International Starch Institute. TM39-2e SORBITOL. Starch Technology

Similar documents
On Trend Ingredients: Polyols Properties, Labeling & Emerging Areas of Interest

What Are Polyols? Polyols are:

Novel low-calorie bulk sweeteners

Application Bulletin. Nutritional Bars. Corn Products Specialty Ingredients products for use in this application:

Technical considerations for sugar reduction. Rachel Gwinn, Product Development Scientist, Campden BRI

An-Najah National University Sugars and Sweeteners in Foods

pg

All About Carbohydrates and Health

All About Carbohydrates and Health CPE Questions

Sugar Reformulation What are the options for alternative sweeteners?

About HYET. Who We Are. Our Aims

Abstract for High Fructose Syrup Production. Ensymm abstract for enzymatic high fructose syrup production.

Abstract for Invert Sugar Production Line. Ensymm Abstract for a Production Line of Invert Sugar

International Starch Institute. TM7-8e THE DANISH STARCH INDUSTRY. Starch Technology

Sweeteners - Composition, Types, and Functions

Reducing the calorie content of ingredients without compromising texture and flavour. Jenny Arthur, Head of Nutrition and Product Development

Sugary foods and beverages hidden sugars

Nutrition Wars: Choosing Better Carbohydrates

One can of soda a day. equals 31 pounds of sugar consumed at the end of the year! 7/31/2018

Chapter 2 Carbohydrates

THE STORY ON SUGAR A N A R A L L I D I N A, M P H, R D. ALI 261: The Story on Sugar

Dietary fibres and polyols: A way forward to carbohydrate management for healthy world

Corn/Maize Starch. Speci cations

This document is meant purely as a documentation tool and the institutions do not assume any liability for its contents

A Quick Lesson in Sugars! Monosaccharides. Simple Sugars. Within the body, ALL are converted to glucose! Carbohydrate Digestion SITE ENZYMES END PROD

COMMISSION REGULATION (EU) No 724/2013 of 26 July 2013 amending Regulation (EU) No 231/2012 as regards specifications on several polyols

Sugars reduced and fibre enriched products with Actilight and Maltilite : Innovation in dairy products and snacks

Paper No.: 13. Paper Title: FOOD ADDITIVES. Module 14 Firming agents, Humectants and Propellants Introduction

Examining the nutritional consequences of substituting sugar and fat. Lindsey Bagley Tuesday 17 th November 2015

An FDA Update: Sugary Ingredients' Impact on Added Sugar Labeling

Carbohydrates and Weight Loss

Carbohydrates: The Energy Nutrient Brooks/Cole, a division of Thomson Learning, Inc. Thomson Learning is a trademark used herein under license.

INDUSTRY PERSPECTIVE: CHALLENGES OF REDUCING SUGAR AND USING SWEETENERS DR KAVITA KARNIK, PRINCIPAL SCIENTIST (GLOBAL NUTRITION)

TRUTH: On average, Canadians consume 11% of energy from added sugars, and consumption has been declining

HC-75 Calcium Form. 305 x 7.8 mm HC-75 Calcium Form (P/N 79436)

جامعة تكريت كلية طب االسنان مادة طب الفم الوقائي املرحلة اخلامسة م. ازهار عماش حسني

OPINION ON A MALTITOL SYRUP NOT COVERED BY THE CURRENT SPECIFICATIONS

Cost of Food at Home for a Week in Alaska March 2003

CARBOHYDRATES 8/25/2014. Lesson Objectives. NUTR 2050 Nutrition for Nursing Professionals. Mrs. Deborah A. Hutcheon, MS, RD, LD.

Not long ago the world was caught up in an anti-carbohydrate craze.

L 346/6 Official Journal of the European Union

Lab 6: Cellular Respiration

ARE ALL SUGARS CREATED EQUAL?

NEW INGREDIENT LABELLING BASICS December 19, 2016

Experience, support, and value that will make you say, sweet!

Carbohydrates. Sugars, Starches, and Fibers. Chapter 4

This place covers: Reducing the size of material from which sugars are to be extracted; Presses and knives therefor,

Full file at

CARBOHYDRATES. By: SHAMSUL AZAHARI ZAINAL BADARI Department of Resource Management And Consumer Studies Faculty of Human Ecology UPM

Preparation of Glucose Syrup from Waxy Corn by Enzymatic Process

Name: Class: Honors Biology Period: Question: What is the molecular formula of this molecule?

Sugar Food Facts Answer Sheet

Pure chocolate with ERYLITE Erythritol

How is the European ingredient industry responding to the new health agenda? Technical challenges and solutions

This document is meant purely as a documentation tool and the institutions do not assume any liability for its contents

Macronutrients : Carbohydrates. Structure, sources and function

5 Tips for Reducing Sugar in Bars & Baked Goods

Nutrition Standards for Competitive Foods in Pennsylvania Schools for the School Nutrition Incentive

THE BENEFITS OF WORKING WITH FIBERSOL

Newsmaker CENTRAL VALLEY BARIATRICS. What Is Stevia? September 5, Ara Keshishian, MD, FACS. What is Stevia?

Lec 3a- BPK 110 Human Nutr.:Current Iss.

Chemistry B11 Chapters 13 Esters, amides and carbohydrates

Carbs: The Staff of Life, or The Stuff of Death? Ed Cox, M.D.

ORAL DOSAGE OVERVIEW

Ch13. Sugars. What biology does with monosaccharides disaccharides and polysaccharides. version 1.0

Abstract for Pectin Production. Ensymm abstract for Pectin production from fruit

Commercial Bulleting Aloe Flakes

CHEMISTRY OF LIFE 05 FEBRUARY 2014

Dehydration and Oral Rehydration Solutions

DURATION: 3 HOURS TOTAL MARKS: 120. Internal Examiner: Dr. M Siwela. Internal Moderator: Dr. A. van Onselen

Defining Real Food BY EMILY ZWILLING

Removing cost barriers in healthier reformulation of everyday foods

Tackling the issues of reducing the sugar in cakes. Gary Tucker Baking and Cereal Processing Department Campden BRI

Food labels simplified

Carbohydrate Chemistry Carb Structure Glucose Syrups

Carbohydrate Chemistry 2016 Family & Consumer Sciences Conference Karin Allen, PhD

Chapter 4: Sugars, Starches and Fibers. Copyright 2012 John Wiley & Sons, Inc. All rights reserved.

What Are Carbohydrates? Chapter 4 Carbohydrates: Simple Sugars and Complex Chains. Monosaccharides. Simple Sugars 6/17/16. BIOL 103, Spring 2016

Food & Nutrition Evaluation - Carbohydrate 2 -

The Good Food Movement : Catalyzing A Healthy, Local Food System. By Community Health Improvement Partners

what is Fibersol-2 AG?

Sugar Functionality & the Challenge of Reformulation. Professor Julian M Cooper

1.1.1 Protein. 1 Quiz: Protein. 1. The main reason why the body needs protein is for growth, repair and maintenance.

Chapter 4 Reading Guide

Sugar and Your Quality of Life Healing your relationship with sugar

Starch. A vital ingredient in our diets

Coach on Call. Do you wonder what s in the little colored packets near the coffee, cream, and sugar? Do you wonder what makes diet soda sweet?

FAST FACTS ABOUT NOURISHAKE

ADDED SUGARS: TOXIC WAIST? Presented by Brandon Lee, B.S.

SUGARS AND SUGAR CONFECTIONERY

Alabama Department of Education Nutrition Policies

Alternatives sweeteners

BCH 445 Biochemistry of nutrition Dr. Mohamed Saad Daoud

Paper No.: 13 Paper Title: FOOD ADDITIVES

Tips for a Diabetes Diet

Lakeview School Program Policy Manual. Section One. State Compliance Policies/Procedures

FOOD. Why do we need food? What's in our food? There are 3 trace elements, Iron (Fe), Copper (Cu) and Zinc (Zn).

Copyright 1992 Revised 2002 by. American Dairy Products Institute. Elmhurst, Illinois. Printed in U.S.A. American Dairy Products Institute

Health Education Lesson Plan Teacher: Grade Level: 4

Transcription:

International Starch Institute SORBITOL TM39-2e Starch Technology

TM8-12e TM39-1e 22 INTRODUCTION is a sugar alcohol, C 6 H 14 O 6 found in nature as the sweet constituent of many berries and fruits best known from Sorbus aucuparia (Rowan or European Rowan) from which it was isolated for the first time in 1872. Mid 1950 s, sorbitol large scale manufacture began due to new applications, such as humectant in cosmetology and sugar substitute in non cariogenic confectionery. is today commercially produced from starch by enzymatic hydrolysis and catalytic hydrogenation. It has wide applications as a sweetener and humectant. CRYSTALLINE PROPERTIES C 6 H 14 O 6 182.17 g mol 1 has four crystal structures - four anhydrous crystalline phases plus the hydrate. It may be crystallized from an aqueous solution or low moisture melt or even spray dried / spray crystallized. Gamma polymorph is the most stable of the anhydrous crystalline forms confirmed by its high melting point and low hygroscopicity and is the only form of significance for the confectionery and pharmaceutical industries. Density 1.489 g/cm³ Melting point 95 C Boiling point 296 C HSH Hydrogenated starch hydrolysates (HSH), - polyglycitol syrups - are found in a variety of foods. They serve as bulk sweeteners, viscosity or bodying agents, moisture retaining ingredients, crystallization modifiers etc. just like sorbitol. HSH and sorbitol are made the same way, but from starch hydrolysates of different Dextrose Equivalent (DE) and different composition. is the result of hydrogenation of dextrose or starch syrup with a high DE equivalent to pure dextrose, while a hydrogenation of low DE hydrolysate will lead to a mixture of sorbitol, maltitol, and longer chain hydrogenated saccharides (maltitritol a.o.) With no single dominant polyol the generic name Hydrogenated Starch Hydrolysate is used. If 50% or more of the polyols are of one type, it can be labelled as " syrup", or "Maltitol syrup", etc. A special variety is manufactured by hydrogenation of the mother liqueur (hydrol) after first dextrose monohydrate crystallization. Hydrogenated starch hydrolysates are 20% to 50% as sweet as sugar depending on its particular composition. The HSH family of polyols is an approved food ingredient in most countries. U.S. food manufacturers may use HSH while FDA reviews the petition seeking approval for its use in foods. SYNONYMS Glucitol D-glucitol D- Sorbite Hydrogenated Starch Hydrolysate (HSH)

Rowan Sorbus aucuparia Copyright 2009 International Starch Institute, ScienceTree, Park Aarhus, Denmark. is the sweet constituent of the berries.

TM39-2e 4 RAW MATERIALS Starch crops grain or roots are the basic raw materials. Also purified starch of any origin corn, wheat, potato or cassava can be used. The hydrogenation can of course begin with dextrose liquid or dry but in real life the process begins with basic raw materials like cassava, corn or wheat. PROCESS The front end design depends on the selected agro commodity. The attached diagram shows briefly the process route. The various designs are described in greater detail in respective Technical Memoranda. The basic raw materials are cleaned and the starch is extracted in a wet milling process and then concentrated and purified. So far the process is identical to the one used for the manufacturing of native starch as the end product. Multi stage starch extractors. Being a tropical crop cassava can be grown and harvested round the year, which is a great advantage. This makes cassava a cheap carbohydrate source for the manufacture of starch sugar and downstream products like starch sugar alcohols. Instead of drying the starch, the concentrated pure starch milk is liquefied by cooking with acid or alpha-amylase. The cooking is carried out continuously in a converter by injecting steam. A rather low DE hydrolysate is the resulting intermediate of this conversion. The hydrolysate is then hydrolyzed to the very end as the monosaccharide dextrose and purified. The purified fully saccharified starch solution is concentrated and is now identical to standard high DE dextrose syrup. Hydrogenation in progress

TM39-2e 5 The clear high purity dextrose solution is hydrogenated in the presence of a catalyst in vigorously stirred reactors at specified pressure and temperature. It is necessary to safe-guard the process carefully, because of the hydrogen applied. Head space of the autoclave is initially flushed with nitrogen to remove air and its oxygen completely. Hydrogen is made on site. The hydrogenation is carried out intermittently in few hours cycles. The hydrogenated solution is decanted and subsequently subjected to carbon treatment and ion exchange. The catalyst is recycled and reused. Syrup condenser The purified solution is evaporated to 70% dry matter - the most usual concentration of Liquid. The syrup may be spray dried or crystallized to obtain a powder. (1) Starch crop Water (2) Native starch (3) Glucose syrup Hydrogen Catalyst Process Route Reception of grain or roots Cleaning of grain or roots Disintegrating and wet milling Starch Extraction Starch Concentration Starch Refining Starch Liquefaction Hydrolysate Saccharification Dextrose Purification Dextrose Concentration Dextrose preparation Dextrose Hydrogenation Purification Concentration Solidification Waste Byproducts 70% powder Input to the process may be either (1) a starchy crop like cassava, corn and wheat, (2) a native starch of any origin or (3) pure dextrose monohydrate or glucose syrup of a suitable DE dependent on sorbitol specifications.

Danish factory for the manufacture of D-sorbitol and L-ascorbic acid. D-sorbitol is obtained by catalytic reduction of D-glucose. By means of gluconobacter oxydans D-sorbitol is oxidized to L-sorbose, which is a necessary intermediate in the process for L-ascorbic acid (Vitamin C).

TM39-2e 8 SUGAR ALCOHOL MARKET Once upon a time glycerol was the sole ruler on the sugar alcohol market. This position was challenged, when sorbitol half a century ago was introduced on a larger scale. This market has since undergone a major expansion in terms of quantity and uses. This expansion is due to new sugar alcohols with new and different properties and consequently more uses. One important use is replacement of traditional table sugar (sucrose). Sugar alcohols (polyols) are all low-caloric, sugar-free, alternative sweeteners. They are replacement for sucrose and starch syrup in low-sugar and sugar-free formulations. They are qualified for product labelling as "Sugar Free", "Reduced Sugar" and "No Sugar Added". They provide exceptional bulk and body and are lower in calories than sucrose. Polyols are non-cariogenic. They can be used alone or in combination with other polyols and/or sweeteners. Even mixtures with glycerine are available as perfect glycerine substitutes. The common sugar alcohols sorbitol, mannitol, maltitol, erythritol, and hydrogenated starch hydrolysates are manufactured from starch. SORBITOL has a smooth mouth feel with a sweet, cool and pleasant taste. acts as a crystallization modifier or inhibitor; it can prevent syrups from forming crystals of sugar. It is used to add body and viscosity to mixtures, and can protect against damage from freezing (cryoprotectant) and drying. Liquid sorbitol itself has a tendency to crystallize at room temperature. A product of choice for most applications is non-crystallizing sorbitol (NCS) - a 70% solution with approximately 50% sorbitol and smaller amounts of other polyols (maltitol a.o.) It shares many applications with propylene glycol and glycerine and glycerine provides hard competition in the market for humectants. A new fuel biodiesel - has glycerine as by-product and will increase the output of glycerine in the future and put some polyol based glycerine replacements under pressure. Global production of sorbitol has reached approximately 800.000 MT per year. being the most commonly used polyol (it is the least costly) held the biggest market share among similar polyols. 800,000 MT Xylitol 200,000 MT Mannitol 180,000 MT Maltitol 160,000 MT Roquette Frères is the world's biggest sorbitol producer. Together with Cargill and Corn Products Specialty Ingredients they hold a market share of over 70%. Roquette has set up several production bases worldwide and is also constructing a large sorbitol plant in the east of China.

TM39-2e 9 POLYOLS Polyols are made for the industrial market and hard to find in a supermarket. In the European Union (EU) polyols are considered as food additives and are given the following E-numbers: 420 421 Mannitol 953 Isomalt 965 Maltitol 966 Lactitol 967 Xylitol 968 Erythritol LACTITOL Lactitol is a non-starch sweetener produced from whey. The lactose is isolated and hydrogenated. Largest manufacturer is the Danish company Danisco. MALTITOL Maltitol is made from starch by hydrogenation of high maltose syrup. Its high sweetness allows it to be used without being mixed with high intensity sweeteners. The cooling effect is negligible in comparison with other sugar alcohols. XYLITOL Xylitol is a non-starch sweetener found in strawberries, raspberries a.o. It is made by hydrogenation of xylose. This in turn is derived from xylan extracted from birch trees or corn cobs. The Danish company Danisco is the largest xylitol manufacturer. The cooling sensation drops from left to right. ISOMALT Sweetness Sucrose = 1 Calories kcal/g Glycerol 0.6 4.3 HSH 0.2 0.5 3.0 Erythritol 0.8 0.2 Isomalt 0.5 2.0 Lactitol 0.4 2.0 Maltitol 0.9 2.1 Mannitol 0.6 1.6 0.6 2.6 Xylitol 1.0 2.4 Isomalt is a non-starch sweetener manufactured in a two-stage process. Sugar (sucrose) is transformed into isomaltulose by fermentation or by an immobilized enzyme system and then hydrogenated to isomalt. Isomaltulose is used as a sucrose substitute itself. MANNITOL Starch based high fructose syrup is hydrogenated. During hydrogenation the fructose molecule rearranges to mannose and a mixture of sorbitol and mannitol is obtained. Mannitol is isolated and made commercially available in a variety of powder and granular forms. Mannitol is non-hygroscopic. ERYTHRITOL Erythritol occurs naturally in fruits and fermented foods. It is produced from glucose by fermentation with osmophilic yeasts such as Moniliella pollini, Torula coralline a.o. It is approved in the United States. Erythritol was approved in the European Union 2006. Erythritol is absorbed in the small intestine, and then for the most part excreted unchanged in the urine. It is absorbed before it enters the large intestine and does not normally cause laxative effects. Xylitol consumer package. The name BirkeSød = Birch- Sweet and the trees on the label alludes to the old name "wood sugar" from a time when Finnish birch trees constituted the sole raw material for xylitol. POLYGLYCITOL Polyglycitol - known as hydrogenated starch hydrolysate (HSH) - denotes a whole family of products based on starch and glucose and made the same way as sorbitol. Non-crystallising sorbitol is in fact polyglycitol syrup. "Hydrogenated starch hydrolysate", "Hydrogenated glucose syrup" and "Maltitol syrup" are names often used interchangeably and sometimes incorrectly.

TM39-2e 10 INDUSTRIAL TECHNICAL APPLICATIONS, together with other polyhydric alcohols such as glycerol, is one of the ingredients in alkyl resins and rigid polyurethane foams manufacturing. In tobacco industries, sorbitol may give mild effect in sniff. It is an excellent humectant and develops no pungent odour of acrolein such as glycerine, when tobacco is smoked. HEALTH is a natural sweetener found in many stone fruits and berries. The artificial version is nature identical. A review on sorbitol safety as been assessed by the Joint FAO/WHO Expert Committee on Food Additives concludes that it is not necessary to limit the dietary intake of sorbitol and related sugars. Nor has the Committee specified an Acceptable Daily Intake for. In the Code of Federal Regulations, FDA notes that sorbitol is used in food at levels not to exceed good manufacturing practices. These regulations further require that any sorbitol-containing foods whose consumption would add 50 grams of sorbitol to a person s diet must be labelled with the statement, Excess consumption may have a laxative effect. is used as softener and colour stabiliser in textiles and as softener in leather industries. The manufacture of vitamin C consumes approximately 15% of world sorbitol production. Gluconobacter oxydans are used for the oxidative conversion of D- sorbitol to L- sorbose an important intermediate in de manufacture of L-ascorbic acid (Vitamin C). solution is sold as a hyperosmotic laxative through pharmacies (Sorbilax). Excessive consumption can lead to gastrointestinal discomfort. In USA use is regulated by FDA. A maximum level of 99% of sorbitol may be used in hard candy and cough drops, 98% in soft candy, 30% in commercial jams and jellies, 30% in baked goods and baking mixes, 17% in frozen dairy desserts and mixes and 12% in all other foods. Uses of sorbitol in food are still a cause for concern among the public - particularly in children's food. It is, however, a concern sorbitol may share with other polyols and, for that matter with other chemically pure food items.

TM39-1e 10 TM39-2e 11 DIABETIC AND SLIMMING FOODS A possible pathway of sorbitol metabolism is via fructose and glycogen to glucose. This process is slow. In trials no significant increase in blood sugar were observed after intake of ice cream with 35 g sorbitol. The low glycemic index explains the interest for sorbitol in diabetic foods. ORAL CARE does not promote tooth decay; it is resistant to metabolism by oral bacteria which break down sugars and starches to release acids that may lead to caries. In toothpaste around 20% of the sorbitol market - it serves as a humectant, bodying agent, sweetener, shelf-life extender, crystallization inhibitor. It competes with the sweeter xylitol, but in many recipes, they act together. is an obvious choice for chewing gums and non-cariogenic confectionery. It is far better than table sugar. It adds sweetness with no risk of tooth decay. Glycemic Index. The metabolism of polyols in the body is slow or even missing. The higher and faster the blood sugar rises after a standardized intake, the higher the score the food is given, on a scale of one to 100. The glycemic index is low for most polyols and they are therefore suitable for a diabetic diet. is actually a nutritive sweetener with 2.6 calories per gram. Table sugar has 4 calories per gram. Slimming foods take advantage of this difference in calories and add high intensity sweeteners to compensate for the lower sweetness of sorbitol. Oral-care is in fact an important market with toothpaste, chewing gums, mouthwash and breath fresheners as top sellers. SKIN CARE retains moisture on the skin and leaves it feeling soft. Up to 5% is used in creams, lotions, gels, lipsticks, masks, shaving cream, aftershave lotions, shampoos and hair conditioners. is also number one, when it comes to clarity and translucency as in transparent bar soaps and translucent gels. Disclaimer. The information contained in this publication is to the best of our knowledge reliable. Users should, however, conduct their own tests to determine the suitability of our products and recommendations for their own specific purposes. Statements contained herein should not be considered as a warranty of any kind, expressed or implied, and no liability is accepted for the infringement of any patents.

... a member of the International Starch Group International Starch Institute, Science Park Aarhus, Gustav Wieds Vej 10, DK-8000 Aarhus C, Denmark. Phone: +45 8620 2000. Telefax: +45 8730 0223. international@starch.dk www.starch.dk