Founded in 1971 by Professor S. D. Smith OBE FRS, FRSE, FinstP, Edinburgh Instruments Ltd has become one of the world’s largest manufacturers of leading edge spectroscopic instrumentation and gas detection solutions.
We were formed as the first spin-out from Heriot-Watt University and were the first private company on Britain’s first University “Research Park”.
Edinburgh Instruments (EI) is now located across three buildings totalling nearly 30,000 sq. ft. of manufacturing and office space just outside Edinburgh, where it employs over 75 people. The company is involved in the development, manufacture and sale of a wide range of high technology products for the scientific research and industrial markets. Product ranges include lasers and analytical spectrometers supplied by the Photonics Division and gas detection and monitoring products supplied by the Sensors Division.
Following rapid expansion, by the 1980s a full range of infrared and far infrared gas lasers (CW and pulsed CO2 and CO lasers and optically pumped TeraHertz lasers) were made available to the market.
As pioneers of Time-Correlated Single Photon Counting (TCSPC), in 1978 the company developed a Fluorescence Lifetime Spectrometer system based around the successful nanosecond flashlamp. This product range has culminated in the development of the FLS980, the latest computer controlled, combined Steady State and Fluorescence Lifetime Spectrometers on the market and the FS5 one of the world’s most sensitive benchtop spectrofluorometers.
Product diversification continued with the development of CO, CO2 and CH4 gas sensors. Based on interference filter based non-dispersive infrared technology these devices are available as OEM cards or complete monitoring and detection packages, supplied through the Sensors Division.
EI products are used in an extensive range of markets and applications, including: photo-chemistry, physics, protein studies, biochemistry, biophysics, molecular spectroscopy, optical pumping, interferometry, plasma diagnostics, atmospheric studies, materials processing, solid state physics and material science, renewable energy, climate control environments, process control and much, much more.
Over the years EI has continually diversified and developed new and innovative products, winning many international designs, technology and export achievement awards. We excel in providing one-to-one comprehensive customer service and continue to meet the needs of our customers worldwide.
In 2013, EI was acquired by Techcomp Europe Ltd, a group of European companies involved in the manufacture and distribution of analytical systems, life science equipment and laboratory instruments with operations dating back to 1920.
As well as Edinburgh Instruments, the Group comprises; Scion Instruments – (with operations in The Netherlands, California and Shanghai) experts in Gas Chromatography, Analysers and Single Quadrupole Mass Spectrometry, Froilabo – (with factories in France and Romania) specialising in Ultra Low Temperature technologies, Precisa – (manufacturing in Switzerland) offering a complete range of high precision metrology and weighing solutions and Dynamica – (based in the UK) that supplies a wide range of analytical and laboratory instruments. Techcomp Europe is owned by Techcomp (Holdings) Ltd whose ordinary shares are traded on the Stock Exchange of Hong Kong Limited (SEHK) as stock code 1298.
Designed to meet the ever-increasing demand for fast, accurate, and reliable measurements, the modular and straightforward architecture of our instruments gives you the choice and flexibility to build a system to suit your current, and future applications with utmost precision. The superior quality and design of our products guarantees you receive the highest performance and specifications to advance your research to the fullest. Download our molecular spectroscopy overview or contact one of sales team who will be happy to discuss your requirements.
Our experience and expertise in instrumentation for fluorescence spectroscopy and laser flash photolysis spectroscopy is second to none, spanning decades with over 1000 systems installed in universities and leading research laboratories worldwide. Our sales team would be delighted to assist you with your fluorescence spectroscopy enquiries, simply drop them a quick email at: firstname.lastname@example.org. Download our fluorescence spectroscopy overview (pdf).
Our Precision Raman continues our commitment to offering the highest quality and sensitivity instruments. The RM5 Microscope is a compact and fully automated Raman microscope for analytical and research purposes. The truly confocal design of the RM5 is unique to the market and offers uncompromised spectral resolution, spatial resolution and sensitivity.
Our Sales team would be delighted to assist with any enquiries you may have regarding our precision raman microscopes: email@example.com
Our Transient absorption spectrometers use a powerful set of techniques used to identify electronic and structural characteristics of short-lived excited states (transient states) of photochemically/photo physically relevant molecules. Our sales team will be delighted to assist you with your enquiries. Please contact them on firstname.lastname@example.org or download our fluorescence spectroscopy overview.
Edinburgh Instruments DS5 Dual Beam UV-Vis Spectrophotometer measures absorption and transmission as a function of wavelength. It is suitable for many analytical applications where accuracy and precision measurements are key to your results. For further information, please contact our sales team: email@example.com.
Providing state‐of‐the‐art steady state and time‐resolved luminescence measurements to the global research and analytical markets, Edinburgh Instruments has a solution for almost every spectroscopic need using a variety of techniques.
Time-Resolved Fluorescence (or Fluorescence Lifetime) Spectroscopy is an extension of Steady State Fluorescence. Fluorescence lifetimes, occurring as emissive decays from the singlet-state, can also be approximated as those decays occurring in the time region from picoseconds to nanoseconds.
When we discuss time-resolved fluorescence or fluorescence lifetimes, what we are studying is the fluorescence of a sample monitored as a function of time after excitation by a pulse of light.
Steady State Fluorescence
Steady-State Fluorescence Spectroscopy investigates the long-term average fluorescence of a sample when irradiated with UV, Visible or near-IR Light.
Edinburgh Instruments offers a range of research-grade and analytical Steady State Spectrofluorometers. These vary in a number of ways but can be compact, benchtop or modular, and fully customisable for any type of fluorescence measurements that will meet the most demanding research requirements.
Phosphorescence lifetimes, occurring as emissive decays from the triplet-state, can also be approximated as those decays occurring in the time region from tens of nanoseconds to seconds.
Phosphorescence lifetime measurements are carried out using a technique called Multi-Channel Scaling (MCS) and this is used for the acquisition of sample decays.
Transient Absorption / Laser Flash Photolysis is a technique for studying transient absorption of chemical and biological species generated by a short intense light pulse from a pulsed laser source (‘pump source’).
This intense light pulse creates short lived photo-excited intermediates such as excited states, radicals and ions. All these intermediates are generated in concentrations large enough for chemical and physical interaction to occur and for direct observation of the associated temporally changing absorption characteristics. These absorption changes are recorded using a spectrally continuous Xenon lamp (‘probe source’) forming the background in a single beam absorption spectrometer. The probe source is operated in a pulsed mode to enhance the photon flux for measurements in short time ranges.
Raman Spectroscopy is a non-destructive technique that is used for the identification and quantification of chemical composition. When combined with an optical microscope, Raman spectroscopy is more sensitive, less affected by unwanted background interactions, and offers the spatial resolution required for chemical mapping.
UV-Vis Spectroscopy is a quantitative technique used to measure how much a chemical substance absorbs light. This is done by measuring the intensity of light that passes through a sample with respect to the intensity of light through a reference sample or blank. This technique can be used for multiple sample types including liquids, solids, thin-films and glass.
Edinburgh Instruments manufacture precision instrumentation that can carry out a variety of different types of fluorescence and measurement techniques.
Please refer to the matrix below to determine what measurement technique is acheivable with each instrument.
If you any questions or require assistance please contact us.
At Edinburgh Instruments we are constantly trying to push the boundaries of fluorescence spectroscopy.
We have an in-house, dedicated applications laboratory at our headquarters in Scotland and numerous PhD educated, application specialists available to help with your application and/or instrumentation setup.
Review our latest application notes here.
Fluorescence, Delayed Fluorescence and Phosphorescence Spectra of a TADF Emitter Measured using the FLS1000 with a VPL laser and Gated PMT Detector: https://www.edinst.com/delayed-fluorescence-phosphorescence-spectra-tadf-emitter/
Dye-Sensitised Solar Cells (DSSCs): Understanding and Optimising Energy and Electron Transfers Through Transient Absorption Data: https://www.edinst.com/dye-sensitized-solar-cells-dsscs/
Electroluminescence and Photoluminescence Spectroscopy of a Phosphorescent Organic Light Emitting Diode (PhOLED): https://www.edinst.com/organic-light-emitting-diode/
Photophysical Characterisation of Perovskite Quantum Dots: https://www.edinst.com/perovskite-quantum-dots/
Luminescence Thermometry with Upconversion Materials: https://www.edinst.com/us/upconversion-luminescence-thermometry/
Proton-Coupled Electron Transfer (PCET); Spectral and Kinetic Transient Absorption Analysis of Acridine Orange with Tri-Tert-Butylphenol: https://www.edinst.com/pcet-highlight/
Tuning the Photoluminescence of Graphene Oxide: https://www.edinst.com/graphene-oxide-photoluminescence/