USE of PALM STEARIN AS a COMPONENT of INTERESTERIFIED BLENDS JM Deman University of Guelph, Guelph, ON, Canada E-Mail: [email protected]
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Tailored Microstructure of Colloidal Lipid Particles for Pickering Emulsions with Tunable Properties
Electronic Supplementary Material (ESI) for Soft Matter. This journal is © The Royal Society of Chemistry 2017 Supporting information. Tailored Microstructure of Colloidal Lipid Particles for Pickering Emulsions with Tunable Properties Anja A.J. Schröder1,2, Joris Sprakel2, Karin Schroën1, Claire C. Berton-Carabin1 1. Laboratory of Food Process Engineering, Wageningen University and Research, Bornse Weilanden 9, 6708 WG Wageningen, The Netherlands. 2. Physical Chemistry and Soft Matter, Wageningen University and Research, Stippeneng 4, 6708 WE Wageningen, The Netherlands. Email addresses: [email protected], [email protected], [email protected], [email protected] S1 S1. Tripalmitin CLP dispersions produced with 0.5% w/w (left) and 1% w/w (right) Tween40 in the aqueous phase. S2. Fatty acid composition of palm stearin. Component name Percentage average C14:0 1.16 C16:0 82.18 C18:0 5.12 C18:1 9.03 C18:2 1.83 C18:3 0.02 C20:0 0.32 C22:0 0.25 C22:1 0.04 C24:0 0.05 S3. Hydrodynamic diameter (z-average) measured by dynamic light scattering, and, D[4,3], D[3,2], D10, D50 and D90 measured by static light scattering of CLPs composed of (a) tripalmitin, (b) tripalmitin/tricaprylin 4:1, (c) palm stearin. S2 Type of z-average PdI D[4,3] A D[3,2] D10 D50 D90 lipid (μm) (μm) (μm) (μm) (μm) (μm) Tripalmitin 0.162 ± 0.112 ± 0.130 ± 0.118 ± 0.082 ± 0.124 ± 0.184 ± 0.005 0.02 0.004 0.003 0.002 0.004 0.005 Tripalmitin/ 0.130 ± 0.148 ± 0.131 ± 0.117 ± 0.080 ± 0.124 ± 0.191 ± tricaprylin 0.011 0.02 0.003 0.001 0.004 0.002 0.010 (4:1) Palm 0.158 ± 0.199 ± 0.133 ± 0.119 ± 0.081 ± 0.127 ± 0.195 ± stearin 0.007 0.02 0.002 0.002 0.005 0.000 0.010 A B S4. -
Essential Wholesale & Labs Carrier Oils Chart
Essential Wholesale & Labs Carrier Oils Chart This chart is based off of the virgin, unrefined versions of each carrier where applicable, depending on our website catalog. The information provided may vary depending on the carrier's source and processing and is meant for educational purposes only. Viscosity Absorbtion Comparible Subsitutions Carrier Oil/Butter Color (at room Odor Details/Attributes Rate (Based on Viscosity & Absorbotion Rate) temperature) Description: Stable vegetable butter with a neutral odor. High content of monounsaturated oleic acid and relatively high content of natural antioxidants. Offers good oxidative stability, excellent Almond Butter White to pale yellow Soft Solid Fat Neutral Odor Average cold weather stability, contains occlusive properties, and can act as a moistening agent. Aloe Butter, Illipe Butter Fatty Acid Compositon: Palmitic, Stearic, Oleic, and Linoleic Description: Made from Aloe Vera and Coconut Oil. Can be used as an emollient and contains antioxidant properties. It's high fluidiy gives it good spreadability, and it can quickly hydrate while Aloe Butter White Soft Semi-Solid Fat Neutral Odor Average being both cooling and soothing. Fatty Acid Almond Butter, Illipe Butter Compostion: Linoleic, Oleic, Palmitic, Stearic Description: Made from by combinging Aloe Vera Powder with quality soybean oil to create a Apricot Kernel Oil, Broccoli Seed Oil, Camellia Seed Oil, Evening Aloe Vera Oil Clear, off-white to yellow Free Flowing Liquid Oil Mild musky odor Fast soothing and nourishing carrier oil. Fatty Acid Primrose Oil, Grapeseed Oil, Meadowfoam Seed Oil, Safflower Compostion: Linoleic, Oleic, Palmitic, Stearic Oil, Strawberry Seed Oil Description: This oil is similar in weight to human sebum, making it extremely nouirshing to the skin. -
Palm Oil and Rice Bran Oil: Current Status and Future Prospects
International Journal of Plant Physiology and Biochemistry Vol. 3(8), pp. 125-132, August 2011 Available online at http://www.academicjournals.org/ijppb ISSN-2141-2162 ©2011 Academic Journals Review Palm oil and rice bran oil: Current status and future prospects Kusum R., Bommayya H., Fayaz Pasha P. and Ramachandran H. D.* Department of Biochemistry, Dr. Ambedkar Veedhi Bangalore University, Bangalore - 560001, India. Accepted 17 June, 2011 The continued demand for edible oils by the ever increasing population makes it pertinent to explore new sources. In this direction, two new edible oils namely palm oil and rice bran oil have been subjected to nutritional and toxicological evaluations of their chemicals constituents. An attempt has been made in this article to assess the acceptability of the two oils based on the various investigations that have been carried out so far. Key words: Palm oil, rice bran oil, anti-oxidants, cholesterol fatty acids, phospholipids, tocopherols, oryzanol, cardiovascular diseases. INTRODUCTION Vegetable oils are the main source of dietary fat for Among the oils under consideration, palm oil and rice almost all sections of the Indian population and there is a bran oil offer great scope in India, as they are widely continued growing demand from both caterers and con- preferred by the vanaspathi industries and also by the sumers. Although the Indian population has a penchant Indian consumer. The oil palm gives higher yields in for a variety of deep fried products, there is also a greater comparison with other oil yielding species. Rice bran oil awareness of the problems such as atherosclerosis also offers high potential, as India has high rice caused by saturated fats. -
Zahnmedizinische Produkte Und Ihre Inhaltsstoffe
Medikamente Zahnmedizinische Produkte III–8.3 Zahnmedizinische Produkte und ihre Inhaltsstoffe Produktname Anbieter/ Inhaltsstoffe Verwendung Hersteller/ (Elemente in Massen-%, Vertrieb seit x = keine Angabe) Adaptic LC Johnson & John Ba-Glas Kunststoff son AH 26 DeTrey Dentsply Pulver: Silber, Wismutoxid, Methenamin, Wurzelkanal- Titandioxid, Harz: Epoxybisphenolharz Füllungsmasse Alba KF Heraeus/Heraeus/ Pd: 40,0; Ag: 53,0; Sn: x; Zn: 3,5; In: 2,0 Zahnlegierung 1988 Alba Lot 810 Heraeus Kulzer Au: 10,00; Pd: 1,00; Cu: 11,00; Ag: 69,00; Dentallot In: 6,00; Zn: 3,00 Alba Lot 880 Heraeus Kulzer Au: 12,00; Pd: 4,00; Cu: 11,00; Ag: 69,00; Dentallot In: 4,00 Alba SG Heraeus/Heraeus/ Au: 10,0; Pd: 21,0; Ag: 57,0; Cu: 10,0; Zn: Zahnlegierung 1953 2,0 Albabond Heraeus/Heraeus/ Pd: 60,5; Ag: 28,0; Sn: 3,0; In: 7,0; Ga: x Zahnlegierung 1980 Albabond A Heraeus/Heraeus/ Pd: 57,0; Ag: 32,8; Sn: 6,8; In: 3,4 Zahnlegierung 1989 Albabond E Heraeus/Heraeus/ Au: 1,6; Pd: 78,4; Cu: 11,0; Sn: x; In: x; Ga: Zahnlegierung 1983 7,5 Albabond EH Heraeus/Heraeus/ Au: 2,0; Pd: 79,0; Cu: 10,0; Ga: 8,8 Zahnlegierung 1984 Albabond GF Heraeus/Heraeus/ Pd: 60,5; Ag: 19,5; Cu: 7,5; Sn: 3,0; In: 9,5 Zahnlegierung 1987 Albabond U Heraeus/Heraeus/ Au: 2,0; Pd: 75,0; Cu: 9,5; Sn: 3,0; In: 7,0; Zahnlegierung 1982 Ga: 3,5 Albiotic Upjohn Lincomycin Antibiotikum Aleram 2 Allgemeine Gold- Au: x; Pd: 78,5; Cu: 10,5; Sn: x; Ga: 8,0 Zahnlegierung u. -
Current Knowledge on Interspecific Hybrid Palm Oils As Food and Food
foods Review Current Knowledge on Interspecific Hybrid Palm Oils as Food and Food Ingredient Massimo Mozzon , Roberta Foligni * and Cinzia Mannozzi * Department of Agricultural, Food and Environmental Sciences, Università Politecnica delle Marche, Via Brecce Bianche 10, 60131 Ancona, Italy; m.mozzon@staff.univpm.it * Correspondence: r.foligni@staff.univpm.it (R.F.); c.mannozzi@staff.univpm.it (C.M.); Tel.: +39-071-220-4010 (R.F.); +39-071-220-4014 (C.M.) Received: 6 April 2020; Accepted: 10 May 2020; Published: 14 May 2020 Abstract: The consumers’ opinion concerning conventional palm (Elaeis guineensis) oil is negatively affected by environmental and nutritional issues. However, oils extracted from drupes of interspecific hybrids Elaeis oleifera E. guineensis are getting more and more interest, due to their chemical and × nutritional properties. Unsaturated fatty acids (oleic and linoleic) are the most abundant constituents (60%–80% of total fatty acids) of hybrid palm oil (HPO) and are mainly acylated in position sn-2 of the glycerol backbone. Carotenes and tocotrienols are the most interesting components of the unsaponifiable matter, even if their amount in crude oils varies greatly. The Codex Committee on Fats and Oils recently provided HPO the “dignity” of codified fat substance for human consumption and defined the physical and chemical parameters for genuine crude oils. However, only few researches have been conducted to date on the functional and technological properties of HPO, thus limiting its utilization in food industry. Recent studies on the nutritional effects of HPO softened the initial enthusiasm about the “tropical equivalent of olive oil”, suggesting that the overconsumption of HPO in the most-consumed processed foods should be carefully monitored. -
Effect of the Lipase Inhibitor Orlistat and of Dietary Lipid on the Absorption Of
Downloaded from https://doi.org/10.1079/BJN19950090 British Journal of Nutrition (1995), 73, 851-862 851 https://www.cambridge.org/core Effect of the lipase inhibitor orlistat and of dietary lipid on the absorption of radiolabelled triolein, tri-y-linolenin and tripalmitin in mice BY DOROTHEA ISLER, CHRISTINE MOEGLEN, NIGEL GAINS AND MARCEL K. MEIER . IP address: Pharma Division, Preclinical Research, F. Hoffmann-La Roche Ltd, CH-4002 Basel, Switzerland (Received 8 November 1993 - Revised 12 September 1994 - Accepted 7 October 1994) 170.106.40.139 Orlistat, a selective inhibitor of gastrointestinal lipases, was used to investigate triacylglycerol absorption. Using mice and a variety of emulsified dietary lipids we found that the absorption of , on radiolabelled tripalmitin (containing the fatty acid 16: 0), but not of triolein (18 :ln-9) or tri-y-linolenin 27 Sep 2021 at 17:57:17 (18:3n-6), was incomplete from meals rich in esterified palmitate. Further, the absorption of radiolabelled triq-linolenin, from both saturated and unsaturated dietary triacylglycerols, was 1.3- to 2 fold more potently inhibited by orlistat than that of triolein and tripalmitin. These radiolabelled triacylglycerols, which have the same fatty acid in all three positions, may not always be accurate markers of the absorption of dietary triacylglycerols. Orlistat was more effective at inhibiting the absorption of radiolabelled triacylglycerols with which it was codissolved than those added separately, , subject to the Cambridge Core terms of use, available at which indicates that equilibration between lipid phases in the stomach may not always be complete. The saturation of the dietary lipid had little or no effect on the potency of orlistat. -
Synthesis and Microencapsulation of Structured Lipids
SYNTHESIS AND MICROENCAPSULATION OF STRUCTURED LIPIDS CONTAINING LONG-CHAIN POLYUNSATURATED FATTY ACIDS FOR POSSIBLE APPLICATION IN INFANT FORMULAS by SUPAKANA NAGACHINTA (Under the Direction of Casimir C. Akoh) ABSTRACT It has been well established that lower fat absorption in infants, fed with formula, is due to the difference between the regiospecificity of the palmitic acid in the vegetable oil blend versus that present in human milk fat (HMF). In HMF, most of the palmitic acids are esterified at the sn-2 position of the triacylglycerols (TAGs). However, in vegetable oil, they are predominantly present at the sn-1, 3 positions. Structured lipids (SLs), with fatty acid profiles and positional distributions similar to HMF, were developed via a single step enzymatic modification of either palm olein or tripalmitin. These SLs also were also enriched with long-chain polyunsaturated fatty acids (LCPUFAs), such as docosahexaenoic (DHA) and arachidonic (ARA), which are important for infant brain and cognitive development. SL from modified tripalmitin contained 17.69% total ARA, 10.75% total DHA, and 48.53% sn-2 palmitic acid. Response surface methodology was employed to study the effect of time, temperature, and substrate molar ratio on the incorporation of palmitic acid at the sn-2 position, and the total incorporation of LCPUFAs. Physicochemical properties of SLs were characterized for TAGs molecular species, melting and crystallization thermograms, and fatty acid positional distribution. SLs in powdered form were obtained by microencapsulation, using Maillard reaction products (MRPs) of heated protein- polysaccharide conjugates as encapsulants, followed by spray-drying. SL-encapsulated powders had high microencapsulation efficiency and oxidative stability. -
Sustainable Palm Derivatives in Cleaning and Personal Care Products
Sustainable Palm Derivatives in Cleaning and Personal Care Products A CPET Special Newsletter July 2015 The Purpose of this Special Newsletter This newsletter is meant to provide information and guidance to businesses and government departments on sourcing cleaning products and personal care products made with sustainable palm oil derivatives. It outlines the complexities in the derivatives supply chain, explains why sustainable palm-based derivatives have been difficult to source in the past, and provides a quick guide to sourcing certified derivatives. Introduction to Palm-based Derivative Supply Chain Palm oil and palm kernel oil are complex commodities because of the demand for a large number of fractions and derivatives of the oils. In fact, about 60% of the palm oil and palm kernel oil consumed globally is in the form of derivatives such as olein and stearin.1 The supply chains for these derivatives are multi-layered and have been historically difficult to trace. Although traceability is improving, the derivatives can be challenging to source as sustainable. Oleochemicals, which are produced from the fatty acid distillates that result from the refining process of palm oil and palm kernel oil, are typically used in the production of cleaning products and personal care products. Palm based oleochemicals have a diverse range of applications. In the past decade, many European manufacturers and traders have shifted towards the use of palm-derived oleochemicals (as opposed to petrochemicals or other plant based oleochemicals), due to the increase in the number of plants in Southeast Asia with access to palm feedstocks. The environmental and social repercussions of this shift in usage, and the parallel significant increase in oil palm plantations in Southeast Asia, have been dramatic, leading to deforestation, climate change, habitat loss, and disruptions to local communities. -
Organic & Sustainable Palm
Organic & Sustainable Palm Oil 680g 36MP shortening 15kg 32MP Shortening 18kg 25MP Olein for Household use /15kg 48MP Stearin for deep frying ORGANIC • DAABON Group has 4 beautiful organic certified palm plantations of total 4500 ha located on the western slopes of the Santa Marta mountain range. • DAABON has vertically integrated the palm oil production from seeder to farming, harvesting, mechanical pressing, physical refinery and finally to end products such as RBD, Stearin, Shortenings, Olein, Kernel oils, Margarine, Soap base and byproducts such as Kernel cake and vegetable residues for compost making at our own facilities. Our products and processes are vertically integrated and fully traceable. TRANSFAT FREE • Due to the extensive hazards posed by animal fat cholesterol and excessive levels of trans fats derived from hydrogenation, organic palm fruit oil is becoming the preferred option of high quality, health conscious food processors. Organic Palm fruit oil does not require hydrogenation as it is solid at room temperature, therefore avoiding harmful trans fatty acids. • There are several uses of palm fruit oil. Among the most common our customers use our products in baking, frying, food mixes, coatings, ice cream and others. SUSTAINABLE • DAABON Group is a member of the Roundtable on Sustainable Palm Oil and a certified grower. • Our refinery, soap factory and oil terminal is RSPO SCCS certified supply chain. • We are one of the only global suppliers of organic and fully identity-preserved palm oil products (RSPO/IP). SOCIAL RESPONSIBILITY – Suppor ng Smallholders Farmers in Northern Colombia have seen much hardship and have had to face many challenges in creating livelihoods over the past decades. -
Linolenic Acid Absorption, -Oxidation and Conversion To
0031-3998/06/5902-0271 PEDIATRIC RESEARCH Vol. 59, No. 2, 2006 Copyright © 2006 International Pediatric Research Foundation, Inc. Printed in U.S.A. Variation in [U-13C] ␣ Linolenic Acid Absorption, -oxidation and Conversion to Docosahexaenoic Acid in the Pre-Term Infant Fed a DHA-Enriched Formula CLIFFORD MAYES, GRAHAM C. BURDGE, ANNE BINGHAM, JANE L. MURPHY, RICHARD TUBMAN, AND STEPHEN A. WOOTTON From the Neonatal Intensive Care Unit [C.M., R.T.], Royal Maternity Hospital, Belfast BT12 6BB, UK; Department of Child Health [A.B.], Grosvenor Rd, Queen’s University of Belfast, Belfast, BT12 6BJ, UK; Institute of Human Nutrition [G.C.B., J.L.M., S.A.W.], Southampton General Hospital, University of Southampton S016 6YD, UK ABSTRACT: Docosahexaenoic acid (DHA) is an integral compo- DHA. Although there is evidence that these infants can con- nent of neural cell membranes and is critical to the development and vert ALNA to DHA (7–9), the extent to which pre-term function of the CNS. A premature delivery interrupts normal placen- infants can meet their demands for DHA through this conver- tal supply of DHA such that the infant is dependent on the nature of sion remains uncertain. the nutritional support offered. The most abundant omega-3 fatty acid The extent of absorption across the gastrointestinal tract, in pre-term formulas is ␣ linolenic acid (ALNA), the precursor of DHA. This project studied the absorption, -oxidation and conver- especially if immature, may also limit the availability of sion of ALNA to DHA by pre-term infants ranging from 30-37 wk of ALNA for DHA synthesis. -
Download PDF (Inglês)
Brazilian Journal of Chemical ISSN 0104-6632 Printed in Brazil Engineering www.scielo.br/bjce Vol. 34, No. 03, pp. 659 – 669, July – September, 2017 dx.doi.org/10.1590/0104-6632.20170343s20150669 FATTY ACIDS PROFILE OF CHIA OIL-LOADED LIPID MICROPARTICLES M. F. Souza1, C. R. L.Francisco1; J. L. Sanchez2, A. Guimarães-Inácio2, P. Valderrama2, E. Bona2, A. A. C. Tanamati1, F. V. Leimann2 and O. H. Gonçalves2* 1Universidade Tecnológica Federal do Paraná, Departamento de Alimentos, Via Rosalina Maria dos Santos, 1233, Caixa Postal 271, 87301-899 Campo Mourão, PR, Brasil. Phone/Fax: +55 (44) 3518-1400 2Universidade Tecnológica Federal do Paraná, Programa de Pós-Graduação em Tecnologia de Alimentos, Via Rosalina Maria dos Santos, 1233, Caixa Postal 271, 87301-899 Campo Mourão, PR, Brasil. Phone/Fax: +55 (44) 3518-1400 *E-mail: [email protected] (Submitted: October 14, 2015; Revised: August 25, 2016; Accepted: September 6, 2016) ABSTRACT - Encapsulation of polyunsaturated fatty acid (PUFA)is an alternative to increase its stability during processing and storage. Chia (Salvia hispanica L.) oil is a reliable source of both omega-3 and omega-6 and its encapsulation must be better evaluated as an effort to increase the number of foodstuffs containing PUFAs to consumers. In this work chia oil was extracted and encapsulated in stearic acid microparticles by the hot homogenization technique. UV-Vis spectroscopy coupled with Multivariate Curve Resolution with Alternating Least-Squares methodology demonstrated that no oil degradation or tocopherol loss occurred during heating. After lyophilization, the fatty acids profile of the oil-loaded microparticles was determined by gas chromatography and compared to in natura oil. -
Food Scientist's Guide to Fats and Oils For
FOOD SCIENTIST’S GUIDE TO FATS AND OILS FOR MARGARINE AND SPREADS DEVELOPMENT by KATHLEEN M. MORLOK B.S., University of Minnesota, 2005 A REPORT submitted in partial fulfillment of the requirements for the degree MASTER OF SCIENCE Food Science KANSAS STATE UNIVERSITY Manhattan, Kansas 2010 Approved by: Major Professor Kelly J.K. Getty Animal Sciences & Industry Abstract Fats and oils are an important topic in the margarine and spreads industry. The selection of these ingredients can be based on many factors including flavor, functionality, cost, and health aspects. In general, fat is an important component of a healthy diet. Fat or oil provides nine calories per gram of energy, transports essential vitamins, and is necessary in cellular structure. Major shifts in consumption of fats and oils through history have been driven by consumer demand. An example is the decline in animal fat consumption due to consumers’ concern over saturated fats. Also, consumers’ concern over the obesity epidemic and coronary heart disease has driven demand for new, lower calorie, nutrient-rich spreads products. Fats and oils can be separated into many different subgroups. “Fats” generally refer to lipids that are solid at room temperature while “oils” refer to those that are liquid. Fatty acids can be either saturated or unsaturated. If they are unsaturated, they can be either mono-, di-, or poly-unsaturated. Also, unsaturated bonds can be in the cis or trans conformation. A triglyceride, which is three fatty acids esterified to a glycerol backbone, can have any combination of saturated and unsaturated fatty acids. Triglycerides are the primary components of animal and vegetable fats and oils.