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Sugarcane Burning
LouisianaLouisianaSUGARCANE BURNING Why is the sugarcane industry important to Louisiana? Of the domestic sugar industries, Louisiana has the oldest and most historic. Sugarcane arrived in Louisiana with the Jesuit priests in 1751 and, in 1795, Etienne deBore granulated sugar on a commercial scale at Audubon Park in New Orleans. The Louisi- ana sugarcane industry is in its third century of existence, having celebrated its 200th year of continuous sugar production in 1995. Sugarcane is produced on more than 450,000 acres of land in 25 of the 64 Louisiana parishes. In 1999, total production of 15,982,000 tons of sugarcane yielded 1,675,000 tons of sugar. Growers averaged 37 tons of sugarcane and 7,800 pounds of sugar per acre, both new state records. The value of this sugar to farmers, factories and landlords exceeded $740 million, al- though the direct economic value generated from the What are the benefits of burning crop exceeded $2 billion. Sugarcane ranks first in the sugarcane? state among plant commodities, which also include rice, soybeans, corn and cotton. Louisiana produces The benefits of burning sugarcane are: about 16 percent of the total sugar grown in the United States (includes both sugar from sugar beet and sugar- An overall lower cost of production that benefits cane). Approximately 32,000 people are employed in farmers and consumers the production of sugar in Louisiana on 690 farms and Allows more efficient harvesting of sugarcane in 18 factories. in the field Reduces the number of hauling units on the Why do farmers burn sugarcane in the highways delivering sugarcane to the factory first place? for processing, thus reducing wear and tear on public roads Decreases the volume of material to be processed Farmers burn sugarcane to reduce the amount of leafy by the factories extraneous material, including stalk tops, delivered Shortens the harvest season by as much as 10 with the cane to the factories for processing. -
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. -
Where Does Sugar Come From?
Where does sugar come from? This is Joe and Jana. They’re here to tell you all about the journey of the jellybean. Sugar, which is the main ingredient in jellybeans, is produced in more than 100 countries around the world. In Australia, sugar is made from a tall tropical grass called sugarcane. Joe grows sugarcane so he knows all about it. What is sugarcane? Where is sugarcane grown? Why is sugarcane important for Australia? Sugarcane is a tall tropical plant In Australia, sugarcane can be seen that is similar to bamboo. To growing along 2,100 kilometers Sugarcane is one of Australia’s most grow successfully, sugarcane of coastline between Mossman in important rural industries, worth needs strong sunlight, fertile far north Queensland and Grafton around $1.5 - $2.5 billion to the soil and lots of water. It needs in northern New South Wales. Australian economy. Approximately 70% of the world’s sugar is produced at least 1.5 m of rainfall each Sugarcane growers manage from sugarcane; the remaining year or access to irrigation. some unique and spectacular 30% is made from sugarbeet. vegetation, animal life and Sugar is made in the leaves of the waterways. Many cane growers Cane growing and sugar production sugarcane plant through a natural live close to rainforests and the has been around for over a process called photosynthesis. Great Barrier Reef. Because of their hundred years in Australia. The Photosynthesis occurs when a proximity, many cane growing sugarcane industry has helped plant, using energy from the sun, families spend their weekends build many coastal towns and transforms carbon dioxide (CO2) and outdoors swimming and fishing. -
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. -
Replacing Table Sugar with Maple Sugar by STEPHEN CHILDS
Cornell Maple Bulletin 205 (2007) Replacing Table Sugar with Maple Sugar by STEPHEN CHILDS Balancing Balancing ingredients Ingredients Replacing granulated cane or beet sugar in recipes with maple syrup should be a growing trend. Guidelines about sugar replacement are different in different sources. It is easy to understand this confusing situation when you realize there are actually two ingredients that need to be balanced. When replacing granulated sugar in a recipe with maple syrup you should consider both the sugar balance and the liquid balance of the recipe. Some recommendations say to add 1 ! cup of syrup to replace one cup of sugar, others say to replace one cup of sugar with " cup of maple syrup. One is trying to balance the liquid in the recipe, the other the sweetness. The most straightforward approach is to simply replace one cup of granulated cane sugar with one cup of granulated maple sugar. In this case you gain the extra flavors from maple while the sweetness and the liquid stay in balance. I would especially suggest this where the recipe is depending on the qualities of milk or another liquid that you may be reducing to perform some important function in the recipe beyond what simply using water would accomplish. Liquid vs. Dry Liquid vs. Dry One cup of maple syrup at a fairly common density of 67º Brix provides 7.5 ounces (214 grams) of sugar and 3.7 ounces (105 grams) of water. One cup of cane sugar averages about 7.4 ounces (210 grams) of sugar. This is roughly the same amount sugar in a cup of maple syrup as in a cup of granulated sugar. -
Crop Profile for Sugarcane in Florida
Crop Profile for Sugarcane in Florida Prepared: May 2008 Production Facts • In 2006, Florida ranked 1st nationally in value of sugar produced (approximately $425 million) from sugarcane, which accounted for 50 percent of the total U.S. value of sugar from sugarcane. This equates to over 20 percent of total sugar (from sugar beet + sugarcane) produced in the U.S. annually (1,2). • The southeast and Hawaii are the only areas in the U.S. where sugarcane is commercially planted. Approximately 400,000 acres of sugarcane are harvested in Florida annually, producing approximately 1.5 million tons of sugar (1,2). • Sugarcane is Florida’s most valuable field crop, worth more than the combined value of the Florida-grown corn, soybean, tobacco, and peanut crops. The crop ranks third in Florida’s agricultural economy, behind the greenhouse/nursery and citrus industries (2). • All Florida sugarcane travels to one of the five mills that operate in southern Florida. The corporate growers comprise about two-thirds of the cane, while cooperative mills comprise the remainder. The raw sugar travels by road, rail, or ship to refineries or it is marketed in its raw state (2). Production Regions Sugarcane is adapted to all portions of Florida. However, the commercial sugarcane industry is located in south Florida around the southern tip of Lake Okeechobee. The vast majority (70 percent of the acreage and 75 percent of the tonnage) of sugarcane is produced in Palm Beach County. The remainder is grown in the adjacent counties of Hendry, Glades, and Martin (2). While most sugarcane is grown on muck soils, approximately 20 percent is grown on sandy mineral soils (3). -
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. -
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. -
Effect of Sugarcane Juice Pre-Treatment on the Quality and Crystallization of Sugarcane Syrup (Treacle)
cess Pro ing d & o o T F e c f h o n l o a l n o Journal of Food Processing & r g u y o J ISSN: 2157-7110 Technology Research Article Effect of Sugarcane Juice Pre-Treatment on the Quality and Crystallization of Sugarcane Syrup (Treacle) Waled M. Abdel-Aleem* Central Laboratory of Organic Agriculture, Agricultural Research Centre, Minia, Egypt ABSTRACT Treacle (black honey) is liquid syrup produced by heating and evaporation of sugarcane juice. It is rich in sugars including, sucrose, glucose, and fructose, which may crystallize during storage, especially at low temperatures. The crystallization of treacle was the main problem facing treacle producers in the Egyptian traditional food industry and affected negatively in the quality and consumer acceptability. Consequently, the aimed to investigate the effect of sugarcane juice pre-treatments, including the addition of citric acid at concentrations of (1, 2, and 3) g/l alone or in a combination with preheating at (60 or 70)°C for 1 h on physiochemical properties and crystallization of sugarcane syrup during storage for 60 days at room temperature. The results showed that these pre-treatments significantly affected the quality and properties of sugar cane syrup. The combination of the citric acid addition at a concentration of 1 g/l and preheat treatment at 70°C for 1 h resulted in syrup with the greatest overall acceptability. Also, these pre- treatments prevented the crystallization of the produced syrup during the storage for 60 days at room temperature (20 ± 5)°C. Therefore, pre-treatment of the sugar cane syrup with a combination of the citric acid addition and heating can be suggested as a promising method for producing a high-quality sugar can syrup and preventing syrup crystallization during storage and handling. -
The Sugar Maple Acer Saccharum
The Sugar Maple Acer Saccharum Cris Soliman & Hanna Barnes OEB59-- Plants and Human Affairs Botanical information The sugar maple is one of 148 maple species found in North America, of which 90 are native. The sugar maple is notable for the following 1 characteristics : ● Mature trees range in height from 70-90 feet, with an average diameter of 2-3 feet. ● Leaves are simple and single, with five lobes. The boundaries between the lobes are smooth and shallow (1a), helping to distinguish it from the red maple. ● Leaves and buds are in an opposite arrangement (1d). ● Terminal buds are typically larger than lateral buds (1d). ● Twigs are covered in lenticels-- small openings in the bark. ● Mature bark appears to have ‘plates’ that peel along the long edge. ● Monoecious-- female and male flowers on the same plant (1b, c). ● Fruit is a double samara (1e), meaning it has a characteristic winged shape. ● Massive quantities of fruits are produced cyclically, usually every two to five years, after the tree matures at age thirty. ● Small pores that are uniformly spaced (diffuse-porous). Distribution: ● From Nova Scotia and Quebec in the northeast, west to Minnesota and south to Tennessee. 1. Luzadis, V.A. & Gossett, E.R. (1996). Sugar Maple. In J.P. Lassoie, V.A. Luzadis, and D.W. Grover (Eds.), Forest Trees of the Northeast (157-166). Ithaca, NY: Cornell Cooperative Extension. What is sugar maple sap?3 ● The maple sap is the vehicle which transports nutrients Sugar Maple Products through the xylem. ● Sap is a solution of sugar-- mostly sucrose-- in water. -
Sugar Cane Honey Is As Effective As Weekly Iron Supplementation to Prevent and Treat Anemia in Preschoolers
International Journal of Health Sciences December 2020, Vol. 8, No. 4, pp. 45-53 ISSN: 2372-5060 (Print), 2372-5079 (Online) Copyright © The Author(s). All Rights Reserved. Published by American Research Institute for Policy Development DOI: 10.15640/ijhs.v8n4a6 URL: https://doi.org/10.15640/ijhs.v8n4a6 Sugar Cane Honey is as Effective as Weekly Iron Supplementation to Prevent and Treat Anemia in Preschoolers Cecília Costa Arcanjo1; Francisco Plácido Nogueira Arcanjo, PhD1; Alice Aguiar Teixeira1; Yandra Maria Gomes Ponte1; Glício Arruda Brito1; Ticianne Pinto Ferreira1; Wilcare de Medeiros Cordeiro Nascimento, MSc1; Paulo Roberto Santos, PhD1. Abstract Objective: To compare the effect of sugar cane honey, ferrous sulfate oral solution and control on hemoglobin concentrations, and anemia prevalence in preschoolers. Methods: In a cluster-randomized clinical trial, we evaluated preschoolers aged 24-36 months. Intervention lasted 16 weeks. Children were cluster randomized to either sugar cane honey once daily (group A), 6mg/kg elemental iron once weekly (group B), or control (Group C). Primary outcome variables were change in hemoglobin concentration and anemia prevalence. Two biochemical evaluations were performed before and after intervention to determine hemoglobin concentrations. Results: Group A: at baseline mean hemoglobin concentration was 11.10±1.29g/dL and 11.60±0.72g/dL after intervention, p=.002; 12 out of 21 participants who were anemic at baseline had normal Hb levels after intervention. Relative risk (RR)=0.63, number needed to treat (NNT)=2. In group B, mean baseline hemoglobin was 11.19±1.42g/dL, and 12.04±0.96g/dL after intervention, p=.0003; 16 out of 20 participants who were anemic at baseline had normal Hb levels after intervention.