch comes as a compact, ready to use unit with a built in touch screen and processor. Each PXi Touch features a camera with a large fixed aperture lens, which enables scientists to quickly capture images of even the faintest bands or spots, without having to spend time and effort learning how to adjust the camera’s settings.
The PXi Touch is available in three versions with a high resolution 4, 6 or 8 million pixel camera for chemiluminescence and 1D and 2D gel applications. To enable researchers to choose the best and safest lighting for their fluorescent gel and blot applications, the PXi Touch has been cleverly designed for quick fit of a number of lighting and filter options to make the system versatile enough to use with Syngene’s UV and blue light transilluminators, as well as white, IR, red, blue or green epi lighting.
The PXi Touch system’s touch screen is controlled by the intuitive GeneSys image acquisition and capture software, which means the PXi Touch can be rapidly set up to automatically select the best imaging conditions. With just one click scientists can generate perfect images of chemiluminescent blots, as well as 1-D and 2-D gels stained with any fluorescence, visible and IR commercial dyes.
GeneTools, Syngene’s acclaimed image analysis software, also comes with the PXi Touch range and saves valuable time by automatically producing results in seconds, of applications including 1-D lane analysis, molecular weight and quantity calculations.
Laura Sullivan, Syngene’s Divisional Manager stated: “Today’s scientists are familiar with touch screen icons in their everyday lives and would like to use these in the lab. Building on our successful PXi system we have responded to this need by adding a touch screen, and to make a complete, out of the box plug and play affordable system we have also integrated a powerful processor so that scientists do not need an external computer to control the PXi Touch.”
MORE INFO. 144 Measure Particle Shape and Size with Dynamic Image Analysis
The new Fritsch ANALYSETTE 28 does not only measure the particle size but also supplies reliable statements about the particle shape, via Dynamic Image Analysis. This is ensured by the integrated high-performance camera with 5 megapixels, telecentric lenses as well as the provided comprehensive library with numerous shape parameters. The ANALYSETTE 28 ImageSizer is suitable for fast analysis of particle shape and size of powders and bulk solids in an extra-wide measuring range 20µm – 20mm. For equipping your ANALYSETTE 28 ImageSizer, choose between four different, easy interchangeable telecentric lenses. The measuring range can be optimally adapted to the measuring task by selecting the suitable lens. The instrument recognises the selected lens and confirms the selected measuring range.
The feed rate of the sample on the conveyance channel is according to the material automatically adjusted by AutoCheck, and saved in the SOP. The ANALYSETTE 28 ImageTec is best for fast analysis of particle shape and size in suspensions and emulsions in the measuring rage of 1µm – 2mm. The lens revolver of the ANALYSETTE 28 ImageTec is equipped with 5 telecentric high-performance lenses which adjust automatically. The optimal lens required for the desired measuring range is simply selected using the input mask and can be saved in the SOP.
For dispersion, the sample material or the emulsion to be analysed is pumped through the measuring cell in a closed liquid circulation system. The illuminated ultrasonic bath with freely adjustable ultrasonic-intensity ensures optimal dispersion - and the powerful centrifugal pump with individually variable speed ensures optimal transport of the sample through the measuring circuit. The analysis results image shows all the particles in the form of a cloud. Regardless of whether you would like to display the oversized grains – with an extremely low detection limit or the single image analysis for direct measurement of each particle from each individual image or you would like to display agglomerates, which are recognised and can be specifically separated during evaluation.
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Microscope Features Expanded Capabilities for Macro to Micro Fluorescence In Vivo Imaging The iBox®
ExplorerTM 2 Imaging Microscope now features expanded capabilities for detection of fluorescent markers in small animals. With magnification from whole mouse to individual cells, the iBox
Explorer2 provides breakthrough advances for cancer research studies. Researchers can now visualise tumour margins, micro metastasis and more with the wide range of magnifications from 0.17x to 16.5x. The upright optics provide an ultra-long working distance and high numerical aperture (NA) for detailed, exacting in vivo imaging research.
"Integrating the new optics further expands the instrument's current capabilities. Designed to transition from the macroscopic to the microscopic scale, the iBox Explorer2 permits deeper interrogation of a fluorescent signal in real time which otherwise would have necessitated cross-sectional studies," stated Antonio Sanchez, MD, UVP Life Scientist. "Scientists imaging whole animals for tumour tracking or biodistribution will be able to 'dive deeper' into the animal in order to investigate biological phenomena at the cellular level."
The iBox Explorer2 produces detailed images of tissues and cells with the leading-edge cooled scientific grade CCD camera. VisionWorks®LS software automates research with total system control and allows easy creation of templates for reproducible and consistent results.
The iBox Explorer2 utilises the BioLite™ Xe light source which provides bright illumination for multispectral fluorescent, visible and NIR excitation. The BioLite Xe houses a 150-watt xenon lamp that supplies brilliant excitation of fluorescent probes for a variety of applications. The BioLite Xe includes an eight-position emission filter wheel and convenient switching between experiments and multiplexing applications.
The iBox Explorer2 is the ideal system for in vivo imaging applications including: tumour shedding and angiogenesis; micro/macro metastases; tumour/host margins and interactions; tumour micro environment; primary tumour growth; hematogenous and intralymphatic trafficking; extravasation; biodistrubtion.
The iBox Explorer2 Imaging Microscope takes in vivo imaging to a new level with macro to micro subcutaneous to internal fluorescent imaging with one instrument.
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Mini Viewing Cabinet Produces Big Results The compact, lightweight CM-10MP mini viewing cabinet from Spectroline®
is perfect for any type of life science application requiring high-contrast fluorescence analysis. It is also excellent for viewing TLC plates and for quality control inspection of PC boards.
Weighing only 4 lbs. (1.8 kg), it can be conveniently carried from place to place. With its compact dimensions of 8.75W x 10L x 4.5”H (22.2W x 25.4L x 11.4 cm H), this space-saving unit can fit easily in cramped areas. The CM-10MP is made of moulded, high-impact plastic for rugged durability. It features a contoured eyepiece with a built-in UV-absorbing window for safe viewing.
Openings on top of the cabinet accommodate one or two MiniMAX™ Series UV lamps. Simply place the cabinet over the lab samples being examined, turn on the UV lamps and observe the bright fluorescent response. MiniMAX™ lamps are available in three models - UV-5A for long-wave UV (365nm), UV-5F for short-wave UV (254nm) and UV-5NF for a combination of both long- and short-wave UV emissions.
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