Starch Manufacturing: a Profile
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Potato Wastewater Treatment
6 Potato Wastewater Treatment Yung-Tse Hung and Howard H. Lo Cleveland State University, Cleveland, Ohio, U.S.A. Adel Awad and Hana Salman Tishreen University, Lattakia, Syria 6.1 INTRODUCTION In the past two decades, the potato industry has experienced rapid growth worldwide, accom- panied by a staggering increase in the amount of water produced. It is estimated that the US potato industry alone generates about 1.3 Â 109 kg of wastes each year [1]. Large volumes of wastewater and organic wastes are generated in potato processing as result of the water used in washing, peeling, and additional processing operations. The potato industry is well known for the vast quantities of organic wastes it generates. Treatment of industrial effluents to remove organic materials, however, often changes many other harmful waste characteristics. Proper treatment of potato processing wastewaters is neces- sary to minimize their undesirable impact on the environment. Currently, there is an increasing demand for quality improvement of water resources in parallel with the demand for better finished products. These requirements have obliged the potato industry to develop methods for providing effective removal of settleable and dissolved solids from potato processing wastewater, in order to meet national water quality limits. In addition, improvement and research have been devoted to the reduction of wastes and utilization of recovered wastes as byproducts. This chapter discusses (a) the various potato processing types and steps including their sources of wastewaters; (b) characteristics of these wastewaters; (c) treatment methods in detail with relevant case studies and some design examples; and (d) byproduct usage. -
Identification of Valuable Corn Quality Traits for Starch Production
Identification of Valuable Corn Quality Traits for Starch Production By: Lawrence A. Johnson Center for Crops Utilization Research Food Science and Human Nutrition C. Phillip Baumel Economics Connie L. Hardy Center for Crops Utilization Research Pamela J. White Food Science and Human Nutrition A project of the Iowa Grain Quality Initiative Traits Task Team Funded by the Iowa Corn Promotion Board 306 West Towers 1200 35th St. West Des Moines, IA 50266 October 1999 Center for Crops Utilization Research Iowa Agriculture & Home Economics Experiment Station Iowa State University, Ames, IA 2 Acknowledgment This report is intended to provoke discussion and debate that will lead to a vision among researchers in public institutions, seed companies, and the starch processing and food industries for modifying corn traits for starch (and other complex carbohydrates) production to enhance utilization and profitability of growing corn. The report attempts to provide direction to farmer organizations and to the corn industry about potential targets for investing research funds. One should recognize that some of the modifications considered required speculation about functional properties and potential applications. Additional research on the relationship between the structures of starch and other complex carbohydrates and functionality in food and industrial applications may refute some of that speculation. Also, this document is a consensus report taking into account the recommendations and reviews of the consultants and advisors identified below. Dr. Jay-lin Jane, Food Science and Human Nutrition, Iowa State University, Ames, IA Dr. Morton W. Rutenberg, Emmar Consultants, North Plainfield, NJ Dr. Henry Zobel, ABCV Starch, Darien, IL Dr. Robert Friedman, Cerestar USA, Inc., Hammond, IN Dr. -
Full Pleasure with No Added Sugars with Sandwich Cookie
No added sugars sandwich cookie BAKING SOLUTIONS full pleasure with no added sugars N S O R A GA DDED SU GREAT TASTE EXPERIENCE NICE BITE Only for reference, a real product could be seen different. product a real Only for reference, No added sugars sandwich cookie full pleasure with no added sugars BAKING SOLUTIONS KEY FACTS THE RECIPE (NO ADDED SUGARS SANDWICH BISCUIT) SweetPearl® LIST OF INGREDIENTS (Detailed recipe: LBAKCOO015) The sugar-like solution that helps you combine nutrition with indulgence. BISCUIT: FILLING: • Flour • SweetPearl® P130 • A sweet bulk sweetner produced • SweetPearl® P90 • Vegetable fat from maize or wheat • Vegetable fat • Whole milk powder •Easy to use • Water • Soy lecithin • LYCASIN® 75/75 • Flavor • Kosher & Halal certified • Skimmed milk powder Baking powder •Non GMO • • Salt • Soy lecithin SweetPearl® KEY BENEFITS FOR SANDWICH COOKIE Nutritional • Sugars-free and low calorie value: 2.4 kcal/g • Low Glycaemic response (GR: 29) • Good digestive tolerance Functional • Best sugar replacer • Good functionality: behaves like sugar : melts during cooking and recrystallizes • Ease of use: 1 to 1 susbtitution • Range of particle sizes adapted to all the applications Sensory • Sweet taste : sweetening index: 80% sucrose • Taste profile similar to the one of sucrose (no aftertaste) SUGGESTED CLAIMS* NUTRITION FACTS (EUROPE) SERVING SIZE: 23g of sandwich cookie (control) Calories Protein Carb 14.8g Fiber Fat • With no added sugar 112kcal 1.5g of which sugars: 7.6g 0.4g 5.1g (contains naturally occuring sugars) * Information based on EU regulations. SERVING SIZE: 23g of no added sugars sandwich cookie (2 biscuits) Subject to applicable local laws and regulations. -
Water Minimization in the Tapioca Starch Production Industry: a Decision Support System
The 3rd Conference on Starch Technology O-STARCH-03 Water Minimization in the Tapioca Starch Production Industry: A Decision Support System Natthakan Rungraeng1, Kanchana Saengchan1, Annop Nopharatana2 and Warinthorn Songkasiri3 1Department of Food Engineering, Faculty of Engineering, Food Engineering Practice School, King Mongkut’s University of Technology Thonburi, Ratchburana, Bangkok 10140, Thailand 2Pilot Plant Development and Training Institute (PDTI), King Mongkut’s University of Technology Thonburi, Bangkhuntien, Bangkok 10150, Thailand 3Biochemical Engineering and Pilot Plant Research and Development Unit (BEC), National Center for Genetic Engineering and Biotechnology (BIOTEC), 83 Moo 8 Thakham, Bangkhuntien, Bangkok, 10150, Thailand Abstract A typical tapioca starch manufacturing process consumes freshwater approximately 10 to 30 m3 per ton of starch produced. The amount of water consumption can be reduced considerably by the recycle of wastewater. This research utilizes a water pinch technology as a tool to minimize water consumption in the starch production process. The water pinch decision support system, called the W-Pinch program, was generated by the Starch Engineering and Process Optimization (SEPO) Program, King Mongkut’s University of Technology Thonburi (KMUTT). The W-Pinch modelling system includes 7 composition balances of water, starch, protein, pulp, sand, peel, and sulfur. Water composition is correlated to freshwater and wastewater calculations and the moisture content of the product. Starch and pulp compositions demonstrate the extractor efficiency. Peel, sand, protein, and sulfur compositions are the control parameters to monitor and control the final product quality after applying the water recycling patterns. Each composition stream was balanced for each unit in the starch production process, i.e., root receiver, washer/cutter, rasper/grinder, coarse extractor, fine extractor, separator I, separator II, separator III, centrifugal dewater unit, and flash dryer. -
Wheat - a Challenging Substrate for Starch Production
ŻYWNOŚĆ 2(23) Supl., 2000 W. BERGTHALLER, H.-J. KERSTING WHEAT - A CHALLENGING SUBSTRATE FOR STARCH PRODUCTION Abstract In contrast to the world-wide given situation for maize as the main substrate in starch isolation, wheat gains an advantageous position in the European starch industry although technical starch yield cannot compete fully material prices. Its remarkable position profits also from wheat gluten as valuable by product. Further indication for rising preference can be seen in the installation of new processing capaci ties in Europe. However, the economic situation of wheat starch production follows unavoidable fluctua tions of wheat gluten markets. Political decisions play an important role, too. The challenging situation connected with wheat as substrate for starch extraction is result of develop ments in equipment and remodelling of technology. The most important contribution consisted in an obvious shift of the relation of water to flour used for flour/water mixture preparation, starch and gluten extraction, and refining. This was initialised mainly by the introduction of separation techniques using centrifugal principles. With respect to limited availability of water and increasing costs for waste water treatment reduction of water supply is a steady target. In close connection to developments in separation technology wheat and wheat flour should gain ex tended attraction. Published standards are limited and reveal at most characteristics oriented to the, Martin process. With respect to recent developments in technology, alternative testing procedures have been proposed. Results demonstrate the suitability and specificity of the „Mixer method", a procedure adapted to flour/water relations in centrifugal separation. But, the time consuming procedure restricts general application. -
Europe's High Technology Harvest
Ref. Ares(2014)78162 - 15/01/2014 THE COMPETITIVENESS OF THE STARCH INDUSTRY AAF Association des Amidonniers et Féculiers The European Starch Industry Association 15-16 November 2007 1 I. The European Starch Industry II. Issues impacting our competitiveness III. Future outlook for the industry 2 I. The European Starch Industry 3 Membership 24 companies - 6 associate members • Agrana Stärke • Remy Industries • AKV Langholt • Roquette Frères • Altia Corporation • Skrobarny Pelhrimov • Avebe Group • Südstärke • Cargill • Sveriges Stärkelseproducenter Förening - • Chamtor Lyckeby Stärkelsen • Copam • Syral • Crespel & Deiters • Tate & Lyle • Emsland Stärke • Wielkopolskie Przedsiebiorstwo • Finnamyl Przemyslu Ziemniaczanego (WPPZ) • Finnsugar Associate Members • Hermann Kröner • BSIA • Hungrana • Fachverband der Stärke-Industrie • Jäckering • Finnish Starch Manufacturers Association • Kartoffelmelcentralen (KMC) • Humaiz • National Starch & Chemical • USIPA Potato starch producers • VNFG 4 AAF Members location AAF Members are located in 20 out of the 27 European countries. 5 Industry data • In 2006, the AAF members used : → Approx. 14.2 Mio tons of cereals → Approx. 7.9 Mio tons of starch potatoes ⇒ to produce 9.6 Mio tons of hunderds of different starch products, derivatives and a range of co-products. • The starch industry processes almost exclusively EU raw materials. 6 Industry data • Total number of production sites in EU 27: 77 • Total number of Direct Employees: ~ 15.500 • Total turnover (sales) in EUROS for the year 2007: ~ 7.5 bn € • Average investments from 2005 to 2007 included: ~ 1.2 bn € • Average investments per year in Research and Development from 2005 to 2007 included: ~ 100 Mio € 7 The European starch industry : an essential role in the food chain We are a main supplier of the food and drink industry which is the largest EU manufacturing sector and the largest employer. -
Physicochemical and Functional Properties of Wheat Starch in Various Foods
SPECIAL SECTION: Molecular Diversity and Health Benefits of Carbohydrates from Cereals and Pulses Understanding the Physicochemical and Functional Properties of Wheat Starch in Various Foods Clodualdo C. Maningat1 and Paul A. Seib2,3 ABSTRACT Cereal Chem. 87(4):305–314 This report highlights the structure and myriad properties of wheat eating quality, and texture of pasta and noodles, and its role is more than a starch in various food systems. Granule shape, size, and color, plus the filler in yeast-leavened bread products. Recent developments in the prop- proportion of A- and B-granules, amylose content, and molecular struc- erties and applications of commercially important wheat pyrodextrins and ture largely determine its functionality in food. The role of wheat starch is RS4-type resistant wheat starches are reported, along with their use to portrayed in three categories of flour-based foods that differ in water produce fiber-fortified foods. Gluten-free foods are also discussed. content. Wheat starch influences the appearance, cooking characteristics, Wheat (Triticum aestivum L.) is unique because of the proper- synthase I. Other embedded proteins with enzyme activities are ties of two principal macromolecular components, protein (gluten) soluble starch synthase, starch branching enzyme, and two poly- and starch. Wheat gluten is responsible for the dough-forming peptides that may have starch synthase activities (Rahman et al ability of wheat flour to make bread, which is unmatched by any 1995; Gao and Chibbar 2000). other proteins of plant, animal, or microbial origin (Gianibelli et The lipids consist of 0.7–1.4% that is interior-bound (Morrison al 2001; Wrigley et al 2006). -
Starch and Starch Sugar Wastewater Treatment Technology Scheme and Operation Monitoring
id27306828 pdfMachine by Broadgun Software - a great PDF writer! - a great PDF creator! - http://www.pdfmachine.com http://www.broadgun.com [Type text] ISSN : [0T9y7p4e -t e7x4t3] 5 Volume 1[0T Iyspseu ete 1x9t] BioTechnology 2014 An Indian Journal FULL PAPER BTAIJ, 10(19), 2014 [11286-11290] Starch and starch sugar wastewater treatment technology scheme and operation monitoring Chen Yong1*, Liu Shuaixia1, Xin Yinping2 1Henan Institute of Engineering,No.1 Xianhe Road, Longhu Xinzheng, Zhengzhou, Henan Province, 45119, (CHINA) 2Henan Zhengda environmental technology consulting engineering company limited, Wenhua Road No. 56, Zhengzhou City, Henan Province,450002, (CHINA) E-mail : [email protected] ABSTRACT This paper mainly through wastewater renovation project of a program of starch and starch sugar production enterprises and its actual operating results, the analysis of various treatment structures combined operation of the treatment plant treatment effect, the purpose is to understand the characteristics of each treatment structures in starch and starch sugar wastewater treatment process, for the follow-up design or improvement of starch and starch sugar the wastewater treatment technology has certain reference significance. KEYWORDS Starch and starch sugar; Wastewater treatment renovation; Monitoring results. © Trade Science Inc. BTAIJ, 10(19) 2014 Chen Yong 11287 INTRODUCTION Starch is polyhydroxylated natural high molecular compound, widely exists in plant roots, stems and fruits, food, medicine, chemical, papermaking, textile and other industrial sectors of the main raw material. The main raw material crop starch production is the corn, potato and wheat. Produce a lot of high concentrations of acidic organic wastewater in starch processing process, its content with the production fluctuation and change from time to time, which is mainly soluble starch and a small amount of protein, no general toxicity. -
Product Data Sheet Sheet Data Product E
BAKA-SNAK® E Description: Pregelatinized, chemically modified food starch refined from waxy maize Appearance: Fine white/creamy powder Label declaration recommendation: Modified Starch Please note the botanical origin of starch only needs to be declared if starch contains gluten. EU Classification: Food Additive E1422 (Complies with Regulation (EC) 1333/2008) Packaging: 25 kg Multiply Paper Sack Bag labelling includes batch code and unique bag number, label declaration and best before date. SNAK® E SNAK® - Delivery Format: 40 bags per pallet, stretch wrapped with bottom sheet. Pallet types include: Wood and plastic, both 1200 x 1000 mm and Euro 1200 x 800 mm Unit pallet weight: 1000 kg. Other pack sizes, big bags and bulk, may be available. Storage and Handling: Store in a clean, dry, well-ventilated warehouse at ambient temperature and humidity, away from odorous materials. BAKA Shelf Life: 24 months from date of manufacture if stored correctly. Best before dates printed on each bag. Safety Data: While not regarded as "Hazardous", food starches are fine organic powders and, as such, they can give rise to a nuisance dust which has the potential to cause a dust explosion. This product has been produced in accordance with all relevant EU legislation and in compliance with the required EU standards for food safety and hygiene. See Safety Data Sheet. SUPPLY SPECIFICATION (PHYSICAL & CHEMICAL DATA) Min Max Unit Method Moisture - 10.0 % max packed. CML116: 4 hrs, 130°C pH 4.5 7.0 - CML100A: 20% aqueous suspension MVA Viscosity Peak 1200 2300 MVU CML-M404B MVA Viscosity Peak - 25 min Drop 10 1200 MVU CML-M404B SUPPLY SPECIFICATION (MICROBIOLOGICAL DATA) International Committee for Microbiological Standards for Food (ICMSF) methodology m M n c Unit Method TVC 1000 10000 5 3 per g TP4100/CML261 Yeast 50 200 5 3 per g TP4109/CML286Y Mould 50 200 5 3 per g TP4109/CML268M Product data sheet data sheet Product E. -
Aspects of Agricultural Use of Potato Starch Waste Water
Reprint Neth. J. agric. Sei. 21(1973): 85-94 Aspects of agricultural use of potato starch waste water F. A. M. de Haan1, G. J. Hoogeveen2 and F. Riem Vis3 1 Laboratory of Soils and Fertilizers, Agricultural University, and Institute for Land and / Water Management Research, Wageningen, the Netherlands 2 Government Service for Land and Water Use, Utrecht, the Netherlands 3 Institute for Soil Fertility, Haren, the Netherlands Accepted: 24 January 1973 Summary Agricultural industries in the northeastern part of the Netherlands, with the potato starch industry as the most important one, produce a very large amount of waste water. Research work is now performed on possible solutions to the environmental problems resulting from discharge of this water on open canals. Land disposal offers such a possibility. Since the waste water contains the natural components of potatoes only it can be considered as a relatively innocent type of industrial waste water. Moreover, the main constituents are also the major elements for plant nutrition thus rendering an opportunity to recycle these components. Evaluation ofwast ewate r utilization for agricultural purposesmus t bebase d on a number of criteria of whichth emos t important onesare :purificatio n byth esoi lsystem , fertilization of agricultural crops, and economic effects for the farmer whose land is used for this kind of waste water treatment. In the economic evaluation with respect to other proposed solutions, cost of application is also to be taken into account. This article is confined to the three first-mentioned criteria. Experimental results and model calculations indicate that with mean yearly application rates in the range of 50 to 100 mm the relevant requirements can be met at a farmers profit of about 100 guilders per ha. -
Analysis of Caloric and Noncaloric Sweeteners Present in Dairy Products Aimed at the School Market and Their Possible Effects on Health
nutrients Review Analysis of Caloric and Noncaloric Sweeteners Present in Dairy Products Aimed at the School Market and Their Possible Effects on Health Laura S. Briones-Avila †, Mara A. Moranchel-Hernández †, Daniela Moreno-Riolobos †, Taísa S. Silva Pereira , Ana E. Ortega Regules, Karen Villaseñor López and Laura M. Islas Romero * Health Sciences Department, Universidad de las Américas Puebla, UDLAP, Ex-Hacienda Santa Catarina Mártir S/N, San Andrés Cholula 72810, Mexico; [email protected] (L.S.B.-A.); [email protected] (M.A.M.-H.); [email protected] (D.M.-R.); [email protected] (T.S.S.P.); [email protected] (A.E.O.R.); [email protected] (K.V.L.) * Correspondence: [email protected] † These authors contributed equally to this work. Abstract: Over the past decades, Mexico has become one of the main sweetener-consuming countries in the world. Large amounts of these sweeteners are in dairy products aimed at the children’s market in various presentations such as yogurt, flavored milk, flan, and cheeses. Although numerous studies have shown the impact of sweeteners in adults, the current evidence for children is insufficient and Citation: Briones-Avila, L.S.; discordant to determine if these substances have any risk or benefit on their well-being. Therefore, Moranchel-Hernández, M.A.; Moreno-Riolobos, D.; Silva Pereira, this study aimed to describe the sweeteners present in 15 dairy products belonging to the school-age T.S.; Ortega Regules, A.E.; Villaseñor children’s market in Mexico and their impact on health. These dairy products were selected through López, K.; Islas Romero, L.M. -
Method of Papermaking Using Modified Cationic Starch
~™ mi mi ii in in mill i ii i ii (19) J European Patent Office Office europeen des brevets (11) EP 0 833 007 A1 (12) EUROPEAN PATENT APPLICATION (43) Date of publication: (51) int. CI.6: D21H 23/04 01.04.1998 Bulletin 1998/14 //(D21H21/10 17'29) (21) Application number: 97112284.1 (22) Date of filing : 1 7.07.1 997 (84) Designated Contracting States: • Maliczyszyn, Walter AT BE CH DE DK ES Fl FR GB GR IE IT LI LU MC Somerville, New Jersey 08876 (US) NL PT SE • Capitani, Teresa Designated Extension States: Clark, New Jersey 07066 (US) ALLTLVROSI • Kulp, Christopher L. Palmer, Pennsylvania 18045 (US) (30) Priority: 27.09.1996 US 722785 (74) Representative: (71) Applicant: Hagemann, Heinrich, Dr.rer.nat., Dipl.-Chem. et National Starch and Chemical Investment al Holding Corporation Patentanwalte Wilmington, Delaware 19809 (US) Hagemann, Braun & Held, Postfach 86 03 29 (72) Inventors: 81630 Munchen (DE) • Tsai, John Belle Mead, New Jersey 08502 (US) (54) Method of papermaking using modified cationic starch (57) The method of making paper wherein the use of a selected ether or ester modified, cationic starch as an additive in the papermaking wet end provides signif- icantly improves retention and drainage properties par- ticularly in alkaline microparticle containing systems. < o o CO CO CO o Q_ LU Printed by Xerox (UK) Business Services 2.15.12/3.4 EP 0 833 007 A1 Description This invention relates to an improved method of papermaking in an acid or alkaline system using a selected modi- fied cationic starch as a wet end additive to provide improved retention of filler and fines and drainage.