A-TEEM 案例研究和出版物

我們的 A-TEEM 案例研究和出版物記錄了實際應用和使用 A-TEEM technology. 每一項都示範如何使用 A-TEEM 來完成研究和 QA/QC 目標。它還顯示了 A-TEEM 用途的多樣性，它已成功應用於從測量水處理廠的溶解有機物到檢測釀酒廠穀物中的黴菌和釀酒廠的葡萄酒分類等各個領域。

A-TEEM 葡萄酒相關出版物

A-TEEM is a rapid spectroscopic approach for characterization of poly-phenolic content in red wines and can be used for wine-fingerprinting.
Multivariate spectroscopy for targeting phenolic choreography in wine with A-TEEM™ and NMR crosscheck non-targeted metabolomics

A-TEEM can evaluate of >40 key wine quality control parameters including low-molecular weight phenolics, anthocyanins, basic chemistry parameters and tannins:
"Determination of Cabernet Sauvignon wine quality parameters in Chile by Absorbance-Transmission and fluorescence Excitation Emission Matrix (A-TEEM) spectroscopy"

A-TEEM has been used for geographical authentication for wines
"Authentication of the geographical origin of Australian Cabernet Sauvignon wines using spectrofluorometric and multi-element analyses with multivariate statistical modelling"

The Aqualog and A-TEEM spectroscopy can provide information on wine varieties and oxidation characteristics of key phenolic and anthocyanin compounds:
"Spectroscopic analysis of red wines with A-TEEM molecular fingerprinting"

The A-TEEM technique can be used for effective classification of wine-storage conditions to differentiate different American and French oak barrels from each other and stainless steel containers:
"Multivariate spectroscopy for targeting phenolic choreography in wine with A-TEEM and NMR crosscheck non-targeted metabolomics"

A-TEEM coupled with machine learning can be used for highly accurate classification of wines by both region and variety:
"Spectrofluorometric analysis combined with machine learning for geographical and varietal authentication, and prediction of phenolic compound concentrations in red wine"

This study documents the ability of the A-TEEM coupled with machine-learning methods to confirm the terroir of Shiraz wines:
"Application of fluorescence spectroscopy with multivariate analysis for authentication of Shiraz wines from different regions"

This is an important study documenting the ability of the A-TEEM to authenticate and quantify mixtures of different wine varieties:
"Spectrofluorometric analysis to trace the molecular fingerprint of wine during the winemaking process and recognise the blending percentage of different varietal wines"

This study shows the benefits of asymmetrical flow field-flow fractionation for non-invasiveness and reliability when characterizing the chromophoric colloidal matter in Burgundy wines:
"Asymmetrical flow field-flow fractionation of white wine chromophoric colloidal matter"

A unique study documenting how combined multivariate analysis of A-TEEM and time-resolved fluorescence spectroscopy can be a useful tool for monitoring wine fermentation:
"Multispectral fluorescence sensitivity to acidic and polyphenolic changes in Chardonnay wines – The case study of malolactic fermentation"

This study documents how the Aqualog and A-TEEM can provide exquisite correlations with sensory perception characteristics important for wine quality evaluation:
"Modelling Cabernet-Sauvignon wine sensory traits from spectrofluorometric data"

This study combines and correlates ultrahigh resolution MS and A-TEEM spectroscopies to understand how sulfites and stoppers influence the fingerprint characteristics of wine:
"Sulfites and the wine metabolome"

This novel study revealed that SO2 – and vintage-dependent signatures, showed the extent of their effects on key fluorescence EEM components, even after several years of bottle aging:
"Fluorescence fingerprinting of bottled white wines can reveal memories related to sulfur dioxide treatments of the must"

This important study shows how MS and A-TEEM fingerprints reveal the effects of Grapevine Trunk Diseases on the leaf metabolome:
"Clone-Dependent Expression of Esca Disease Revealed by Leaf Metabolite Analysis"

This paper shows how untargeted A-TEEM analysis can be used to evaluate the influence of the Oenococcus oeni lifestyle (planktonic vs. biofilm) on malolactic acid fermentation:
"Chemical Transfers Occurring Through Oenococcus oeni Biofilm in Different Enological Conditions"

A-TEEM Publications on Spirits and Beer

This study shows that the A-TEEM can differentiate whisky as a function of oak maturation time:
"Influence of regionality and maturation time on the chemical fingerprint of whisky."

A unique study comparing the type of distillation (Coffey vs. Pot still) and yeast lees aging of the molasses to show how A-TEEM spectroscopy can be used for effective classification:
"Effect of ageing on lees and distillation process on fermented sugarcane molasses for the production of rum."

Read about how A-TEEM spectroscopy and multivariate analysis can identify major components of beer and how these methods may serve as real-time monitors for key components including amino acids, phenolic compounds, iso-a-acid and vitamin B among others:
"Substances in beer that cause fluorescence: evaluating the qualitative and quantitative determination of these ingredients."

A-TEEM 與茶葉分析

Read about how the A-TEEM can accurately discriminate and authenticate teas by brick-type and brand:
"Excitation-emission matrix fluorescence spectroscopy coupled with chemometric methods for characterization and authentication of Anhua brick tea"

The Kamienczyk waterfall in the Karkonosze National Park in Poland

Increasing atmospheric CO2 is causing significant warming of the Earth by changing the heat and water balances between the surface and atmosphere.

Humic materials are part of a class of compounds called biostimulants that, when applied to plants or agricultural soils, stimulate plant growth and productivity. A-TEEM fluorescence spectroscopy and can quantify the concentration of fulvic acids more efficiently.

From left to right: Jorge Zincker, Doreen Schober, and Mónica Rodríguez

See how scientists at Chile’s largest wine maker are using HORIBA’s Aqualog with A-TEEM technology to classify grapes and wines for quality and chemical composition.

Miller focused his research on drinking water quality monitoring and management, along with treatment optimization.

Dave Brogle of the Middlesex Water Company

Dave faced challenges managing the amount of dissolved organic material from its water source. Its main supply of raw water is the Delaware Raritan Canal. Rain events cause runoff, compounding the problem.

Wildfire frequency and duration have increased in recent years

Increasingly frequent wildfires and bushfires threaten grape and wine output. Read how fluorescence spectroscopy and A-TEEM technology can quantify smoke taint and yield cost and quality benefits.

This winter, John Priscu plans to drill thousands of feet below the frozen ice of Antarctica and expects to find living creatures. If he’s successful, it could help change the way we see our planet.

Now, HORIBA Scientific has developed the perfect supplement for these highly capable research spectrofluorometers.

Figure 2. CTD-Rosette sampler being deployed in the ultra blue waters of the South Pacific Gyre in Dec 2015

Dive into Professor Peter Croot's research on biogeochemical cycles, carbon cycling, and primary productivity in the ocean, using cutting-edge fluorescence spectroscopy to unravel the mysteries of "Planet Ocean."

Fine wine-making with the help of HORIBA tech

There are a lot of quality characteristics that the winemakers are interested in that relate to the color of the wine and the phenolic content – compounds that affect the wine’s taste, color and mouthfeel.

Scientists use fluorescence spectroscopy to monitor dissolved organics in the water as it goes through the various steps of treatment.

Fluorescence Spectroscopy Identifies Healthy Olive Oils

Researchers have found that olive oils have unique fluorescent fingerprints.

Prof. Shane Snyder talks about wastewater management challenges and how he depends on fluorescence spectroscopy to monitor water quality.

Fluorescence Spectroscopy Used by Winemakers

Traditional methods of testing the grapes are slow, expensive and cumbersome. Fluorescence spectroscopy can characterize the phenolic content in grapes and wine faster, cheaper, and with greater flexibility than traditional methods, including Gas Chromatography-Mass Spectrometry, Liquid Chromatography-Mass Spectrometry, and Fourier Transform Infrared Spectroscopy.

The discovery of a glucose binding molecule could revolutionize diabetes management. Researchers are also working with partners to develop these molecular sensors to release insulin as needed. And the Duetta benchtop spectrofluorometer is at the heart of the discovery.

Scientists believe phenolic compounds, like those found in olive oil, can contribute to a lower rate of coronary heart disease and prostate and colon cancers.

Our planet has posed a baffling puzzle for scientists ―one that contradicts established climate theories and has enormous implications for the future.

Researchers have focused on the terrestrial system to identify the missing carbon, such as in rivers and glaciers. Baker’s group is focusing on groundwater.

Fluorescence spectroscopy, carried out by a Rutgers University researcher, found that the contents on the labels of over-the-counter supplements do not always match the ingredients.

South Africa, with economic and technological challenges, has shown a new approach to fluorescence spectroscopy to be more efficient and less costly for wastewater treatment.

Policing “organic milk” with fluorescent spectroscopy

Fluorescence spectroscopy can produce a molecular fingerprint of the contents of the milk by measuring molecules based on luminescent signals in response to a beam of light. Testers can get results through fluorescence spectroscopy instantly, unlike more expensive technologies, like gas chromatography.

Ion transport through cell membranes is at the heart of most biological processes. Matthew Langton of Oxford is finding ways using fluorescence spectroscopy to synthesize molecules to take the place of dysfunctional proteins.

Gene Hall is a crusader. His mission is to find mislabeled food and dietary supplement products, and reveal them to the world.

Pilot equipment for experimental water treatment process at the Hampton Roads SanitationDistrict

Vaidya and her team are developing methods of advanced water treatment that not only returns the wastewater to a healthy level, but raises the ground water level, and prevents land subsidence and seawater intrusion.

Water treatment plants must measure what comes into its facility and what goes out. Spectroscopy is a powerful tool that can facilitate the measurement of these changes.

Spectroscopy used to find life in glaciers

Like water treatment plants, researchers use fluorescence spectroscopy to measure dissolved organics in glacial ice. This helps to determine if life exists or existed at one time below the polar ice caps.

Ruchira Ranaweera and David Jeffery in their lab with a HORIBA Aqualog.

The aim of the study was to see if fluorescence spectroscopy, using HORIBA’s proprietary A-TEEM technology, and a novel use of a multivariate algorithm could effectively and economically identify a number of wine samples produced from various regions in Australia.

The primary role of a drinking water treatment plant is to provide clean drinking (disinfected) water.

Michael Gonsior studies dissolved organic materials (DOM) from an environment that scientists believe replicates many of the conditions of ancient Earth ― the majestic hot springs in Wyoming’s Yellowstone National Park.

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