Edinburgh Instruments

Multimodal Raman microscopy platforms offer researchers a powerful solution for tackling increasingly complex scientific questions. By combining Raman spectroscopy with complementary techniques on a single, upgradeable instrument, they help link molecular chemistry with dynamics, environment, and structure. These capabilities are especially valuable for labs seeking richer datasets and faster discoveries as their research priorities evolve. Download this Instrument Insights to learn more!

Efficient charge extraction is crucial for high-efficiency solar cells. Electron and hole extraction layers optimize cell performance. PL spectroscopy, proportional to carrier number, is ideal for comparing extraction layer efficiency.

The pharmaceutical industry relies on Raman microscopy for product analysis and quality control. This technique is crucial for investigating a vast range of products, from life-saving medicines to everyday over-the-counter treatments.

Olive oil, especially extra virgin, is prized for its quality and purity. However, fraud and adulteration are significant concerns. UV-Vis spectrophotometry is a reliable technique for assessing olive oil quality by quantifying key compounds. An Edinburgh Instruments DS5 Spectrophotometer is used to evaluate olive oil quality and detect adulteration.

Photon upconversion converts low-energy photons to higher-energy photons. UCNPs, composed of rare-earth elements, can convert near-infrared light to visible or UV light. They have potential applications in solar energy and biomedicine. Understanding their luminescence properties is crucial for optimization. FS5 Spectrofluorometer was used for comprehensive upconversion characterization.

Photosensitisers (PS) absorb light and reach a triplet excited state. This state interacts with a target species, transferring energy and inducing reactions. PS returns to its ground state and can participate in further photochemical activations.

GaN, a wide-bandgap semiconductor, surpasses silicon in high-voltage and high-temperature applications. It's crucial for energy-efficient LED lighting and laser technology, revolutionizing the industry.

Raman microscopy is a powerful technique for identifying the source of forensic samples, such as paint traces. As a non-destructive method of forensic analysis, evidence samples are not compromised during investigation. During forensic investigations, evidence samples are often compared to a database of known specimens for identification. In this Application Note, we show how the RM5 can be used to differentiate between different samples and how spectral library searching allows for the matching of paint samples within seconds.

Graphene has rapidly emerged as a highly desirable quantum material in various application areas. Discover how to reveal graphenes structural and electonic properties.

In this application note, we use the RMS1000 confocal Raman Microscope to characterize and spatially resolve the optoelectronic properties of a fabricated OLED.

This application note explores Identifying different types of plastic to ensure efficient waste management a tactic for reducing plastic pollution in our environment.

This application note shows the Imaging a tissue section of mouse intestines using 2PEF and SHG microscopy with a confocal Raman microscope.

Using excitation emission matrix spectroscopy, a photoluminescence spectrometer with InGaAs NIR camera, is used to identify the chiral indexes present in a SWCNT sample.

This application note details the quantitative use of Raman spectroscopy to determine ethanol content in samples of whisky.

In this application note, we study a nicotine patch to reveal the active pharmaceutical ingredient (API) as well as the polymer layers encapsulating it via confocal Raman microscopy.

The spectral and time-resolved X-ray-excited luminescence of a liquid scintillator is studied using an Edinburgh photoluminescence spectrometer and X-ray sample chamber.

Application note describing how an Edinburgh Instruments FLS1000 Photoluminescence Spectrometer can be used to characterize solid sensors in a relevant environment of interest.

In this technical note, the concept of dead time in TCSPC fluorescence lifetime measurements is introduced, and how it can be avoided using Reverse Mode is explained.

In this application note, we investigate the phase transitions occurring in polyethylene and nylon-6 using the Edinburgh Instruments RMS1000 Raman Microscope and a temperature stage.

In this application Edinburgh Instruments RMS1000 Raman Microscope, with a heated stage, is used to observe phase transitions in 2 polymers - polyethylene and nylon-6.

In this application note, Edinburgh Instruments highlights how Raman spectroscopy, in combination with chemometrics, can be used to identify cooking oil adulteration.

In this application note the optimization of gold nanoparticles is investigated using Edinburgh Instruments Raman microscope for the development of a SERS glucose sensor.

This technical note introduces the theory of polarized Raman spectroscopy and highlights the type of sample information that can be obtained using this technique.

The effect of annealing time on the charge carrier lifetime of three MAPI perovskite films is investigated using time-resolved photoluminescence spectroscopy.

Application note showing how a photoluminescence spectrometer was used to examine the photoluminescence spectroscopy of carbon dots.

Application note showing how Transient Absorption Spectroscopy was used for the study of Kinetics of Photocatalysis

The emission wavelength of graphene oxide is tuned through photothermal reduction and the spectral shift monitored using photoluminescence spectroscopy to achieve the desired emission.