Alternative Brewing Sugars
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BREWERS' CRYSTALS® High Maltose Corn Syrup Solids
BREWERS’ CRYSTALS® High Maltose Corn Syrup Solids Advantages • Good match for all malt wort • Gluten free • Consistent purity and quality while adding flexibility and capacity Ingredion understands that brewery is an art as well as a science; our brewing adjunct portfolio is based on more What is it? than 100 years of service to the industry with a variety of ingredients. We take pride in our quality and ISO 9001 and BREWERS’ CRYSTALS High Maltose Corn Syrup Solids are FSSC 22000 systems certifications and our reliability one fermentable carbohydrates from corn, specially produced of the strongest supply chains in the industry. to obtain a profile close to an all-barley malt wort (Figure 1). Easy to use in powder form, they can be added directly to the brew kettle to create beers with crisper lighter flavor, or later How do I use it? in the process to add more complex character in priming. Ingredion BREWERS’ CRYSTALS HM Corn Syrup Solids can be easily added as an adjunct directly to the brewing kettle BREWERS’ CRYSTALS HM Corn Syrup Solids provide 100% or before filtration steps to add crisp and light character- total extract and 80% fermentable extract allowing the istics to lagers, ales and special beer recipes, or in priming Brew Master the flexibility of including them in a broad for added notes to complex beers. range of formulation and thus a wider spectrum of beers. Why should I use it? FIGURE 1: CARBOHYDRATE PROFILES COMPARISON 60 The benefits of BREWERS’ CRYSTALS HM Corn Syrup Solids: 56 • Packaged in convenient 25 kg (55 lb) multiwall poly-lined 52 BREWERS’ 50 CRYSTALS bags, they are easy to handle and store without the need for Wort* additional liquid handling systems. -
Prevention of Cap-Locking of Syrup Product by Treating the Manufacturing Process of Sugar Syrup with Citric Acid Monohydrate
Bangladesh Pharmaceutical Journal 19(2): 190-196, 2016 Prevention of Cap-Locking of Syrup Product by Treating the Manufacturing Process of Sugar Syrup with Citric Acid Monohydrate Mia Mohammad Dulal1, Md. Kaisarul Islam2, Abu Asad Chowdhury2 and Jakir Ahmed Chowdhury3 1Julphar Gulf Pharmaceuticals Ltd, R.A.K.,UAE. 2Department of Pharmaceutical Chemistry, Faculty of Pharmacy, University of Dhaka, Dhaka-1000, Bangladesh 3Department of Pharmaceutical Technology, Faculty of Pharmacy, University of Dhaka, Dhaka-1000, Bangladesh Received: May 13, 2016; Accepted: June 29, 2016; Published (Web): July 31, 2016 Abstract The aim of the study was to prevent crystallization of sucrose on the bottle neck and cap of sugar syrup containing products by treating the manufacturing process with citric acid monohydrate. Diphenhydramine HCl syrup was selected as a model product for the experiment. Sugar syrup (66% w/w sucrose) and partially inverted sugar syrup (in which 66% w/w sucrose was treated with citric acid monohydrate for partially conversion of sucrose into invert sugars) were prepared and the content of invert sugar of both the sugar syrups were determined. Sugar syrup and citric acid monohydrate treated sugar syrup (partially inverted) were considered as control and test sugar syrup, respectively which were used to manufacture the Diphenhydramine HCl syrup product. The Diphenhydramine HCl syrup product that prepared using sugar syrup was considered as control syrup product and that was prepared using citric acid monohydrate treated sugar syrup (partially inverted) was considered as the test syrup product. Then experiments were designed in such a way that both control (sugar syrup and product prepared by it) and test samples (partially inverted syrup and product prepared by it) were spread on open petridishes and also spread on the neck of filled bottle, inside of caps and the bottles, which were kept at room temperature (25 C) for 2 weeks observation. -
Nutrition & Allergen Guide
Home > Bakery Menu > Breakfast Menu > Lunch Menu > Impulse Items > NUTRITION & ALLERGEN GUIDE AUTUMN TO HOLIDAY (SEPTEMBER TO DECEMBER 2021) Bakery Menu > Breakfast Menu > Lunch Menu > Impulse Items > CORE FOOD Home > Bakery Menu > Breakfast Menu > Lunch Menu > Impulse Items > This guide will provide nutritional and allergen information for core food. Allergens can be found in BOLD CAPITALS within the ingredient declaration. Please ensure you take extra care to identify all the possible allergens present in our food, if you require support please ask one of our trained baristas. Within this booklet it will provide information on the following 14 allergens: • Cereals Containing Gluten • Fish (Wheat, Rye, Barley, Oats, Spelt, Kamut) • Crustaceans • Nuts • Sesame (Almond, Hazelnut, Walnut, Cashew, Pecan Nut, Brazil Nut, • Celery Pistachio Nut, Macadamia Nut, Queensland Nut) • Mustard • Egg • Peanuts • Milk • Sulphur Dioxide and Sulphites • Soya Cross Contamination Due to the nature of how our partners handle our bakery and heated food items equipment and utensils there is a risk of cross-contamination of other allergens. Whilst our partners try to keep things separate there is no guarantee any item is allergen free. Please remember to check this information regularly as we’re always working on our recipes. For more allergen information please ask your barista. This information is updated regularly to reflect our procedures instore. Please check www.starbucks.co.uk for the most up to date information. Home > Bakery Menu > Breakfast Menu > -
The Relationship Between Fructose, Glucose and Maltose Content With
stry: Cu i rre em n t Moussa et al., Organic Chem Curr Res 2012, 1:5 h R C e c s i e n a DOI: 10.4172/2161-0401.1000111 a r Organic Chemistry c g r h O ISSN: 2161-0401 Current Research ResearchResearch Article Article OpenOpen Access Access The Relationship between Fructose, Glucose and Maltose Content with Diastase Number and Anti-Pseudomonal Activity of Natural Honey Combined with Potato Starch Ahmed Moussa1*, Djebli Noureddine2, Aissat Saad1 and Salima Douichene2 1Institute of Veterinary Sciences University Ibn-Khaldoun, Tiaret, Algeria 2Departments of Biology, Faculty of Sciences, Mostaganem University, Algeria Abstract Honey whose medicinal uses date from ancient times has been lately rediscovered as therapy for burns. Objective: To evaluate the additive action of potato starch on the antipseudomonal activity of natural honey. Methods: Physicochemical parameters of 6 samples of Algerian honeys were analysed; four parameters were measured, including Diastase, glucose, fructose and maltose. The antibacterial activity was tested using the well-agar diffusion assay. Results: Six honey samples with initial diastase activity between 22.1 and 7.3 Schade units were tested. Glucose, fructose and maltose values range between 21, 45-30, 95%, 25, 20-37, 81% and 4, 72-78, 45% respectively. The zone inhibition diameter (ZID) for the six honey samples without starch against P. aureogenosa ranged between 26 and 31 mm. When starch was mixed with honey and then added to well, a zone inhibition increase diameter (ZIID) 27 and 32 mm. The percentage increase (PI %) was noticed with each variety and it ranged between 3, 57 and 18, 75%. -
Effects of the Carbohydrate Sources Nectar, Sucrose and Invert Sugar on Antibacterial Activity of Honey and Bee-Processed Syrups
antibiotics Article Effects of the Carbohydrate Sources Nectar, Sucrose and Invert Sugar on Antibacterial Activity of Honey and Bee-Processed Syrups Veronika Bugarova 1, Jana Godocikova 1, Marcela Bucekova 1, Robert Brodschneider 2 and Juraj Majtan 1,3,* 1 Laboratory of Apidology and Apitherapy, Department of Microbial Genetics, Institute of Molecular Biology, Slovak Academy of Sciences, Dubravska Cesta 21, 845 51 Bratislava, Slovakia; [email protected] (V.B.); [email protected] (J.G.); [email protected] (M.B.) 2 Institute of Biology, University of Graz, Universitätsplatz 2, A-8010 Graz, Austria; [email protected] 3 Department of Microbiology, Faculty of Medicine, Slovak Medical University, Limbova 12, 833 03 Bratislava, Slovakia * Correspondence: [email protected]; Tel.: +421-903-869413 Abstract: Honey is a functional food with health-promoting properties. Some types of honey are used in wound care for the treatment of acute and chronic infected wounds. Increased interest in using honey as a functional food and as a base for wound care products causes limited availability of raw honey. Numerous studies suggest that the protein content of honey is mainly comprised of bee-derived proteins and peptides, with a pronounced antibacterial effect. Therefore, the aim of our study was to characterize for the first time the antibacterial activity of raw honeys and bee-processed Citation: Bugarova, V.; Godocikova, syrups which were made by processing sucrose solution or invert sugar syrup in bee colonies under J.; Bucekova, M.; Brodschneider, R.; field conditions. Furthermore, we compared the contents of glucose oxidase (GOX) and the levels Majtan, J. -
Invert Sugar Determination by Polarimeter
Invert Sugar Determination by Polarimeter Invert sugar (IS) contains fructose and glucose in roughly equal proportions. The Invert sugar is greater in demand than pure glucose as food and drink sweeteners, because fructose is sweeter than glu- cose. Main consumers of Invert Sugar are the baking, beverages, canning, confectionery and dairy industries. In addition, high fructose syrup is used in many other processed foods like jams and jellies. However, it is being used only in biscuits and soft drinks. A manufacturer of IS expecting to supply it in next couple of years to the confectionery, fruit canning, processed foods and dairy products industries also. Fructose, also known as fruit sugar, is the sweetest natural sugar and is found in fruits, vegeta- bles, and honey. The body responds to fructose in a different way than to glucose and sucrose. Fructose is more satiating, and it is up to 1.8 times sweeter than sucrose, making it useful in foods and bever- ages for the health conscious. Fructose is also ideal for use in diabetic foods as it has very little effect on blood glucose and only a negligible effect on the secretion of insulin. Enzymatic treat- ments are a now a major way of producing sweeteners, including syrups derived from sucrose derived from sucrose or starch th at contain mixtures of glucose, maltose, fructose, and other sugars. Glucose has 70-75% the sweetening strength of beet sugar (sucrose), but fructose is twice as sweet as sucrose. Thus, processes for the manufacture of fructose are of considerable value. Invertase enzyme is used traditionally in the production of inverted sugars for industry, espe- cially in the manufacture of candies and preserves, production of lactic acid and ethanol pro- duction from fermentation of cane sugar molasses. -
Nutritive Sweeteners from Corn Have Become America’S Premier Sweeteners
NutritiveNutritive SweetenersSweeteners FromFrom CornCorn CONTENTS Member Companies and Plant Locations ....................................... 2 Foreword .......................................................................................... 3 Historical Perspective ...................................................................... 4 Research and development orientation ....................................... 5 Technology aimed at needs .......................................................... 7 Growth, Development and Diversity ............................................. 7 CONTENTS Classification and Nutrition ............................................................ 9 Classification ................................................................................. 9 Corn sweeteners in nutrition ..................................................... 10 Technical Background ................................................................... 11 Corn starch ................................................................................. 11 Starch hydrolysis ........................................................................ 13 Crystalline dextrose .................................................................... 14 Dextrose isomerization .............................................................. 15 Manufacture ................................................................................... 17 Corn syrups ................................................................................ 17 Dried corn syrups ...................................................................... -
Brewing Sugars and Syrups
Brewing Sugars and Syrups Subcommittee Members: Lydia Marinelli, Chairman; E. Austin, R. 2. It is recommended that the Subcommittee on Brewing Sugars Bogenrief, K. M. Brobsl, M. E. Cieslak, W. A. Davis, P. Fallen, M. Gray, and Syrups be retired. R. Hagy, A. M. Jamieson, K. Long, M. A. Mohs, P. M. Olinger, T. Otterson, A. F. Pomes, D. Schooley, H. D. Scobell, D. Stubbs, J. Whitt, and J. R. Helbert (ex officio). The evaluation of instrumental methods for determining CONCLUSIONS fermentable carbohydrates in brewing syrups was assigned to this Subcommittee in 1975. A collaborative study was undertaken in 1. The total laboratory error was lowest for glucose and maltose 1975-76 to evaluate two gas chromatographic methods and a high- using method 2, gas-liquid chromatography (GLC) of pressure liquid chromatographic method for determining glucose, trimethylsilyl (TMS) derivatives, when considering data for maltose, and triose concentrations in a pair of corn syrup samples. both types of syrups. The collaborative results (1) indicated that the least total error 2. The total laboratory error was lowest for maltotriose (triose) resulted from the use of the HPLC method. The highest error for all three methods was associated with the determination of triose using method 3, high-pressure liquid chromatography (HPLC), concentration. when considering data for both types of syrups. Based on recommendations evolving from the first collaborative 3. The total laboratory error was lowest using method 3, HPLC, study, a second collaborative study was initiated to include the when considering a combination of all three sugars and both following: types of syrups. -
Chewy Confections
[Confections] Vol. 14 No. 9 September 2004 ww Chewy Confections By Peter Dea, Contributing Editor Gumdrops and lemon drops -- although both are candies, a gumdrop eats differently than a lemon drop. While you may chew on the former, you probably wouldn't the latter. Part of picking candy is based on how interactive you want it to be. That is -- at least for this discussion -- do you want to chew it? When it comes to satisfying our need for a bite-sized sweet treat that also fulfills our desire to chew, it's chewy confections that meet these requirements. Excluding chewing gums, the most common chewy confections include jellies, caramels and nougats, and taffies. Within these groups lie a wide variety of shapes, flavors, textures and sizes. In addition to their broad appeal as traditional confections, chewy treats also find popularity in additional segments as a delivery means for vitamins, minerals and other nutraceutical ingredients. And with the current trend of low-carb lifestyles, sugar-free chewy confections are enjoying new interest. The technology for producing these sweet treats has existed for a long time. But, to implement the knowledge for new applications, it's beneficial to have a good understanding of the basic formulae and processes for each type. Back to basics According to Henry Nonaka, senior technical sales support manager, Corn Products International, Bedford Park, IL: "Combinations of three sweeteners -- sucrose, 42 DE, and 63 DE corn syrups -- are the basis for about every cooked confectionery product. To a lesser extent, high-maltose and high-fructose corn syrups (HFCS) can be used." In combination with moisture content, confectioners vary the amounts of these ingredients to begin creating candies with different textures and eating characteristics. -
Complete Sucrose Hydrolysis by Heat-Killed Recombinant Pichia Pastoris Cells Entrapped in Calcium Alginate
Martínez et al. Microbial Cell Factories 2014, 13:87 http://www.microbialcellfactories.com/content/13/1/87 RESEARCH Open Access Complete sucrose hydrolysis by heat-killed recombinant Pichia pastoris cells entrapped in calcium alginate Duniesky Martínez1, Carmen Menéndez2, Félix M Echemendia1, Enrique R Pérez1, Luis E Trujillo2*, Alina Sobrino1, Ricardo Ramírez2, Yamira Quintero2 and Lázaro Hernández2 Abstract Background: An ideal immobilized biocatalyst for the industrial-scale production of invert sugar should stably operate at elevated temperatures (60-70°C) and high sucrose concentrations (above 60%, w/v). Commercial invertase from the yeast Saccharomyces cerevisiae is thermolabile and suffers from substrate inhibition. Thermotoga maritima β-fructosidase (BfrA) is the most thermoactive and thermostable sucrose-hydrolysing enzyme so far identified and allows complete inversion of the substrate in highly concentrated solutions. Results: In this study, heat-killed Pichia pastoris cells bearing N-glycosylated BfrA in the periplasmic space were entrapped in calcium alginate beads. The immobilized recombinant yeast showed maximal sucrose hydrolysis at pH 5–7 and 90°C. BfrA was 65% active at 60°C and had no activity loss after incubation without the substrate at this temperature for 15 h. Complete inversion of cane sugar (2.04 M) at 60°C was achieved in batchwise and continuous operation with respective productivities of 4.37 and 0.88 gram of substrate hydrolysed per gram of dry beads per hour. The half-life values of the biocatalyst were 14 and 20 days when operated at 60°C in the stirred tank and the fixed-bed column, respectively. The reaction with non-viable cells prevented the occurrence of sucrose fermentation and the formation of by-products. -
Inverted Sugar Syrup - Wikipedia
Inverted sugar syrup - Wikipedia https://en.wikipedia.org/wiki/Inverted_sugar_syrup Inverted sugar syrup Inverted sugar syrup (also called invert syrup , or simply invert Invert sugar sugar ) is an edible mixture of two simple sugars—glucose and fructose— that is made by heating sucrose (table sugar) with water. [1] It is thought to be sweeter than table sugar, [2] and foods that contain it retain moisture and crystallize less easily. Bakers, who call it invert syrup , may use it more than other sweeteners.[3] Though inverted sugar syrup can be made by heating table sugar in water alone, the reaction can be sped up by adding lemon juice, cream of tartar or other catalysts often without changing the flavor noticeably. Identifiers The mixture of the two simple sugars is formed by a process of hydrolysis of sucrose. This mixture has the opposite direction of optical rotation as the CAS Number 8013-17-0 (http://ww original sugar, which is why it is called an invert sugar. w.commonchemistry. org/ChemicalDetail.a spx?ref=8013-17-0) Contents ChEMBL ChEMBL1201647 (ht Chemistry tps://www.ebi.ac.uk/c Optical rotation Definition and measurement hembldb/index.php/c Definition of the inversion point ompound/inspect/Ch Chirality and specific rotation EMBL1201647) Effects of water ChemSpider none Mixtures in general Fully hydrolyzed sucrose ECHA 100.029.446 (https:// Partly hydrolyzed sucrose InfoCard echa.europa.eu/subs Monitoring reaction progress tance-information/-/s Production ubstanceinfo/100.02 9.446) Shelf life In other foods and products PubChem 21924868 (https://pu CID See also bchem.ncbi.nlm.nih. -
19 Do Not Duplicate Functional Oligosaccharides a Trisaccharide Of
Do not duplicate Introduction to Carbohydrates: Oligosaccharides Dr. Yuan Yao Whistler Center for Carbohydrate Research Short Course October 3, 2017 Basic Concepts 2 Do not duplicate • “Oligo-” is the prefix from Greek language “few”; Poly- “many” • Oligosaccharides: Products of glycosidic linkages of 2-20 monosaccharide units (most commonly 2-9). Polysaccharides: More than 20 units • In the disaccharides: the aglycone is a monosaccharide unit; higher order oligosaccharides are named “tri-”, “tetra-”, “penta-”, etc. • There can be α-/β-(1→2), (1→3), (1→4) or (1→6) glycosidic linkages, with different stabilities & digestibilities (as for human body) • The structures of oligosaccharides could be linear or branched. Linear: head-to-tail linkage, 1 reducing end, 1 non-reducing end Branched: 1 reducing end, multiple non-reducing ends Common Disaccharides 3 Do not duplicate • Disaccharides are the simplest oligosaccharides that are only composed of two monosaccharide units o Highly abundant in nature; or the products of incomplete hydrolysis of higher oligosaccharides or polysaccharides o Water-soluble, with sweet taste • Most Common: Sucrose, Maltose, Lactose, & Trehalose o Naturally occurring o As the main product of photosynthesis, sucrose is ubiquitous in all plants, with high abundance in sugar cane and beet, as well as fruits o Commonly known as table sugar, sucrose usually serves as a “standard” of sweetness for other sweeteners Common Disaccharides 4 Do not duplicate Sucrose • A disaccharide of one glucose and one fructose unit, connected via β-(1,2)-glycosidic linkage • The “head-to-head” linkage is unstable due to high strain, and is therefore easily hydrolyzed (acid-catalyzed, or enzymatic) • Sucrose is a non-reducing sugar α-D-glucopyranosyl-(1→2)-β-D-fructofuranoside 5 Common Disaccharides Inverted sugarDo (syrup) not duplicate • Sucrose could be readily hydrolyzed.