Replacing Table Sugar with Maple Sugar by STEPHEN CHILDS
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Corn Protein in Icing
Corn Protein in Icing Protein ingredients can be added to confectionery products to aid in water and fat retention. Another benefit is protein fortification. An experiment was run to evaluate the impact of adding corn protein to an icing formula. The experiment compared a control and test sample. Corn protein was produced by Cargill with at least 85 wt% corn protein (dry basis) and less than about 1.5 wt% oil (dry basis), as described in patent application WO20161544CPI. The formula could be adapted to use corn protein with a minimum of 65 wt% protein and less than 3 wt% oil (dry basis) and anticipate the same finding. An example involves white icings. Icings with and without the addition of corn protein were prepared using the formula and process procedures listed. Corn protein replaced powdered sugar in this example. FORMULA Ingredients Control (%) Test (%) Powdered Sugar 57.8 52.8 Corn Protein 0.0 5 Water 18.2 18.2 Granulated Sugar 11.3 11.3 GelogenTM 5.8 5.8 Corn Syrup Solids 4.6 4.6 Hard Fat Flakes 2.3 2.3 Total 100.00 100.00 PROCESSING PROCEDURE 1. Add water, granulated sugar, corn syrup solids and Gelogen to the Vorwerk pitcher 2. Heat the mixture to 100°C and hold for a minimum of 3 minutes with the hole in the center covered 3. Turn off heating (set to 50°C) 4. Add the fat and allow it to melt (approx. 30 seconds – 1 minute) 5. Increase the mixing spread and add the powdered sugar 6. -
POWDERED SUGAR Food Additive, Flavor
GHS SAFETY DATA SHEET AMERICAN CRYSTAL SUGAR COMPANY Prepared to U.S. OSHA Standards in compliance with the GHS system (29 CFR 1910.1200(g), rev. 2012 Section Identification 1 POWDERED SUGAR food additive, flavor enhancer, baking Manufacturer's Name ingredient, intended for American Crystal Sugar Co. human consumption 101 North 3rd Street Moorhead, MN 56560 No restrictions on use Emergency Telephone Number: (218) 236-4400 Preparation Date: Telephone Number for Information 21 November 2014 (218) 236-4324 Revised: New Section Hazard(s) No Hazardous Components The dust generated by 2 Identification the transportation and Sugar and starch support combustion handling of sugar is an only poorly and are not by themselves explosion hazard; hazards unless they are involved as measures must be taken secondary fuels in an existing fire. to avoid the creation of fugitive dust and to abate any dust created. Section Composition / Sucrose, sugar, saccharose; Table sugar, beet sugar, 3 Information on C12 H22 O11 : 97% natural sweetener Ingredients IUPAC: (2R,3R,4S,5S,6R)-2-[(2S,3S,4S,5R)- CAS 57-50-1 3,4-dihydroxy-2,5-bis(hydroxymethyl) UNII C151H8M554 oxolan-2-yl]oxy-6-(hydroxymethyl) EINECS 200-334-9 oxane-3,4,5-triol ] RTECS WN6500000 Corn starch: 3% CAS 9005-25-8 RTECS C151H8M554 EINECS 232-679-6 Section First Aid Measures INHALED: not expected to require first EYES: Possible mechanical 4 aid. Exposure to dust may aggravate pre- irritant. Flush granular existing respiratory conditions. Remove material with running to fresh air; get medical attention for any water, holding eyelids open. breathing difficulty. -
Delicioussm GOLDEN BROWN SUGAR Product Information Sheet
9501 Southview Ave. Brookfield, Illinois 60513 www.sweetenersupply.com www.powderedcellulose.com DELICIOUSsm GOLDEN BROWN SUGAR Product Information Sheet Product Code BR0050 A brown sugar produced by enrobing cane granulated sugar with high quality cane juice molasses. Delicious Golden brown is perfect for baked goods, barbecue sauces, or any formulation where a quality brown sugar is desired. Label Declaration: Brown Sugar (Sugar, Molasses) ANALYSIS Dry Solids 98% min Moisture 2% max Ash 2% max. Color Golden Brown Odor Typical of Brown Sugar Sucrose 90% typical Invert 4% typical NUTRITIONAL ANALYSIS Per 100 g Calories 390 Moisture 2g Carbohydrate 97.6 Sugars 97.6 Ash 0.40 Sodium 17 mg Potassium 96 mg Magnesium 9 mg Calcium 25 mg Not a dietary significant source of protein, fat, vitamins or fiber. MICROBIOLOGY Aerobic Plate Count – Max 500 cfu/g Yeast & Mold – Max 100 cfu/g Pathogen free Phone (708) 588-8400 Fax (708) 588-8460 Revision 3 3/21/16 approved VP Food Tech 9501 Southview Ave. Brookfield, Illinois 60513 www.sweetenersupply.com www.powderedcellulose.com Allergen Statement Brown Sugar Allergen Source: Present in Used on same Comments: Product production line Dairy: No No Egg/Egg Derivative: No No Soy/Soy Derivative: No No Peanut: No No Wheat/Wheat No No Derivative: Fish (Cod, tuna, No No etc): Nuts (tree nuts, No No etc): Crustaceans (shell No No fish, lobster, etc.): Mollusks (snail, No No clams, etc.): Seeds (sesame, No No celery, etc.): Gluten: No No Colors (FD&C, No No Caramel color): MSG: No No Sorbates: No No Sulfites: No No Benzoates: No No BHA/BHT: No No Artificial No No Sweeteners: Animal derivatives: No No Mustard No No Phone (708) 588-8400 Fax (708) 588-8460 Revision 3 3/21/16 approved VP Food Tech 9501 Southview Ave. -
Maple Sugar Blondies
S H E L B U R N E F A R M S Maple Sugar Blondies Adapted from Cooking with Shelburne Farms by Melissa Pasanen with Rick Gencarelli INGREDIENTS For the dough 2¼ cups all-purpose flour 1 teaspoon baking soda ½ teaspoon salt ¾ cup canola oil ¼ cup Vermont maple syrup (use Grade A: Dark Color with Robust Taste or Grade A: Very Dark Color with Strong Taste for a stronger maple flavor) ¾ cup granulated maple sugar (or packed light brown sugar) 1 large egg beaten For the frosting ¼ cup Vermont maple syrup (see note above) ½ cup granulated maple sugar ½ cup confectioner’s sugar 6 tablespoons cold, unsalted butter cut into small pieces ½ teaspoon pure vanilla extract PREPARATION 1. Preheat the oven to 350°F. Lightly grease a 9x13-inch baking pan. In a medium bowl, whisk together the flour, baking soda, and salt. 2. In a separate bowl, beat together the canola oil, maple syrup, maple sugar, and white sugar until well blended. (If you have one, use a stand mixer fitted with a paddle attachment on medium speed.) Add the egg in a slow stream. Mix in the flour mixture in thirds, blending after each addition. (Use low speed in stand mixer.) 3. Press dough evenly into prepared pan. Bake 20-25 minutes until the blondies are golden brown and starting to crack on the top like brownies. Remove the pan to a cooling rack and cool for about 30 minutes before frosting. It should be warm to the touch, not hot. 4. The frosting: While the blondies are baking, bring the maple syrup to a simmer in a medium, heavy-bottomed saucepan over medium-high heat. -
Can United States Sugar Maple (Acer Saccharum) Syrup Production Be Maintained in a Warming Climate? Stephen N
INTERNATIONAL JOURNAL OF BIODIVERSITY SCIENCE, ECOSYSTEM SERVICES & MANAGEMENT, 2017 VOL. 13, NO. 2, 40–52 http://dx.doi.org/10.1080/21513732.2017.1285815 Special Issue: Ecosystem Services Nexus Thinking Managing for delicious ecosystem service under climate change: can United States sugar maple (Acer saccharum) syrup production be maintained in a warming climate? Stephen N. Matthewsa,b and Louis R. Iverson b aSchool of Environment and Natural Resources, Ohio State University, Columbus, OH, USA; bNorthern Research Station, USDA Forest Service, Delaware, OH, USA ABSTRACT ARTICLE HISTORY Sugar maple (Acer saccharum) is a highly valued tree in United States (US) and Canada, and Received 9 June 2016 its sap when collected from taps and concentrated, makes a delicious syrup. Understanding Accepted 18 December 2016 how this resource may be impacted by climate change and other threats is essential to EDITED BY continue management for maple syrup into the future. Here, we evaluate the current Christine Fürst distribution of maple syrup production across twenty-three states within the US and estimate the current potential sugar maple resource based on tree inventory data. We KEYWORDS model and project the potential habitat responses of sugar maple using a species distribu- Maple syrup; climate tion model with climate change under two future General Circulation Models (GCM) and change; sugar maple (Acer saccharum emission scenarios and three time periods (2040, 2070, 2100). Our results show that under ); ecosystem services; Eastern United GFDL-A1Fi (high CO2 emissions), sugar maple habitat is projected to decline (mean ratio of States future habitat to current habitat per state = 0.46, sd ± 0.33), which could lead to reduced maple syrup production per tree and nearly 5 million additional taps required to maintain current projection levels. -
Determination of Glucose, F R U C T O S E, and Sucrose in Maple Syrup
ADVERTISING SUPPLEMENT Food and Bevera g e 5 3 THE A P P L I C AT I O N NOTEBOOK — June 2005 Determination of Glucose, F r u c t o s e, and Sucrose in Maple Syrup Randy Benton, M e t rohm-Peak, Inc aple syrup is produced by boiling the sap from va r i o u s Results and Discussion M types of maple trees. Ge n e r a l l y, it is produced in the With the adulteration of maple syrup as a growing concern a sim- No rtheastern United States and Canada in late winter or early ple yet rugged method is needed to determine if syrup has been spring when the sap of the tree is running. Many other pro d u c t s a l t e red. Larger peak area and concentration values are expected in such as maple sugar, maple butter (cream), maple candies, and more s y r up that has been altered. For this study, samples of maple syru p a re also produced using the sap from maple trees. One issue pro- we re diluted, fil t e red, and then injected for analysis. A sample of d u c e r’s face is that of adulteration of the syrup by the addition of u n a l t e red maple syrup was spiked with high-fructose corn syrup to either corn syrup or cane sugar. A small amount of either of the two determine if a change would be seen. -
Brown Sugars Brochure
Add flavour, colour and texture with our range of brown sugars Brown Sugars Our comprehensive range of golden, brown and Muscovado sugars are produced from homegrown beet and the finest quality cane Brown Sugars Applications • Use as a bakery ingredient to add flavour and colour to cakes, biscuits and pastries • Demerara sugar adds texture to toppings and bases • Ideal for use in the manufacture of confectionery products such as toffee, fudge and caramel • Used in dressings, sauces and marinades: adds a mild to full-bodied extra flavour The Brown Sugar range Production Benefits Product Properties Benefits (Product Code) Ideal for use in both large Soft Light Brown Based on caster sugar – a • A consistently bright, golden colour Sugar consistent particle size, scale, automated production 55658 – 25kg moist, free-flowing, light • Gives a fine crumb texture in processes and craft bakeries golden brown crystal, pre-production and excellent cake delicately flavoured with volume in the finished product • Easy to handle and dose molasses • Fine particle sizes ensure rapid dissolving for syrups, sauces, • Reproducible results caramels and toffees every time: Soft Dark Brown Based on caster sugar – a • Provides molasses and black - consistent particle size Sugar moist, free-flowing, treacle flavour without bitterness 55674 – 25kg consistent particle size, dark golden brown crystal • A dark rich uniform colour - uniform colour Demerara Sugar Dry, golden brown bold • A consistent bright golden colour - controlled moisture content 55688 – 25kg crystals * Enquire for availability Demerara Sugar: adds texture to toppings and bases Brown Cane Sugars Billington’s brown sugars are the finest collection of cane sugars in the world. -
Color and Ash – Is There a Relationship Between Them? Marianne Mckee
Color and Ash – Is there a relationship between them? Marianne McKee, Ronnie Triche and Charley Richard Sugar Processing Research Institute, Inc New Orleans, La 70124 Many questions surround color and ash and a possible relationship between these two components of sugar. Color and ash content of beet and cane sugars including beet, juice, and extract campaign beet sugars as well as raw and refined cane sugars were studied. The appropriate ICUMSA method of determination for color and ash was used for each type of sugar. For beet sugars, ash ranged from 0.003% to 0.015% while color ranged from 20 IU to 57 IU. For the refined cane sugars tested, color ranged from 18 IU to 58 IU while ash ranged from 0.007% to 0.011%. Raw cane sugars ranged from 800 IU to 3335 IU with ash values of 0.173% to 0.317%. These sugars were washed using a high brix white sugar solution to remove the syrup surface layer similar to the affination step in the cane refinery. The samples were dried and then tested for ash and color again after washing. Color and ash removed by washing is believed to be contained in the syrup surface layer surrounding the crystal. These components in the syrup layer are believed to be involved in reactions that promote color increase during storage of sugar. This presentation will show the differences in ash and color in the whole sugar sample as well as in the syrup layer for the various types of sugars studied. INTRODUCTION One of the goals of sugar production is to produce sugar that is low in color and ash whether from sugar beets or sugarcane. -
Cornell Maple Program
Cornell Maple Program 2019 – 2020 ANNUAL REPORT Cornell University Department of Natural Resources Authored by: Stephen Childs, Ailis Clyne, Aaron Wightman and Adam Wild 1 Program Overview Supporting the Maple Products Industry The Cornell Maple Program conducts research and extension with the goal of improving the production and use of maple products. Work toward this objective takes place in three parts: 1) infrastructure upgrades that create and enhance capacity in our two maple facilities 2) applied research on a broad array of topics related to maple production and profitability and, 3) extension programming to share knowledge across the industry. The Cornell Maple Program consists of maple specialists and technical support staff located at two facilities who work with a network of industry allies to deliver educational content. The Arnot Research Sugarbush near Ithaca, NY and the Uihlein Maple Research Forest in Lake Placid, NY include a combined capacity of over 14,000 taps in 350 acres of sugarbush, as well as modern processing equipment and research kitchen space. These two research and production facilities provide opportunities for experiments that account for region-wide variability in sugarbush conditions. Research sugarhouses at Arnot Forest in Van Etten, NY (left) and Uihelin Forest in Lake Placid, NY (right). 2 Program Highlights Sugarbush Management Super Sweet Trees Continuing the legacy of the “super sweet” maple tree project at the Uihlein Research Forest, we are in the middle of a three year project funded by McIntire Stennis federal capacity funds to re-analyze the potential sap sweetness and volume from our “super sweet” maple plantations. -
SPECIFICATION: Arctos Powdered Sugar with Glucose
SPECIFICATION: Arctos Powdered Sugar with Glucose 1. Product description: Finely pulverised white sugar (sucrose) with the addition of an anticaking agent – crystalline glucose dedicated for consumption or food industry 2. Ingredients: White Sugar, Crystalline Glucose 3. Organoleptic properties: Colour : White Taste : Sweet Smell : Sweet without any foreign odour Structure : Loose powder 4. Microbiological properties: Result Method TBC ≤ 200 jtk/ g PN-EN ISO 4833-1:2013-12 Yeast and Moulds ≤ 10 jtk/g PN-ISO 21527-1:2009 Salmonella Negative in 25 g PN-ISO 6579-2003 E.coli Negative 1 g PN-ISO 16649-2:2004 A 5. Physical and chemical properties: Unit of measure Result Sucrose % (m/m) Minimum 98,7 Glucose % (m/m) Maximum 3,0 Solution colour ICUMSA Maximum 45 Humidity % (m/m) Maximum 0,25 Ash % (m/m) Maximum 0,027 The content of reducing % (m/m) Maximum 0,5 substances S02 mg/kg Maximum 6 Ferromagnetic pollutants Not present Heavy metal Maximum 0,2 Arsenic Maximum 0,1 Lead mg/kg Maximum 0,02 Cadmium Maximum 0,01 Mercury Sorting by the size of grains The fraction >300 µm Maximum 0,5 The fraction >200 µm Maximum 2 % The fraction >100 µm Maximum 10 The fraction >50 µm Maximum 30 The fraction 0-50 µm Minimum 70 6. Nutrition values: 1700 kJ Energy : 400 kcal Fat : 0 g of which saturates : 0 g Carbohydrate : 100 g of which sugars : 100 g Protein : 0 g Salt : 0 g 7. Shelf life : 3 years from the production date in unopened packaging. 8. Consumer use : for consumption or food industry 9. -
? a History of Sugar Marketing Through 1974
s- > ? A HISTORY OF SUGAR MARKETING THROUGH 1974 U. S. DEPARTMENT OF AGRICULTURE / ECONOMICS, STATISTICS, AND COOPERATIVES SERVICE AGRICULTURAL ECONOMIC REPORT NO. 382 ABSTRACT The quota system of regulating the production, importation, and marketing of sugar in the United States through 1974 was an outgrowth of Government regulation of the sugar trade dating from colonial times. Similar systems have developed in most other countries, particu- larly those which import sugar. The U.S. Sugar Quota System benefited domestic sugar pro- ducers by providing stable prices at favorable levels. These prices also encouraged the produc- tion and use of substitute sweeteners, particularly high fructose and glucose sirup and crystalline dextrose in various industries. But sugar is still the most widely used sweetener in the United States, although its dominant position is being increasingly threatened. KEYWORDS: Sugar, quota, preference, tariff, refined, raw, sweeteners, corn sweeteners. world trade. PREFACE This report was written in 1975 by Roy A. Ballinger, formerly an agricultural economist in the Economic Research Service. It supersedes A History of Sugar Marketing, AER-197, also by Ballinger, issued in February 1971 and now out of print. On January 1, 1978, three USDA agencies—the Economic Research Service, the Statistical Reporting Service, and the Farmer Cooperative Service—merged into a new organization, the Economics, Statistics, and Cooperatives Service. Washington, DC. 20250 March 1978 CONTENTS Page Summary j¡ Introduction 1 Sugar Before the Discovery of America 1 The Colonial Period in the Americas 2 Sugar from 1783 to 1864 5 Developments in the Latter 19th Century g Changes in U.S. Sugar Trade Following the Spanish-American War and During 1900-15 15 Sugar During World War I 20 Price Fluctuations and Higher Tariffs 23 Sugar Quotas Prior to World War II 32 Sugar During World War II 39 U.S. -
Mmm...Why Do We Love Sugar So Much?
I Sugar by Elizabeth Preston art by Amanda Shepherd Mmm....Why do we love sugar so much? rom chocolate Building Sweet the simple sugars can cookies to crisp, “Sugar” is the name for be found in plants. Fjuicy apples, we many different sweet- Fructose is what makes humans are sweet on tasting molecules. fruits taste sweet, for sugar. And that’s only They’re all made of example. natural. All plants and carbon, hydrogen, and Combining these I need fuel. animals need sugar to oxygen atoms. simple sugars makes live. It’s the fuel that There are three other kinds of sugar. powers our cells. So it’s basic sugar building The most common is not surprising we’re blocks, or “simple sucrose, also called hard-wired to crave the sugars.” These are table sugar. The sugar sweet stuff. called fructose, glucose, your family keeps in and galactose. All of the kitchen for baking, fructose glucose Three simple sugars— galactose fructose, glucose, and galactose—snap together in different ways to form many other kinds of sugar, a little like Legos. H ? ow ar M uc h Sug sucrose lactose art © 2016 by Amanda Shepherd © 2016 by Elizabeth Preston, text 12 a s k I Sugar or in the sugar bowl? in their milk as babies. That’s sucrose. Brown But some people grow sugar, powdered sugar, up to be “lactose intol- and molasses are erant,” which means sucrose too. Most of the their bodies can’t digest sucrose we eat comes this sugar anymore. 3 teaspoons from sugar beets and High-fructose corn natural sugar H sugarcane.