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Analysis Routine
Analysis Routine (updated monthly) features the latest application videos, recommended/trending applications, and content that can help lab managers boost productivity. Make routine work more efficient by keeping up with the latest analytical solutions with Analysis Routine.
Hot Applications
User Benefits:
・Enables analysis of 40 PFAS components within 20 minutes and simultaneous analysis of multiple components without sensitivity loss.
・Enables quantitative analysis of concentrations as low as 0.2 ng/L (in water samples) for PFOA, PFOS, PFHxS, and others.
・Consistent and accurate results can be obtained with good recovery rates and reproducibility data for recovery tests.
Hot Applications
Application Videos
Boost Productivity
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Analytical Solutions for Artificial Photosynthesis －Photocatalyst Characterization and Product Quantification-
Artificial photosynthesis is a technology that artificially performs photosynthesis using photocatalysts and sunlight. Research is being conducted using artificial photosynthesis to produce “green hydrogen,” which is hydrogen that does not emit carbon dioxide during production. However, there are significant challenges in terms of cost and efficiency compared to conventional manufacturing processes when it comes to implementing it into society. To achieve the benchmark energy conversion efficiency of 10% for practical implementation of artificial photosynthesis, it is essential to develop photocatalysts that can effectively utilize sunlight with a wide range of wavelength distributions and construct reaction systems with higher efficiency. Here, we present a range of analytical techniques that are designed for the evaluation of artificial photosynthesis.
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Oxygen heterocyclic compounds profile evaluation in cold-pressed Citrus essential oils using supercritical fluid chromatography coupled to photodiode array detector
A large number of analytical techniques to characterize the non-volatile composition of Citrus essential oils (EOs) were introduced in the literature. However, the reports of Citrus EOs analysis by supercritical fluid chromatography (SFC) with UV or mass spectrometry detectors for the analysis of non-volatile polar compounds are still few. The aim of the present scientific research is to describe a new analytical approach using SFC with a green mobile phase for the analysis of such compounds in cold-pressed Citrus EOs, to confirm the potential use of SFC-UV for oil classification in the context of quality control of raw materials in cosmetics. Gradient conditions are determined to achieve a satisfactory separation in 10 minutes.
