Fast, Simple QA/QC of Milk Powder Formulations using FTIR Spectroscopy. Rob Wills Product Specialist Molecular Spectroscopy

Similar documents
Measurement of Acrylamide in Potato Chips by Portable FTIR Analyzers

QA/QC of sugars using the Agilent Cary 630 ATR-FTIR analyzer

Food protein powders classification and discrimination by FTIR spectroscopy and principal component analysis

Trans Fat Determination in the Industrially Processed Edible Oils By Transmission FT-IR Spectroscopy By

Mobile FTIR Analyzers from Agilent. Expedite Food QA/QC Improve Food Production, Safety and Quality

Automated FT-IR screening method for cocaine identification in seized drug samples

Milk protein profile: measure from mid infrared spectra and identification of influence factors

Brian C. Smith, Ph.D. Chief Technical Officer Big Sur Scientific (508)

Application of Near-infrared Spectroscopy to Quantify Fat and Total Solid Contents of Sweetened Condensed Creamer

Determination of Cannabinoid and Terpene Profiles in Cannabis Oils by Mid-Infrared Spectroscopy: 1. Cannabinoids

MilkoScan FT1. Milk standardisation with in-built abnormality screening. Dedicated Analytical Solutions

The use of a hand-held mid-infrared spectrometer for the rapid prediction of total petroleum hydrocarbons in soil

BUCHI NIR Applications Milling & Bakery Industry

FTIR-ATR Characterization of Commercial Honey Samples and Their Adulteration with Sugar Syrups Using Chemometric Analysis

Online monitoring of mashing. infrared spectroscopy

[ APPLICATION NOTE ] Profiling Mono and Disaccharides in Milk and Infant Formula Using the ACQUITY Arc System and ACQUITY QDa Detector

Rapid Determination of cis and trans Content, Iodine Value, and Saponification Number of Edible Oils by Fourier Transform Near-Infrared Spectroscopy

Innovative method for Vitamin Analysis at point of production

Soy Lecithin Phospholipid Determination by Fourier Transform Infrared Spectroscopy and the Acid Digest/Arseno-Molybdate Method: A Comparative Study

EARLY DETECTION OF OIL PALM FUNGAL DISEASE INFESTATION USING A MID-INFRARED SPECTROSCOPY TECHNIQUE ABSTRACT

Rapid Quality Measurements of Flour and Wheat in the Milling industry. Phillip Clancy, Next Instruments, Australia.

NEAR INFRARED TRANSMISSION SPECTROSCOPY AS APPLIED TO FATS AND OIL

ß-Lactoglobulin: A Whey Protein Fraction with Enhanced Functionality

BUCHI NIR Applications Feed Industry

Understanding and Managing Variation in Nutrient Composition

FOOD SAFETY TESTING QUALITY ASSURANCE

Determination of Cannabis Extract Potency Degradation Mechanism and Rate by Infrared Spectroscopy

Global Market for Clinical Nutrition and Dairy Ingredients

EDXRF APPLICATION NOTE

HarvestLab John Deere Constituent Sensing

For more information, please contact: or +1 (302)

Stable Isotope Techniques to Develop and Monitor Nutrition Programmes

DETECTION AND QUANTIFICATION OF STICKINESS ON COTTON SAMPLES USING NEAR INFRARED HYPERSPECTRAL IMAGES

Determination of Copper in Green Olives using ICP-OES

Guidebook to Proximate Analysis

Genetic parameters for major milk proteins in three French dairy cattle breeds

Use of Near Infrared Analysis for the Evaluation of Rice Quality. Glenn Merberg, Ph.D. B. Raymond Oberg

Optimal Differentiation of Tissue Types Using Combined Mid and Near Infrared Spectroscopy

FT-NIR Spectroscopy for Food and Natural Heath Products Analysis. Subtitle

Agilent Anion-Exchange Media for Proteins - Loading vs Resolution - Effect of Flow Rate and Example Protein Separations

ICAR Manufacturers Showcase Riga, Latvia, 2 June 2010

the minispec mq series TD-NMR Analyzers Innovation with Integrity TD-NMR TD-NMR General Principles the minispec International Standard Methods

DAIRY POWDER S FOR ALL NEEDS

Randomness Rules: Living with Variation in the Nutrient Composition of Concentrate Feeds 1

Research Article. Detection of adulteration in ghee from markets of Ahmedabad by FTIR spectroscopy

MULTI-COMPONENT ANALYSIS OF HEAVY METALS

Dairy Ingredients Research Update

Genetic and Environmental Info in goat milk FTIR spectra

Research of the Measurement on Palmitic Acid in Edible Oils by Near-Infrared Spectroscopy

FT-IR ANALYSIS OF DERIDE HUMAN SERUM FOR DETERMINING ALBUMIN CONCENTRATION IN IRAQI PATIENTS WITH RENAL FAILURE

DiscovIR-LC. Application Note 026 May 2008 READING TEA LEAVES SUMMARY INTRODUCTION

Qingbo Li, Qishuo Gao, and Guangjun Zhang. 1. Introduction

Determination of Free Fatty Acids in Crude Palm Oil and Refined-Bleached-Deodorized Palm Olein Using Fourier Transform Infrared Spectroscopy

NUTRITION GUIDELINES DRAFT - work in progress January 18 th 2016

Determination of essential nutrients in raw milk

Randomness Rules: Living with Variation in the Nutrient Composition of Concentrate Feeds

the minispec mq one TD-NMR Analyzers

Rebaudioside a From Multiple Gene Donors Expressed in Yarrowia Lipolytica

DSCC A NEW BIOMARKER FOR MASTITIS SCREENING -- AND AN UPDATE ON KETOSIS SCREENING

Fat Content Determination Methods Teresa McConville Chem 311 Dr. Weisshaar

Ingredients for the next generation

How to Use Stable Isotope Techniques for Assessment of Breastfeeding Patterns. Christine Slater Retired IAEA Nutrition Specialist

In vivo Infrared Spectroscopy

Is it Method Verification or Validation, or Just Semantics? Michael Brodsky Brodsky Consultants

Leader in custom manufacturing. for the pharmaceutical and nutraceutical industries.

Research and Reviews: Journal of Pharmacy and Pharmaceutical Sciences

Analysis of Food Sugars in Various Matrices Using UPLC with Refractive Index (RI) Detection

OPTIMIZATION OF RICE BRAN HYDROLYSIS AND KINETIC MODELLING OF XANTHAN GUM PRODUCTION USING AN ISOLATED STRAIN

LIFE PROJECT ECODEFATTING LIFE13 ENV/IT/00470

QUALITY ASSURANCE TOOLS IN MILK-TESTING LABORATORIES THE VIEW OF AN INSTRUMENT MANUFACTURER DR. DANIEL SCHWARZ, FOSS, DENMARK

Sprint. Revolutionary technology for the rapid, safe and direct determination of protein

Detection of adulteration of coconut oil using Fourier transform infrared spectroscopy and chemometrics

Organic Chemistry Diversity of Carbon Compounds

MilkoScan FT+ for routine compositional raw milk analysis

Wisconsin Child Care Licensing Laws: Healthy Food, Physical Activity and Screen Time Summary

RDC A-1 FLOOR PLAN 1"=10' PRELIMINARY BUILDING ENKI. RDC Architects DATE: 1/11/17 SCALE: SHEET: A R C H I T I T E C T S SNICE 1981 REVISIONS

Anderson Materials Evaluation, Inc.

The world of Vitamins

Development in DAIRY INDUSTRY. Prepared by : Dr. AbdulBaki Alzaemey

Quantity Per Serving. 27 grams

Healthy Living. Making healthy meals and snacks is a good way to get healthy.

DIfferent Approaches to Moderate- & late-preterm Nutrition: Determinants of feed tolerance, body composition and development

SWATH Acquisition Enables the Ultra-Fast and Accurate Determination of Novel Synthetic Opioids

LC-MS/MS analysis of Chlorates in Milk and Whey Powder using the Agilent 6470 QQQ

Flupyradifurone. HPLC Method

Discrimination of pork content in mixtures with raw minced camel and buffalo meat using FTIR spectroscopic technique

Rapid Analysis of Water-Soluble Vitamins in Infant Formula by Standard-Addition

MEASUREMENT OF BREAST MILK INTAKE USING DEUTERIUM OXIDE AND FOURIER TRANSFORMED INFRARED SPECTROPHOTOMETER - A PILOT STUDY

Artificial Neural Networks and Near Infrared Spectroscopy - A case study on protein content in whole wheat grain

Determination of Bisphenol A in Milk Powder using a Chromolith HighResolution RP-18 endcapped column

Analysis of Amino Acids Derived Online Using an Agilent AdvanceBio AAA Column

Harmonisation of Milk Analyser for Fatty Acid determination by FTMIR

Analysis of Acrylamide in French Fries using Agilent Bond Elut QuEChERS AOAC kit and LC/MS/MS

Komt eerst het eten en dan de moraal? Prof.dr.ir. Saskia van Ruth Wageningen University and Research Centre The Netherlands

Non-invasive blood glucose measurement by near infrared spectroscopy: Machine drift, time drift and physiological effect

F-RQS-05 PT SCHEM Page 1 of 5

OzScientific Pty Ltd. Knowledge-driven Solutions for Dairy & Food Industries

SOME ASPECTS OF INFANT FEEDING. Quak Seng Hock

The challenges of analysing blood stains with hyperspectral imaging

Captus 3000 Thyroid Uptake And Well System The Ultimate... User Friendly... Intuitive

Transcription:

Fast, Simple QA/QC of Milk Powder Formulations using FTIR Spectroscopy Rob Wills Product Specialist Molecular Spectroscopy

Agilent Molecular Spectroscopy Portfolio 2010 2009

Agilent Molecular Spectroscopy Portfolio 2011

Agilent Cary 630 - introduced September 2011 An entry-level FTIR that will change the way analysts approach routine infra-red measurements! Designed for a wide range of markets, in particular, Chemicals QA/QC, Pharma QA/QC and Academic Teaching

MicroLab Method driven, guided sampling so simple and intuitive that anyone can use it

Near-IR 0.9 2.5μm, 11000 4000cm -1 Overtones and combinations Commonly used in food industry Commodity measurements Protein, water, fat, carbohydrate Food production, esp. meat, grains and milk Mid-IR (FTIR) 2.5-25μm, 4000 400cm -1 Fundamental vibrations Mid-IR gaining use in food industry More sensitive and specific (higher information content) Lends itself to many different applications

- FT-IR analysis is SIMPLE to perform - FT-IR can require very little to NO SAMPLE preparation - Results are available within SECONDS to MINUTES - Powerful tool for analysis of any GAS, LIQUID or SOLID - The method is VERSATILE (can accommodate various sample sizes and types) - Provides both QUANTITATIVE and QUALITATIVE results - FT-IR provides incredibly ACCURATE results - FT-IR analysis CAN BE NON-DESTRUCTIVE - FT-IR spectroscopy is an AFFORDABLE method

QA/QC of Dairy Powders using the Agilent Cary 630 ATR-FTIR Analyser Authors: Zubair Farooq and Ashraf A. Ismail McGill University, Quebec, Canada Publication number: 5991-0784EN Publication date: November 2012

Milk protein powder samples including α-lactalbumin, β-lactoglobulin, glycomacropeptide, milk protein concentrate, WPI, WPC, caseins and caseinates were obtained from different suppliers. A spectrum of each sample was obtained using the Cary 630 FTIR equipped with diamond ATR interface. Spectra were collected using 64 scans at 4cm -1 resolution approx. 30 secs measurement time.

The differences among the spectra are hard to distinguish by the naked eye. All four protein types can be immediately characterized and differentiated with the built-in spectral analysis capability of the MicroLab FTIR software. Correct identification of an unknown dairy powder as α-lactalbumin by the MicroLab FTIR software

Determination of Sucrose Levels in Infant Cereals using the Cary 630 FTIR-ATR Authors: Chih-An Lin, Huseyin Ayvaz, and Luis E. Rodriguez-Saona Ohio State University, Columbus, USA Publication number: 5991-6126EN Publication date: July 2015

Sucrose is a key additive in many breakfast cereals. It is used to improve taste and appearance, especially when added in the form of a coating, but due to health concerns there is a need to measure and control the amount of sugar present. Chromatography or wet chemistry are often used for this purpose, however, these methods are time-consuming and require additional sample preparation, hence there is substantial interest in methods for measuring sugar that eliminates some of the issues associated with traditional analytical methods. FTIR can be used as a simple alternative, with the following benefits... The speed of analysis is greatly increased. No sample dilution or preparation other than grinding is required. The level of user experience required to obtain reliable answers is reduced. Samples do not have to be sent to a remote lab for analysis, i.e. analysis can be performed where and when the measurement needs to be made.

Chemometrics software is needed to overcome problems of spectral overlaps inherent in a complex sample matrix such as this.

Independent external validation set of 20 additional samples shows high correlation for sucrose (> 0.95) when compared with data obtained by the HPLC reference method. 64 co-averaged scans collected at 4cm-1 resolution (30 secs). Spectra were normalized, and second-derivative transformed through a Savitsky-Golay second order polynomial filter with a 35- point window, prior to the partial least squares (PLS) regression analysis.

Detection of Adulteration in Milk Products using FTIR Author: Luis E. Rodriguez-Saona Ohio State University, Columbus, USA Publication number: 5991-1953EN Publication date: February 2013

Application note relates to adulterants in bovine milk, measured in both liquid and powder (freeze dried) form. Again, chemometric software analysis is used to identify and classify the type of adulterant at levels as low as 3% v/v. Liquids measured in transmission Solids measured using ATR

Companies using the milk for further production (e.g. of powdered infant formula) normally check the protein level through a test measuring nitrogen content. The addition of melamine increases the nitrogen content of the milk and therefore its apparent protein content. A study in 2011* showed how FTIR spectra collected in the mid infrared (MIR) region between 4000 and 600 cm 1 could be used to detect melamine contamination. FTIR data was processed using regression and multivariate analysis and spectral changes in the amide I and II regions (1700 1400 cm 1 ) and the fingerprint region (1800 700 cm 1 ) were used to identify and quantify contamination and provide a model for future analysis. * Balabin RM1, Smirnov SV., Melamine detection by mid- and near-infrared (MIR/NIR) spectroscopy: a quick and sensitive method for dairy products analysis including liquid milk, infant formula, and milk powder., Talanta. 2011 Jul 15; 85(1):562-8.

A more recent study by S. Jawaid et al published in Food Chemistry 141 (2013) demonstrated the use of FTIR-ATR for rapid and accurate detection of melamine adulteration with excellent detection limits reaching the safety limits set by EU and US FDA.

Agilent 5500 Dedicated Analyser for routine use by non-skilled personnel outside of the lab, for example.. Factory floor Gatehouse Agilent 4500 Truly portable, battery operated system for routine use by non-skilled personnel outside of the lab, for example... Anywhere!

Stable Isotope Technique for Assessment of Breast Milk Intake Using Agilent 4500 Field Portable FTIR Authors: Alan Rein / Frank Higgins Agilent USA * Prof. Thomas Preston SUERC, Glasgow, UK * IAEA Seibersdorf, Austria Publication number: 5991-3531EN Publication date: December 2013

Historically, the method to assess intake of breast milk was to simply weigh the baby before and after feeding. Not only was this inaccurate, but it was also very time consuming and can adversely affect feeding patterns. O-D absorbance band measured using 100µm pathlength Plot of D 2 O concentration measured by IRMS and Agilent 4500 series FTIR shows excellent correlation In short, a dose ( bolus ) of D 2 O is given to the mother and her Deuterium levels read via FTIR at day 1, 2, 3, 4, 13,14. The baby, who ingests the Deuterium enriched water from the mother through breastfeeding, is also monitored from his/her saliva.

Sample measurement is quick and simple using the patented TumblIR interface. The measured D 2 O in units of mg/kg are entered into an IAEA spreadsheet, and since the rate of decay of D 2 O is accurately known, we can very accurately calculate the amount of breastmilk consumed.

Summary FTIR can be used for a wide range of applications from simple screening of incoming raw materials to delivery of fast, accurate quantitative results. Measurements are fast, simple to make, highly reproducible and can be made outside of the lab just as easily as inside the lab.