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Hydrophobic Guar Gum Derivatives Prepared by Controlled Grafting
Louisiana State University LSU Digital Commons LSU Doctoral Dissertations Graduate School 2005 Hydrophobic guar gum derivatives prepared by controlled grafting processes for hydraulic facturing applications Ahmad Bahamdan Louisiana State University and Agricultural and Mechanical College, [email protected] Follow this and additional works at: https://digitalcommons.lsu.edu/gradschool_dissertations Part of the Chemistry Commons Recommended Citation Bahamdan, Ahmad, "Hydrophobic guar gum derivatives prepared by controlled grafting processes for hydraulic facturing applications" (2005). LSU Doctoral Dissertations. 3384. https://digitalcommons.lsu.edu/gradschool_dissertations/3384 This Dissertation is brought to you for free and open access by the Graduate School at LSU Digital Commons. It has been accepted for inclusion in LSU Doctoral Dissertations by an authorized graduate school editor of LSU Digital Commons. For more information, please [email protected]. HYDROPHOBIC GUAR GUM DERIVATIVES PREPARED BY CONTROLLED GRAFTING PROCESSES FOR HYDRAULIC FRACTURING APPLICATIONS A Dissertation Submitted to the Graduate Faculty of the Louisiana State University and Agricultural and Mechanical College in partial fulfillment of the requirements for the degree of Doctor of Philosophy In The Department of Chemistry by Ahmad Bahamdan B.S., King Fahd University of Petroleum and Minerals, Saudi Arabia, 1989 M.S., University of Arkansas at Little Rock, AR, 1995 August 2005 ACKNOWLEDGEMENTS First of all I would like to express my sincere appreciation to my advisor and mentor, Professor William H. Daly, for his kindness, guidance, and encouragement during the entire course of this work. His encouragement, advices, patience helped me going through the difficulties and crises I met during the path of this work. I would like to thank everyone who has contributed to this work. -
Texturizing Beverages for Stability and Mouthfeel
acidic, and UHT temperatures are HYDROCOLLOIDS IN DRINKS harsh. Protein protection by buffer- ing the pH is crucial. A pH range of 6.7–7.0 is recommended. For retort- processed lattes, switch to HM pectin Texturizing Beverages for for its protein-protective properties. Texturizing High-Protein Stability and Mouthfeel Sports Drinks Gyms have been closed for many months during the pandemic. How- A short guide to hydrocolloid formulation in protein ever, protein-fortified beverages used by bodybuilders remain popular as drinks, lattes, soft drinks, and alcoholic offerings. convenient meal replacements. The diet industry has wisely repositioned by Nesha Zalesny meal replacement shakes as protein- fortified beverages, choosing to ac- centuate the positive (protein con- he beverage industry is a world chocolate milk benefit from the ad- suspend plant-based protein or co- tent and low carb) rather than focus unto itself within the food in- dition of a stabilizer. The hydrocol- coa particles throughout the prod- on the negative (meal replacement dustry. It is highly fragment- loid of choice for both is carrageenan. uct’s shelf life. Gellan gum on its own and diet). These beverages benefit Ted with multiple categories, an in- has an extremely clean mouthfeel from a systems approach. credible number of producers and Stabilizing Cream so many manufacturers are choos- If casein is present, a suspending consumers. Beverages come in a with Carrageenan ing to add a small amount of a ga- hydrocolloid such as carrageenan is wide variety of textures, flavors, and Carrageenan works synergistical- lactomannan, such as locust bean used. High acyl gellan gum is the in- functionalities. -
Article Experimental Comparison of Static Rheological Properties of Non-Newtonian Food Fluids with Dynamic Viscoelasticity
Nihon Reoroji Gakkaishi Vol.46, No.1, 1~12 (Journal of the Society of Rheology, Japan) ©2018 The Society of Rheology, Japan Article Experimental Comparison of Static Rheological Properties of Non-Newtonian Food Fluids with Dynamic Viscoelasticity † Kanichi SUZUKI and Yoshio HAGURA Graduate School of Biosphere Science, Hiroshima University, 1-4-4 Kagamiyama, Higashi-Hiroshima, 739-8528, Japan (Received : July 28, 2017) Correlations between static rheological properties (G: shear modulus, μ: viscosity, μapp: apparent viscosity) of four food fluids (thickening agent solution, yoghurt, tomato puree and mayonnaise) measured employing a newly developed non-rotational concentric cylinder (NRCC) method and dynamic viscoelastic properties (|G*|: complex shear modulus, G′: storage shear modulus, G″: loss shear modulus, |η*|: complex viscosity, tanδ: loss tangent, μapph: apparent viscosity) mea- sured by a conventional apparatus (HAAKE MARS III) were studied. μapp and μapph for each sample fluid agreed well. μapp≒|η*| obeying the Cox–Merz rule was obtained for the thickening agent solution, μapp < |η*| for mayonnaise and μapp << | η*| for tomato puree and yoghurt. μ was lower than μapp or μapph for all samples, and reached μapp with an increasing shear rate. Plotting G and |G*| against the shear rate and angular velocity respectively in the same figure revealed G < |G*| for tomato puree, G≒|G*| for yoghurt and G > |G*| for mayonnaise and thickening agent solution. The applicability of two-element models in analyzing the viscoelastic behavior of sample fluids was investigated by comparing two character- istic times τM = 1/(ωtanδ) and τK = tanδ/ω, corresponding to Maxwell and Kelvin–Voigt models respectively and evaluated from measurements of tanδ, with τ = µ/G and τapp = µapp /Gapp calculated from rheological properties measured by the NRCC method. -
Carrageenans Carrageenans
Carrageenans Carrageenans SOURCE & PROCESSING Carrageenan is a cell-wall hydrocolloid found in certain species of seaweeds belonging to red algae (class: Rhodophyceae). Carrageenans, extracted from seaweeds harvested throughout the world, have established their position within the food, household, and personal- care industries as uniform gelling, thickening, and texturizing agents of high quality. High-productivity sites are the waters off the coasts of Chile, Mexico, Spain, Philippines, and Japan. After harvesting the seaweed, the Carrageenans are extracted and simultaneously upgraded through the use of various cationic alkalis. After extraction and purification, the Carrageenan is either alcohol precipitated or drum dried. Alcohol precipitation is considered the SOURCE best method, since less thermal shock occurs, and the indigenous salts are left behind in the alcohol. All Colony Gums Carrageenans are alcohol precipitated. A cell-wall hydrocolloid extracted from certain species of seaweeds USES belonging to red algae. Dairy Carrageenans are widely used in the dairy industry for their water- binding and -suspending properties. The unique capabilities of Carrageenans to complex with proteins helps prevent wheying off in such products as cottage cheese and yogurt. The gelling properties QUALITIES of Carrageenans are used in cheeses and parfait-style yogurts. Carrageenans are the main component of ice-cream stabilizers. The ability to prevent wheying off and crystallization are Carrageenans’ ~ Uniform Gelling functions with these products. When chocolate milk or milk drinks are bottled, the cocoa or carob particles have a tendency to fall out ~ Thickening of solution. The gel structures that Carrageenans set up help keep ~ Texturizing Agent the cocoa particles in suspension without adding much viscosity. -
Product Specification QUELLI THICKENING AGENT
Product Specification QUELLI THICKENING AGENT/ BOX /2X2,5KG 2.03646.114 1. GENERAL INFORMATION Article number: 2.03646.114 Product denomination: Cold process thickener Product description: Cold process thickener for fruit juice, fruit pulp and water. 2. APPLICATION / DOSAGE Easy-to-cut, freeze- and bake-stable. Mix dry 100 - 120g DAWN Quelli with 200g sugar. Add 1 litre fruit juice. Whisk. Fold in drained fruit. Mix DAWN Quelli with sponge crumb. Scatter onto sponge bases before topping with fruit or cream fillings. Prevents moisture penetration. Roll frozen fruit in DAWN Quelli to prevent seppage of the juice. 3. SENSORY Taste: tasteless Odor: odourless Colour: white Texture: powder 4. INGREDIENT LIST Ingredients Description E-Nr. Source Modified starch Acetylated distarch adipate E1422 Waxy maize 5. NUTRITIONAL VALUES Nutritional data per 100g product Energy KJ 1.624 Energy Kcal 382 Fat total 0,1 g Saturated Fat 0,0 g Carbohydrates total 95,0 g Mono-Disaccharides 0,0 g Protein total 0,4 g Salt 0,7 g Sodium 250,0 mg Fiber 0,0 g 6. MICROBIOLOGICAL PARAMETERS 17.01.2017 - Version of specification: 4.4 - 04 Fi EN St - page 1 von 5 , , , Product Specification QUELLI THICKENING AGENT/ BOX /2X2,5KG 2.03646.114 Microbiological data Maximum Method Coliform bacteria 100/g QC1520 Moulds 1.000/g QC1520 7. PHYSICAL / CHEMICAL PARAMETERS Parameters Minimum Maximum Method Bulk density 500,0 g/l 600,0 g/l QC1521 Water content 7,0 % QC1508 8. PACKAGING / STORAGE CONDITIONS Primary packaging: Compound foil Secondary packaging: cardbox Shelf life: 24 months Storage conditions: 18 - 24°C 9. -
Modifying Food and Liquid 34 How To
CH. 9|9E: MODIFYING FOOD AND LIQUID 9E: MODIFYING FOOD AND LIQUID 34 Some children have difficulty managing certain food textures in their mouths or safely swallowing certain liquids. When a child has a problem eating and drinking, changing the food textures or liquid consistencies offered is one way to make mealtimes safer and easier. Foods and liquids are either naturally a specific texture and consistency or they can be altered by caregivers to become a more well-suited texture or consistency that fits a child’s needs. Foods and liquids can be altered by using tools such as utensils, blenders, other foods and liquids or artificial thickening agents. HOW TO THICKEN FOOD AND LIQUID ① Thickening foods and liquids naturally using ordinary food or liquid thickening agents ② Thickening foods and liquids using artificial thickening agents NATURAL THICKENING AGENTS Foods and liquids that naturally create thickened consistencies when mixed in with other foods and liquids. NATURAL THICKENERS IMPORTANT PRECAUTIONS Dry infant cereal (rice, barley, oatmeal, mixed) – o Not flaked ground or pulverized o Not to be used with breast milk o For children younger than 12 months old Gelatin, guar gum, arrowroot starch, potato starch, tapioca starch, cornstarch, psyllium husk, o For children older than 12 months and who are not at flour, carrageenan (Irish moss) risk for allergies Mix liquids (milk, water, juice) with pureed foods o For children older than 12 months and who are not at to create thickened liquid risk for allergies ARTIFICIAL THICKENING AGENTS Artificial substances that can be used to create thickened consistencies when mixed in foods and liquids. -
GUAR GUM POWDER Guar Gum Is Relatively Cost Effective As
GUAR GUM POWDER Guar Gum is relatively cost effective as compared to other thickeners and stabilizers along with it being an effective binder, plasticizer and emulsifier. One of the important properties of guar gum, a polysaccharide, is that it is high on galactose and mannose. Guar gum is also known as guarkernmehl, guaran, goma guar, gomme guar, gummi guar and galactomannan. Endosperm of guar seeds are used in many sectors of industries like mining, petroleum, textile, food products, feed Products, Pet Food, pharmaceuticals, cosmetics, water treatment, oil & gas well drilling and fracturing, explosives, confectioneries and many more. Since a long time Guar Gum can be also named as a hydrocolloid, is treated as the key product for humans and animals as it has a very high nourishing property. Guar Gum Powder Number 1. HS-Code of Guar Gum Powder: 130.232.30 2. CAS No. of Guar Gum Powder: 9000-30-0 3. EEC No. of Guar Gum Powder: E412 4. BT No. of Guar Gum Powder: 1302.3290 5. EINECS No. of Guar Gum Powder: 232.536.8 6. Imco-Code: Harmless Guar Gum is mainly used as a Natural thickener Emulsifier Stabiliser Bonding agent Hydrocolloid Gelling agent Soil Stabiliser Natural fiber Flocculants Fracturing agent Applications - Guar Gum Powder Guar Gum for Food Industries Guar gum is one of the best thickening additives, emulsifying additives and stabilizing additives. In Food Industry Guar gum is used as gelling, viscosifying, thickening, clouding, and binding agent as well as used for stabilization, emulsification, preservation, water retention, enhancement of water soluble fiber content etc. -
(Guar Gum) Incorporation on the Quality Characteristics of Bread
cess Pro ing d & o o T F e c f h o Rodge et al., J Food Process Technol 2012, 3:2 n l o a l n o DOI: 10.4172/2157-7110.1000136 r Journal of Food g u y o J Processing & Technology ISSN: 2157-7110 Research Article Open Access Effect of Hydrocolloid (guar gum) Incorporation on the Quality Characteristics of Bread Rodge AB1, Sonkamble SM2, Salve RV2* and Syed Imran Hashmi3 1Dept of Food Chemistry and Nutrition, College of Food Technology, M.A.U, Parbhani (MS) India 2Dept of Food Science and Technology, MGM, College of Food Technology, Aurangabad (MS) India 3Dept of Food Trade and Business Management, College of Food Technology, M.A.U, Parbhani (MS) India Abstract Effect of guar gum on the rheological properties of dough, physico-chemical properties of bread, sensory characteristics of finished product and white bread quality was studied. At all levels of incorporation, there were increases water absorption from 61.2 to 64.5%, lowered the dough development time from 6.20 to 5.60 min, increased gluten development, increased dough stability, increased break down time from 37.3 to 40.5 min, higher the mixing tolerance index from 52.2 to 54.6 BTU and increased the elasticity i.e. 72.3 to 74.6 BU of the dough. The external characteristics like color of crust, symmetry, evenness, character of crust and aroma was improved linearly with increased the concentration of guar gum and also internal characteristics like color of crumb, taste and texture was improved. Keywords: Hydrocolloids; Guar gum; Rheology; Sensory quality; starch dispersion heated in the presence of gums. -
Evaluation of Guar Gum As a Novel Adsorbent Philicia Geiser
Air Force Institute of Technology AFIT Scholar Theses and Dissertations Student Graduate Works 3-21-2019 Evaluation of Guar Gum as a Novel Adsorbent Philicia Geiser Follow this and additional works at: https://scholar.afit.edu/etd Part of the Biology and Biomimetic Materials Commons Recommended Citation Geiser, Philicia, "Evaluation of Guar Gum as a Novel Adsorbent" (2019). Theses and Dissertations. 2334. https://scholar.afit.edu/etd/2334 This Thesis is brought to you for free and open access by the Student Graduate Works at AFIT Scholar. It has been accepted for inclusion in Theses and Dissertations by an authorized administrator of AFIT Scholar. For more information, please contact [email protected]. EVALUATION OF GUAR GUM AS A NOVEL ADSORBENT THESIS Philicia Geiser, Captain, USAF AFIT-ENV-MS-19-M-174 DEPARTMENT OF THE AIR FORCE AIR UNIVERSITY AIR FORCE INSTITUTE OF TECHNOLOGY Wright-Patterson Air Force Base, Ohio DISTRIBUTION STATEMENT A. APPROVED FOR PUBLIC RELEASE; DISTRIBUTION UNLIMITED. The views expressed in this thesis are those of the author and do not reflect the official policy or position of the United States Air Force, Department of Defense, or the United States Government. This material is declared a work of the U.S. Government and is not subject to copyright protection in the United States. AFIT-ENV-MS-19-M-174 EVALUATION OF GUAR GUM AS A NOVEL ADSORBENT THESIS Presented to the Faculty Department of Systems Engineering and Management Graduate School of Engineering and Management Air Force Institute of Technology Air University Air Education and Training Command In Partial Fulfillment of the Requirements for the Degree of Master of Science in Environmental Engineering and Science Degree of Master of Science in Industrial Hygiene Philicia Geiser, BS Captain, USAF March 2019 DISTRIBUTION STATEMENT A. -
Evaluation of Egg Replacers in a Yellow Cake System
Emir. J. Food Agric. 2010. 22 (5): xxx-xxx http://ffa.uaeu.ac.ae/ejfa.shtml Evaluation of Egg Replacers in a yellow cake System D. Kohrs1, T. J. Herald3, F.M. Aramouni1, and M. Abughoush2 1Food Science Institute, Dept. of Animal Science and Industry, Kansas State University, Manhattan, KS 66506, USA; 2Clinical Nutrition and Dietetics, The Hashemite University, Zarqa 13133; 3USDA-Grain Marketing and Production Research Center, Manhattan, KS, 66502, USA Abstract: The egg alternatives (replacers) were used to replace egg as a functional ingredient in yellow cake system productions. Egg replacers were substituted at the levels of 50% and 100% of the dried whole eggs in the yellow cake system. The egg replacers were composed of whey protein isolate, wheat starch, guar gum, xanthan gum or their blends. At 50% substitution, treatments performed closer to that of control compared to 100 % substitution. The blends of guar/whey/starch (GPS) and xanthan/whey/starch (XPS) performed the best, having the closest volume and texture measurement compared to the control. A quantitative descriptive analysis (QDA) was performed on blends of GPS and XPS at 100% replacement. Six attributes of cake- crust stickiness, crumb color, springiness, moistness, firmness, and egg flavor--were quantified by a panel. These treatments were competitive to the control across all attributes measured. In the consumer acceptability test, the XPS formulation was significantly higher in acceptability for all attributes to that of the control. These alternatives can deliver functionality at a lower cost and can be incorporated to produce a suitable yellow cake system, especially blends of guar/whey/starch (GPS) and xanthan/whey/starch (XPS). -
Incremental Adjustments to Amount of Thickening Agent in Beverages: Implications for Clinical Practitioners Who Oversee Nutrition Care Involving Thickened Liquids
foods Article Incremental Adjustments to Amount of Thickening Agent in Beverages: Implications for Clinical Practitioners Who Oversee Nutrition Care Involving Thickened Liquids Jane Mertz Garcia 1,* and Edgar Chambers IV 2 1 Communication Sciences & Disorders, School of Family Studies & Human Services, Kansas State University, 1405 Campus Creek Road, Manhattan, KS 66506, USA 2 Center for Sensory Analysis and Consumer Behavior, 1310 Research Park Dr., Manhattan, KS 66502, USA; [email protected] * Correspondence: [email protected]; Tel.: +1-785-532-1493 Received: 3 January 2019; Accepted: 12 February 2019; Published: 14 February 2019 Abstract: This study examined the changes in viscosity in response to small alterations in the amount of a thickening agent mixed with three commonly thickened beverages. A total of 11 incremental adjustments in the amount of a starch-based thickening agent (5.0 g to 7.0 g) were made. The results showed that the incremental increases resulted in systematic changes to the liquid thickness, reflecting modifications that ranged from a nectar (mildly thick) to a honey-like (moderately thick) level of consistency. The findings emphasize the importance of the proper preparation of thickened beverages, highlighting the need for standards in training practices and the use of simple measurement tools for assuring the prescribed levels of consistency. Keywords: dysphagia; swallowing; thickened beverages; liquids; viscosity; quality of care 1. Introduction The nutritional care of patients with dysphagia who consume thickened beverages requires the careful preparation of drinks to their prescribed level of modification. Basic care staff (e.g., dietary aides, cooks, and certified nursing assistants) are typically tasked with preparing modifications even though they reportedly receive little or no formal instruction about thickened liquids [1,2]. -
GUAR GUM Chemical and Technical Assessment
GUAR GUM Chemical and Technical Assessment Prepared by Yoko Kawamura, Ph.D., for the 69th JECFA 1. Summary Guar gum is mainly consisting of the high molecular weight (approximately 50,000-8,000,000) polysaccharides composed of galactomannans and is obtained from the endosperm of the seed of the guar plant, Cyamopsis tetragonaloba (L) Taub. (syn. Cyamopsis psoraloides). It is used as thickener, stabilizer and emulsifier, and approved in most areas of the world (e.g. EU, USA, Japan, and Australia). Guar gum were evaluated and ADI “not specified” was allocated at 19th JECFA (1975) and their specifications were prepared at 17th JECFA (1973) and published in FNP 4 (1978) and republished in FNP 52 “Compendium of food additive specification”. They were reviewed at 44th and 53rd JECFA, and their revised specifications were published in FNP 52 Add 3 and 7, and republished in FAO JECFA Monographs “Combined compendium of food additive specifications”. At 67th JECFA the Committee reviewed the specifications of “Guar gum” and noted that they were covered two grades of product. The Committee decided to prepare two specifications monographs, “Guar gum” and “Guar gum (clarified)”. Both monographs were designated tentative and published in FAO JECFA Monographs 3 (2006). Further information, data on gum content, solubility in water and a test method for methanol and isopropanol as residual solvents using capillary gas chromatography were requested before the end of 2007. 2. Description Guar gum, also known as Gum cyamopsis or guar flour, is derived from the ground endosperm of the seed of the guar plant, Cyamopsis tetragonaloba (L) Taub.