Bindex 413..426

Total Page:16

File Type:pdf, Size:1020Kb

Bindex 413..426 Index Page references in bold type refer to primary articles. References followed by t refer to material in tables. Acid catalysts Alkyl polyglycosides, 144 for biodiesel production, 238t, 239–240 All-beef packer tallow Acidless tallow, 87 specifications, 81t Activated carbon Aloe vera gel glycerine adsorption, 210–211 in bar soaps, 129 Adipic acid Aluminum soaps, 134 in alkyd resins, 323 Amino acids Adsorption rendering products, 76t glycerine, 210–211 Amino resins and solid-soil detergency, 158–159 blending with alkyd resins, 344 Albumin Amphoteric surfactants, 44, 130–131 edible films from, 371 Amylopectin, 281 Alcohol ethoxylates Amylose, 281 rat oral LD50, 176t Anacardic acid, 285 Alcohol sulfates Animal fats rat oral LD50, 176t fatty acid composition, 106t Alkali catalysts low temperature behavior in biodiesel, for biodiesel production, 237–239, 238t 250 Alkanolamides, 39–43 from rendering, 64–65 Alkybenzene sulfonates world trade 1992–2002, 60t rat oral LD50, 176t Animal materials Alkyd resins, 319–342 rendering, 57–100 blending, 343–348 Anionic surfactants, 43–44, 130 classification, 320–321 Antifloat agents design, 332–335 for paints, 311 property change trend with oil length, Antiflood agents 322t for paints, 311 synthesis, 336–338 Antimicrobial agents Alkylbenzene sulfonates, 143 in bar soaps, 129–130 Bailey’s Industrial Oil and Fat Products, Sixth Edition, Six Volume Set. Edited by Fereidoon Shahidi. Copyright # 2005 John Wiley & Sons, Inc. 413 414 INDEX Antioxidants Blueing agents, 148 in bar soaps, 128–129 Body washes, 131–132 use with cosmetics, 406 Bone meal, 61 Antiredeposition agents, 147–148, 151–152 processing, 68–71 Antisag agents protein composition, 76t for paints, 311 Boundary lubrication, 363 Antiskin agents, 311 Bovine spongiform encephalopathy (BSE), 95–98 Arachidonic acid, 393 Brassica seed oil metabolic fatty acid, 392t biodiesel production from, 234 Arginine Builders, 143, 144–147 in rendering products, 76t and water hardness, 150–151 A tallow Butanol specifications, 81t use in biodiesel production, 237 Azelaic acid Butter in alkyd resins, 323 fatty acid composition, 401t Butylated hydroxytoluene (BHT) Babassu oil in bar soaps, 129 soap raw material, 108 use with cosmetics, 406 Baking soda Butyl lardate, 90–91 in bar soaps, 129 Butyl stearate Bar soaps in fiber spinning finish, 365 formulation, 127–131 manufacturing, 121–126 Calcium uses, 133–134 and water hardness, 104 Bathing Calcium soaps, 134 detersive systems, 139t Candle making, 57–58 Baths, 141–142 Canola oil Beef tallow basestock for lubricants, 260, 261t, 266t soap raw material, 108 biodiesel production from, 231, 232–233, 234, BHT, See Butylated hydroxytoluene 237t Binder, in paint, 310 lubricity of esters, 249 Biodiesel pour point, 271t coproduct use, 251 Capric acid and diesel emissions, 230–233 in coconut oil, 3t international standards, 226t composition of common fats and oils, 106t low temperature behavior, 249–251 in palm kernel oil, 3t production, 234–246 Caproic acid quality, 224–230 in coconut oil, 3t from rendered products, 93–95 in palm kernel oil, 3t resources for production, 233–234 Caprylic acid utilization, 246–252 in coconut oil, 3t vegetable oils as, 223–252 composition of common fats and oils, 106t Bleachable fancy tallow in palm kernel oil, 3t specifications, 81t Carboxymethylcellulose, 282 Bleaches Carboxymethylcellulose edible films, 377t with detergents, 148–149 color, 384t Bleaching thickness and mechanical properties, 381t glycerol, 121 water vapor barrier properties, 387t rendered products, 73–74, 86–87 Cardanol, 285 Bleaching clays, 86–87 Cardanyl acrylate, 285–286 Blood meal, 61 Cardol, 285 processing, 66 Casein protein composition, 76t edible films from, 371 INDEX 415 Cashewnut shell liquid, 284–287 Collagen Casting edible films from, 371 edible films, 374–375 Colloidal stabilization, 159–164 Castor oil Color fatty acid composition for alkyd resins, 328t edible films, 382–384 interpenetrating polymer network production glycerine, 211–212 from, 300–302 Colorants oleochemicals from, 83 in bar soaps, 128 polymer production from, 287, 288, 292–293, Continuous saponification, 114–115 294, 300–303 Corn oil pour point, 271t basestock for lubricants, 260, 261t, 266t, 268t, semi-interpenetrating polymer network 269t production from, 302–303 biodiesel production from, 233 Catalysts cosmetics applications, 407t for biodiesel production, 237–240 fatty acid composition, 401t in glycerine production, 194 Corn zein Cationic surfactants, 44 edible films from, 371 Cattle Cosmeceuticals, 393, 401 titer and iodine values of fat from, 78t Cosmetics Cellulose, 282–283 use of lipids, 391–408 Cellulose acetate, 282 Cotton fiber, 282 Cellulose xanthate, 282 Cottonseed Ceramics edible films from, 371 detersive systems, 138t Cottonseed oil Ceramide, 391 basestock for lubricants, 261t, 266t, 268t, Chelants 269t in bar soaps, 128–129 fatty acid composition for alkyd resins, 328t Chemically modified alkyd resins, 344–348 Crambe oil Chicken fat, See Poultry fat polymer production from, 287 Chlorendic anhydride Creutzfeld-Jakob disease (CJD), 98 in alkyd resins, 323, 325 Cross-linking Chlorinated rubber soy protein films, 378–379 blending with alkyd resins, 344 Crystallization Choice white grease, 64 soaps, 111–113 fatty acid composition, 77t Curd, 104 fuel energy content, 94t Cystine specifications, 81t in rendering products, 76t Cholesterol, 391 Chroman ring stucture, 319 Degras, 357 Citric acid Deodorization, 73–74 in bar soaps, 129 glycerol, 121 use with cosmetics, 406 Detergency, 137–181 Clays fabric, 169–170 as builders, 146–147 factors influencing, 149–156 Coatings, 309–310 hard-surface, 170–173 Cocoa butter measurement, 169 cosmetics applications, 407t mechanisms, 156–157 Coconut oil oily-soil, 164–168 fatty acid composition, 3t, 4–7, 5t, 106t solid-soil, 157–164 fatty acid composition for alkyd resins, 328t Detergents fatty acids and derivatives from, 1–54 analysis, 176 oleochemicals from, 2–4, 6–7, 83 environmental considerations, 179–180 soap raw material, 108 formulation, 142 416 INDEX Detergents (Continued) Ethanol health and safety factors, 176t, 176–177 use in biodiesel production, 231–232, 237 manufacture, 173–176 Ethylene Detergents and detergency, 137–181 polymerization, 279 soaps, 103–134 Ethylenediaminetetraacetic acid (EDTA) Detersive systems, 137, 138–139t in bar soaps, 129 Diacylglycerols sequestering agent with detergents, 149 biodiesel international standards, 226t Ethylene glycol cosmetics applications, 407t in alkyd resins, 325, 326 Dianhydrohexitols, 286 Ethylene oxide-propylene oxide copolymers Diesel emissions, 230–233 in fiber spinning finish, 365–366 Diglycerides, See Diacylglycerols Eutrophication, 180–181 Diisocyanates, 293 Evaporation Diisodecyl adipate glycerine, 197–200, 213–214 oxidative degradation tendency, 273t Extender pigments, 310 pour point, 271t Extra-fancy tallow Direct saponification, 113–116 specifications, 81t Dishwashing Extrusion detergents for, 171–172 hot extrusion soapmaking process, 126 detersive systems, 139t Distillation, 74–75 Fabric detergency, 169–170 glycerine, 120–121, 204–208 Fallout, 90 DLVO theory, of colloid stability, 160–163 Fancy tallow Drying specifications, 81t film drying of oil-based paints, 314–318 Fat liquors of leather, 354 leather softening with, 355–357 Drying alkyd resins, 321 Fat products, 64 Drying oils processing, 71–75 paints, 307–309 Fats Dyeing, 366–367 leather and textile uses, 353–367 Dyes and paint-coating industry, 307–309 in bar soaps, 128 rendering products, 76–77, 77t soap raw materials, 105–108 Edible coatings, 371–372 world output, 1–2 Edible films: physical and mechanical properties, Fat-soluble vitamins, 394–395 371–387 Fat splitting, 8–11 Edible lard Fatty acid 8:0 specifications, 81t in rendered products, 77t Edible tallow Fatty acid 10:0 processing, 71–75 in rendered products, 77t specifications, 81t Fatty acid 11:0 U.S. production and export 1998–2002, 65t in rendered products, 77t EDTA, See Ethylenediaminetetraacetic acid Fatty acid 12:0 Eggshell paints, 312 in rendered products, 77t Enamels, 312 Fatty acid 14:0 Entrainment separation metabolic fatty acid, 392t glycerine, 200–201 in rendered products, 77t Enzymes in selected vegetable and animal fats and human fat splitting, 10–11 skin, 401t Epoxidized linseed oil, 298 Fatty acid 14:1 Epoxidized soybean oil, 298–299 in rendered products, 77t Essential fatty acids, 392t, 394 Fatty acid 15:0 Esterification, 15 in rendered products, 77t INDEX 417 Fatty acid 15:1 Fatty acid 20:4 in rendered products, 77t metabolic fatty acid, 392t Fatty acid 16:0 in rendered products, 77t lubricant basestock, 261t Fatty acid 20:5 metabolic fatty acid, 392t in rendered products, 77t in rendered products, 77t Fatty acid 21:5 in selected vegetable and animal fats and human in rendered products, 77t skin, 401t Fatty acid 22:0 Fatty acid 16:1 in rendered products, 77t metabolic fatty acid, 392t Fatty acid 22:1 in rendered products, 77t in rendered products, 77t Fatty acid 16:2 Fatty acid 22:2 in rendered products, 77t in rendered products, 77t Fatty acid 16:3 Fatty acid 22:3 in rendered products, 77t in rendered products, 77t Fatty acid 16:4 Fatty acid 22:4 in rendered products, 77t in rendered products, 77t Fatty acid 17:0 Fatty acid 22:5 in rendered products, 77t in rendered products, 77t Fatty acid 17:1 Fatty acid 22:6 in rendered products, 77t in rendered products, 77t Fatty acid 18:0 Fatty acid 24:0 lubricant basestock, 261t in rendered products, 77t metabolic fatty acid, 392t Fatty acid 24:1 in rendered products, 77t in rendered products,
Recommended publications
  • (Yellow Oleander) Seed Oil and Sus Domesticus (Pig) Lard
    PREPARATION AND STUDIES OF BIODIESELS FROM THEVETIA PERUVIANA (YELLOW OLEANDER) SEED OIL AND SUS DOMESTICUS (PIG) LARD BY YAKUBU ALI DALLATU DEPARTMENT OF CHEMISTRY AHMADU BELLO UNIVERSITY, ZARIA, NIGERIA. DECEMBER, 2015 PREPARATION AND STUDIES OF BIODIESELS FROM THEVETIA PERUVIANA (YELLOW OLEANDER) SEED OIL AND SUS DOMESTICUS (PIG) LARD BY Yakubu Ali DALLATU, B.Sc (Hons) CHEMISTRY(BUK) 1984; POSTGRADUATE DIPLOMA IN EDUCATION (ABU) 1988 ; M.Sc ANALYTICAL CHEMISTRY (ABU) 2000 Ph.D/SCIE/05687/2009-2010 A THESIS SUBMITTED TO THE SCHOOL OF POSTGRADUATE STUDIES, AHMADU BELLO UNIVERSITY, ZARIA IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE AWARD OF DEGREE OF DOCTOR OF PHILOSOPHY IN ANALYTICAL CHEMISTRY DEPARTMENT OF CHEMISTRY FACULTY OF SCIENCE AHMADU BELLO UNIVERSITY, ZARIA, NIGERIA. DECEMBER, 2015 ii Declaration I declare that the work in this Thesis entitled “Preparation and Studies of Biodiesels from Thevetia peruviana (Yellow Oleander) Seed Oil and Sus domesticus (Pig) Lard”, has been carried out by me in the Department of Chemistry. The information derived from the literature has been duly acknowledged in the text and a list of references provided. No part of this thesis was previously presented for another degree or diploma at this or any other Institution. Yakubu Ali DALLATU _____________________ _______________________ __________________ Name of Student Signature Date iii Dedication This research work is dedicated to my wife, Mrs. Rhoda Y. Dallatu and our children, Unomliyi, Alionom and Apemu for their patience, support and encouragement. iv Certification This thesis, entitled ―PREPARATION AND STUDIES OF BIODIESELS FROM THEVETIA PERUVIANA (YELLOW OLEANDER) SEED OIL AND SUS DOMESTICUS (PIG) LARD‖ by Yakubu Ali DALLATU meets the regulations governing the award of the degree of Doctor of Philosophy (Ph.D.) Analytical Chemistry of the Ahmadu Bello University, and is approved for its contribution to knowledge and literary presentation.
    [Show full text]
  • Nutraceutical Profile of Selected Oils, Distillates and Butters
    Asian J. Exp. Sci., Vol. 28, No. 2, 2014; 37-41 Nutraceutical Profile Of Selected Oils, Distillates And Butters RIPAL R. KHAMAR & Y. T. JASRAI Department of Botany, University School of Sciences, Gujarat University, Ahmedabad - 380009, Gujarat, India E-mail: [email protected] Abstract : The mixed tocopherol , phytosterol and sqalene were estimated in the oils and their deodorized distillate (remove of flavor) available in the India market and to know about the nutraceuticals value in respect with tocopherol (vitamin E), Phytosterol and squalene.The oils taken in the investigation were Amaranth oil, Avocado oil, Cashew nut shell oil, Castor oil, Coconut oil, Corn/Maize oil, Cottonseed oil, Cumin oil, Fish oil, Groundnut oil, Linseed oil, Mustard oil, Neem oil, Olive oil, Palm oil, Pomegranate seed oil, Psyllium seed oil, Rice bran oil, Safflower oil, Sesame oil, Soybean oil, Sunflower oil and Wheat germ oil. Avacado oil contains highest quantity of mixed tocopherol while the lowest % is found in coconut, cumin, flaxed seed , neem and pomegranate oils. Phytosterol was highest in Pumpkin seed oil and lowest in Sesame seed oil. Sqalene (precursor to cholesterol) was highest in Amaranth seed oil and Mango butter oils and lowest in Shea butter. In deodorised distillate, phytosterol was highest in Soya bean oil but lowest in Olive oil. However, Sqalene was highest in distillate of Olive oil and lowest in distillate of Groundnut oil.Punicic acid (polysaturated fatty acid) and sesamin (a lignin) were present in Palm oil, Pomegranate seed oil and Sesame oil raw and in distillates. KEYWORDS: Edible oil, Distillate, Butter, Nutraceutical profile, Tocopherol, Vitamin E INTRODUCTION: The present study has been deodorization (to remove off flavors), often abbreviated as undertaken to know the nutritional value of fatty acids in RBD.
    [Show full text]
  • Influence of Free Fatty Acid Content in Biodiesel Production on Non-Edible Oils
    CORE Metadata, citation and similar papers at core.ac.uk Provided by Universidade do Minho: RepositoriUM WASTES: Solutions, Treatments and Opportunities 1St International Conference September 12th – 14th 2011 INFLUENCE OF FREE FATTY ACID CONTENT IN BIODIESEL PRODUCTION ON NON-EDIBLE OILS A. Ribeiro1, F. Castro2 and J. Carvalho3 1 CVR – Centre for Waste Valorization, [email protected]. 2 University of Minho/CT2M, fcastro@ dem.uminho.pt. 3 CVR – Centre for Waste Valorization/CT2M, [email protected] ABSTRACT The use of alternative feedstock as waste cooking oils (WCO) and bovine tallow for biodiesel production has some advantages. It is cheaper than edible vegetable oils and it is a way to valorize a sub-product. Nevertheless, these oils possess some contaminants, specially free fatty acid (FFA) content, which can reduce the quality and yield of biodiesel production. This problem was solved by testing different operating conditions and different transesterification procedure and equipments for each stage of processing. Technological assessment of process was carried out to evaluate their technical benefits, limitations and quality of final product. In this work biodiesel was produced by an alkali- catalyzed transesterification and by a two step esterification/alkali-catalysed transesterification in cases which FFA content has above 3%. Evaluation of quality from raw materials and final biodiesel was performed according to standard EN 14214. Results show that all parameters analyzed meet the standard and legislation requirements. This evidence proves that in those operational conditions the biodiesel produced from WCO and bovine tallow can substitute petroleum-based diesel. Keywords: Biodiesel; Free Fatty acid (FFA); Waste Cooking Oil (WCO); Bovine tallow INTRODUCTION Energy is the most fundamental requirement for human existence and activities.
    [Show full text]
  • Potential of Chrozophora Tinctoria Seed Oil As a Biodiesel Resource
    applied sciences Article Potential of Chrozophora tinctoria Seed Oil as a Biodiesel Resource Seyed Salar Hoseini 1, Gholamhassan Najafi 1,*, Armin Fattahpour Moazzez 1, Saeid Hazrati 2, Mohammad Taghi Ebadi 3 and Talal Yusaf 4,* 1 Department of Biosystems Engineering, Tarbiat Modares University, Tehran 14115-336, Iran; [email protected] (S.S.H.); [email protected] (A.F.M.) 2 Department of Agronomy and Medicinal Plants, Azarbaijan Shahid Madani University, Tabriz 53714-161, Iran; [email protected] 3 Department of Horticultural Science, Tarbiat Modares University, Tehran 14115-336, Iran; [email protected] 4 Department of Development, Aviation Australia, Brisbane 4007, Australia * Correspondence: g.najafi@modares.ac.ir (G.N.); [email protected] (T.Y.) Received: 30 March 2020; Accepted: 15 May 2020; Published: 18 May 2020 Featured Application: Produced biodiesel through this research work can be used as a suitable fuel source instead of petroleum-derived fuels. Abstract: Biodiesel is a renewable fuel that has been widely used in recent years. There are various resources used as biodiesel feedstocks, including animal fats, waste oils, and vegetable oils. In the present study, Chrozophora tinctoria seed oil is introduced as a new biodiesel feedstock. C. tinctoria is a weed and non-edible plant. So, the primary cost of this resource is very low, and hence it can be considered as a biodiesel source. This plant can also grow in most weather conditions. In the present study, the research team tried to produce biodiesel from C. tinctoria seeds through a transesterification reaction. To intensify the transesterification reaction, an ultrasonic device was used.
    [Show full text]
  • Chemical Composition, Antimicrobial and Antioxidant Properties of Seed Oil Plants of North-East India: a Review
    Review Chemical composition, antimicrobial and antioxidant properties of seed oil plants of North-East India: A review Priyanka Saha1, Anupam Das Talukdar1*, Sanjoy Singh Ningthoujam1,2, Manabendra Dutta Choudhury1, Deepa Nath1,3, Lutfun Nahar4, Satyajit Dey Sarker4, Norazah Basar4,5 1Department of Life Science and Bioinformatics, Assam University, Silchar 788011, India; 2Department of Botany, Ghanapriya Women’s College, Imphal, Manipur, India; 3Department of Botany and Biotechnology, Karimganj College, Karimganj-788710. Assam India; 4Medicinal Chemistry and Natural Products Research Group, School of Pharmacy and Biomolecular Sciences, Liverpool John Moores University, Byrom Street, Liverpool L3 3AF, UK; 5Department of Chemistry, Faculty of Science, Universiti Teknologi Malaysia, 81310 Johor Bahru, Johor, Malaysia ABSTRACT Apart from being used as food, seed oils have also been used traditionally as medicinal products by several communities. However, the full medicinal potential of many seed oil plants is yet to be properly reviewed, particularly for their antimicrobial and antioxidant properties. North-East India has rich resources of seed oil plants. The availability of detailed information on these plants is quite limited. This review aims to explore and evaluate these seed oil plants of the North-East India with particular emphasis on their antimicrobial and antioxidant activities as well as chemical compositions. A comprehensive literature search on seed oil plants of this region has been performed. Seed oil yielding plants of this region can be categorized into two categories: plants that are used traditionally as sources of edible or medicinal oils and plants that are used for purposes other than as sources of oils. Many seed oil plants of this region have been reported to possess antimicrobial and antioxidant properties, and to produce various types of compounds.
    [Show full text]
  • Esolvent-Free, Enzyme-Catalyzed Biodiesel Production from Mango, Neem, and Shea Oils Via Response Surface Methodology
    Nde et al. AMB Expr (2015) 5:83 DOI 10.1186/s13568-015-0172-x ORIGINAL ARTICLE Open Access ESolvent‑free, enzyme‑catalyzed biodiesel production from mango, neem, and shea oils via response surface methodology Divine Bup Nde1,2*, Carlos Astete1 and Dorin Boldor1 Abstract Mango, neem and shea kernels produce non-conventional oils whose potentials are not fully exploited. To give an added value to these oils, they were transesterified into biodiesel in a solvent-free system using immobilized enzyme lipozyme from Mucor miehei. The Doehlert experimental design was used to evaluate the methyl ester (ME) yields as influenced by enzyme concentration—EC, temperature—T, added water content—AWC, and reaction time—RT. Biodiesel yields were quantified by 1H NMR spectroscopy and subsequently modeled by a second order polynomial equation with interactions. Lipozyme enzymes were more tolerant to high temperatures in neem and shea oils reaction media compared to that of mango oil. The optimum reaction conditions EC, T, AWC, and RT assuring near complete conversion were as follows: mango oil 7.25 %, 36.6 °C, 10.9 %, 36.4 h; neem oil EC 7.19 %, T 45.7 °C, AWC 8.43 %, RT 25.08 h; and shea oil EC 4.43 %, T 45.65 °C, AWC 6.21 % and RT = 25.08 h. Validation= experiments= of these= optimum conditions gave= ME yields= of 98.1 1.0, 98.5= 1.6 and 99.3= 0.4 % for mango, neem and shea oils, respectively, which all met ASTM biodiesel standards.± ± ± Keywords: Biodiesel, Enzyme, Mango, Methyl esters, Neem, Shea Introduction completely exhausted.
    [Show full text]
  • 6Casas-Mango Kernels.Pmd
    SCIENCE DILIMAN (JULY-DECEMBER 2015) 27:2, 41-75 EV Casas et al. Optimizing Microwave-assisted Crude Butter Extraction from Carabao Mango (Mangifera indica) Kernels Edgardo V. Casas* University of the Philippines Los Baños Von Jansen G. Comedia University of the Philippines Los Baños Arni G. Gilbuena University of the Philippines Los Baños Ateneo de Manila University Kevin F. Yaptenco University of the Philippines Los Baños ABSTRACT Carabao mangoes are among the highly produced fruit crops in the Philippines. The processing and consumption of carabao mangoes leave a significant amount of waste seeds. Mango kernel butter extracted from waste seed kernels is a potential additive to cosmetic products or as a cocoa butter substitute. This study determined the pretreatment conditions that produce optimum yield prior to the mechanical extraction of the crude butter. Moreover, this study provided a general sensory evaluation of the finished product. Microwave power (160, 500, and 850 W), microwave exposure time (2.0, 3.5, and 5.0 min), and size levels (1.5, 3.0, and 4.5 mm) were tested for their effects on the yield of the mechanically extracted crude butter in wet basis percentage. The optimization procedures resulted to optimum pretreatment conditions of 160 W, 4.25 min, and 1.5 mm. Size level was the most significant factor in the crude butter yield. Sensory evaluation of the crude butter extracted at optimum pretreatment conditions through acceptance test by a test panel resulted to below neutral scores in visual appearance and odor, _______________ *Corresponding Author ISSN 0115-7809 Print / ISSN 2012-0818 Online 41 Optimizing Microwave-assisted Crude Butter Extraction and above neutral score in texture, indicating the potential of mango butter as a good substitute to cocoa butter in cosmetic products.
    [Show full text]
  • Extraction and Characterization of Oil from Ethiopian Mangifera Indica Seed Kernels
    Journal of Scientific & Industrial Research Vol. 77, February 2018, pp. 131-135 Extraction and Characterization of Oil from Ethiopian Mangifera Indica Seed Kernels M Kemal1, S A Jabasingh1,*, A Yimam1 and J A Kumar2 1Process Engineering Division, School of Chemical and Bio Engineering, Addis Ababa Institute of Technology, Addis Ababa University, Ethiopia 2Department of Chemical Engineering, Sathyabama Institute of Science and Technology, Chennai, Tamil Nadu, India Received 03 October 2016; revised 17 July 2017; accepted 24 December 2017 High population growth demands alternative sources for producing valuable products from waste materials. One such waste material in Ethiopia is mango seed kernel and the oil extracted from the mango seed kernel, have immense application in the cosmetics industry. The main aim of this research is to determine the optimum operating condition for the extraction of oil from the mango seed kernel. Keywords: Mango Seed Kernel, Oil, Cosmetic Industry, Extraction, Yield Introduction The moisture content of the kernel was determined by Natural oils are excellent emollients derived from a measuring the weight of the sample before drying and variety of plants1,2. Mango seed kernel oil has been after drying in an oven at 105°C respectively. used as a key ingredient in the cosmetics, as it is a good Mango oil extraction 3,4 source of phenolic compounds . In the context of The experimental work was conducted using soxhlet Ethiopia, 126,800 qt of mango are produced in the extractor in triplicate with three different solvents: Arba Minch and Zuria Woreda with a total area hexane, petroleum ether and ethanol1,2.
    [Show full text]
  • (12) United States Patent (10) Patent No.: US 8,722,106 B2 Odom (45) Date of Patent: May 13, 2014
    USOO8722106B2 (12) United States Patent (10) Patent No.: US 8,722,106 B2 Odom (45) Date of Patent: May 13, 2014 (54) LIP BALM COMPOSITION (56) References Cited (75) Inventor: Fountain Odom, Charlotte, NC (US) U.S. PATENT DOCUMENTS (73) Assignee: The MotherVine Nutraceuticals Co. 4,793,991 A * 12/1988 Slimak ............................ 424/64 LLC, Charlotte, NC (US) FOREIGN PATENT DOCUMENTS (*) Notice: Subject to any disclaimer, the term of this DE 102O08021756 A1 * 11, 2009 patent is extended or adjusted under 35 DE 102011 101512 A1 * 11, 2012 U.S.C. 154(b) by 296 days. SU 1183109 A * 10, 1985 (21) Appl. No.: 13/309,736 OTHER PUBLICATIONS (22) Filed: Dec. 2, 2011 English translation of Abstract of SU 1183109 A1, Lobanova et al. ck (65) Prior Publication Data k cited. by examiner US 2013/O142881 A1 Jun. 6, 2013 Primary Examiner — Rosanne Kosson (74) Attorney, Agent, or Firm — Clements Bernard PLLC; (51) Int. Cl. Gregory N. Clements A6 IK36/00 (2006.01) A6 IK36/87 (2006.01) (57) ABSTRACT A6 IK35/64 (2006.01) A lip balm composition of natural ingredients, comprising: A6 IK3I/20 (2006.01) 54-70 wt.% of one or more oils, 22-28 wt.% beeswax, 3-4 wt. (52) U.S. Cl. % propolis, 3-5 wt.% pomace, 0.02-3.2 wt.% antioxidant, (58) fo - - - - - ini E.766; 424/538; 514/558 and optional ingredients, whereby all components add to 100 OSSO Sea wt.%. USPC ........................... 424/725, 766, 538; 514/558 See application file for complete search history. 15 Claims, No Drawings US 8,722,106 B2 1.
    [Show full text]
  • Kasturi Natural Oils Delhi
    KASTURI NATURAL OILS DELHI Sr # NATURAL ESSENTIAL OILS 1 AGARWOOD BEST OIL 2 AGARWOOD GRADE II OIL 3 AJOWAN OIL 4 ANISE SEED OIL 5 ASAFODETIA (HING)OIL 6 ABMREET SEED OIL 7 ANGELICA ROOT OIL 8 ANGELICA OIL 9 ANITHOL OIL 10 ASPARGAS OIL 11 AMYRIS OIL 12 AROMISE OIL 13 ARNICA OIL 14 ASHWGADHA OIL 15 APPLE SEED OIL 16 BASIL OIL 17 BAY OIL 18 BAY LAUREL OIL 19 BELA OIL 20 BERGAMOTT OIL 21 BETEL LEAF OIL 22 BLACK CURRANT OIL 23 BLACK PEPPER OIL 24 BENZOIN RESINOID OIL 25 BIRCH OIL 26 BORAGE OIL 27 BLOOD ORANGE OIL 28 CAJEPUT OIL 29 CALENDULA OIL 30 CROTON OIL 31 CARADOMOM OIL 32 CAMELLIA OIL 33 CAMPHOR OIL 34 CIVET OIL 35 CARNATION OIL 36 CADE OIL 37 CASSIA OIL 38 CELERY SEED OIL 39 CARAWAY OIL 40 CATNIP OIL 41 CAJEPUT OIL 42 CEDARWOOD OIL 43 CINNAMON OIL 44 CITRONELLA 45 CLARY SAGE 46 CLOVE OIL 47 CUMMIN SEED OIL 48 CORIANDER SEED OIL 49 CUBEB OIL 50 CALAMUS OIL 51 CUMIN OIL 52 CURRY LEAF OIL 53 CUSTARD APPLE SEED OIL 54 CYPRESS OIL 55 DILL SEED OIL 56 DAVANA OIL 57 EUCALYPTUS NILGIRI OIL 58 ELEMI OIL 59 EUGENOL OIL 60 EVENING PRIME ROSE OIL 61 FENNEL OIL 62 FIR NEDDLE OIL 63 FRANGIPANI OIL 64 FRANKINCENSE (OLIBANUM) 65 GANDHPURA OIL 66 GARDENIA OIL 67 GARLIC OIL 68 GERANIUM OIL 69 GERMAN CHAMOMILLE BLUE OIL 70 ROMAN CHAMOMILE OIL 71 GALBANUM OIL 72 GINGER OIL 73 GRAPEFRUIT OIL 74 GREEN MINT OIL 75 GURJAM BALSAM OIL 76 GUIACWOOD OIL 77 GINGER OIL 78 HELICHRYUSUM OIL 79 HAR SRINGAR OIL 80 HOPS OIL 81 HYSSOP OIL 82 HOOWOOD OIL 83 HIBISCUS OIL 84 JASMINE OIL 85 JUNIPER BERRY OIL 86 JUNIPER LEAF OIL 87 KEWRA OIL 88 KEWRA SEED OIL 89 KAPUR KACHARI
    [Show full text]
  • Extraction by Subcritical and Supercritical Water, Methanol, Ethanol and Their Mixtures
    separations Review Extraction by Subcritical and Supercritical Water, Methanol, Ethanol and Their Mixtures Yizhak Marcus Institute of Chemistry, the Hebrew University of Jerusalem, Jerusalem 91904, Israel; [email protected] Received: 5 November 2017; Accepted: 27 December 2017; Published: 1 January 2018 Abstract: Hot, subcritical and supercritical water, methanol, ethanol and their binary mixtures have been employed to treat fuels (desulfurize coal and recover liquid fuels from coal and oil shales) and to extract valuable solutes from biomass. The properties of these solvents that are relevant to their extraction abilities are presented. Various extraction methods: accelerated solvent extraction (ASE), pressurized liquid extraction (PLE), supercritical fluid extraction (SFE, but excluding supercritical carbon dioxide) with these solvents, including microwave- and ultrasound-assisted extraction, are dealt with. The extraction systems are extensively illustrated and discussed. Keywords: ethanol; methanol; water; pressurized liquid; supercritical extraction; fuels; biomass 1. Introduction The concept of “green solvents” pertains to the wider area of “green chemistry”, for which several principles have been established. These include waste prevention, safety—no toxic or hazardous materials should be used or produced—maximization of energy efficiency, and minimization of the potential for accidents—explosion, fire, and pollution possibilities must be kept in mind. In view of these principles, the chemical community is proceeding in recent years towards sustainable industrial processes. Water is the “greenest solvent” imaginable: it is readily available at the required purity, it is cheap, it is readily recycled, non-toxic, non-flammable, and environmentally friendly. In its supercritical form, water is also considered as a “green solvent” [1]. Supercritical ethanol has also been mentioned as a “green solvent” and even supercritical methanol (although much less often).
    [Show full text]
  • Bee Products
    Aloe Products Bee Products Aloe Butter Honey Granules Royal Jelly Extract Aloe Moist Honey Powder Royal Jelly Powder Aloe Vera Gel (10X, 40X) Organic Beeswax White Beeswax Filtered Pellets Aloe Vera Leaf Powder Organic Honey Powder Yellow Beeswax Filtered Pellets Aloe Vera Oil Extract Propolis Powder Aloe Vera Whole Leaf Gel (1X, 2X, 3X, 4X, 5X, 20X) Decolorized Aloe Vera Gel (1X, 10X, 40X) Natural Aloe Vera Gel Shealoe Butter Thickened Aloe Vera Gel Berry Seed Oils Black Raspberry Seed Cranberry Seed Blackberry Seed Red Raspberry Seed Aloe Products, NOP Organic Blackcurrant Seed Seabuckthorn Berry (Fruit) Organic Aloe Vera Extract Blueberry Seed Strawberry Seed Organic Aloe Vera Gel 1X Organic Freeze Dried Aloe Vera Leaf Powder Organic Spray Dried Aloe Vera Leaf Powder Botanical Extracts Astragalus Oat Straw Amazonian Lipids Black Cohosh Panax Ginseng Acai Fruit Oil Green Coffee Oil Burdock Root Peuraria Acai Seed Oil Macauba Oil Calendula Red Clover Babassu Butter Maracuja (Passion Flower) Oil Chamomile Rhodiola Rosea Babassu Oil Murumuru Butter Dong Quai Royal Jelly Bacuri Butter Pataua Oil Echinacea Herb Saw Palmetto Brazil Nut Oil Pequi Oil Echinacea Root Schisandra Buriti Fruit Oil Red Palm Fruit Oil Feverfew Siberian Ginseng Buriti Seed Oil Refined Andiroba Oil Ginger St. John’s Wort Brazil Nut Oil Roasted Coffee Oil Ginkgo Biloba Stevia Copaiba Balsam Sangre de Drago Oil Grapeseed Stinging Nettles Cupuacu Butter Ucuuba Butter Green Tea Leaf Tribulus Terrestris Hawthorn Berry Valerian Horse Chestnut Wild Willow Milk Thistle Wild
    [Show full text]