<?xml version="1.0" encoding="UTF-8"?><rss version="2.0"
	xmlns:content="http://purl.org/rss/1.0/modules/content/"
	xmlns:wfw="http://wellformedweb.org/CommentAPI/"
	xmlns:dc="http://purl.org/dc/elements/1.1/"
	xmlns:atom="http://www.w3.org/2005/Atom"
	xmlns:sy="http://purl.org/rss/1.0/modules/syndication/"
	xmlns:slash="http://purl.org/rss/1.0/modules/slash/"
	>

<channel>
	<title>Project report on soyabean oil - Technology Book - Feasibility Report - Market Survey - Industrial Report</title>
	<atom:link href="https://projectreports.eiriindia.org/product-tag/soyabean-oil/feed/" rel="self" type="application/rss+xml" />
	<link>https://projectreports.eiriindia.org/product-tag/soyabean-oil/</link>
	<description>We Create Industrialist</description>
	<lastBuildDate>Tue, 09 Nov 2021 04:44:57 +0000</lastBuildDate>
	<language>en-US</language>
	<sy:updatePeriod>
	hourly	</sy:updatePeriod>
	<sy:updateFrequency>
	1	</sy:updateFrequency>
	<generator>https://wordpress.org/?v=6.9</generator>

<image>
	<url>https://projectreports.eiriindia.org/wp-content/uploads/2018/12/cropped-logo-1-32x32.jpg</url>
	<title>Project report on soyabean oil - Technology Book - Feasibility Report - Market Survey - Industrial Report</title>
	<link>https://projectreports.eiriindia.org/product-tag/soyabean-oil/</link>
	<width>32</width>
	<height>32</height>
</image> 
	<item>
		<title>EPOXIDIZED SOYABEAN OIL  (SECONDARY PLASTICIZER) USED IN PVC COMPOUND</title>
		<link>https://projectreports.eiriindia.org/product/epoxidized-soyabean-oil-secondary-plasticizer-used-in-pvc-compound-2/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 09 Nov 2021 04:44:56 +0000</pubDate>
				<guid isPermaLink="false">https://projectreports.eiriindia.org/?post_type=product&#038;p=15174</guid>

					<description><![CDATA[<p>Epoxidized soybean Oil (ESO) is an additive to flexible Polyvinyl Chloride (PVC) that gains its name from the reaction that occurs with the unsaturated soybean oil. The epoxidation reaction takes place at a carbon to carbon double bond site. The oxygen atom (usually in the form of a peroxide or a peracid) comes in and attaches itself between the two carbons to create a single bonded triangular ring between the three molecules called an oxirane. This oxirane can be used as a way of separate well formed ESO molecules from those that will be less effective. Those ESO molecules with higher oxirane percentages will product better results than those with low oxirane percentages.</p>
<p>Because epoxidized soybean oil is synthesized from the bio-based, renewable resource of soybean crops, the level of saturation of the soybean oil and ultimately the oxirane value of the ESO created from it, is dependent on the growing conditions of the soybeans. Very hot, dry weather is known to inhibit the formation of the unsaturated C18-3 and C18-2 double bonds in the soybean oil and will therefore lead to lower oxirane values in the ESO produced from it.</p>
<p>The climate of American Midwest is very well suited to producing high oxirane value ESO. The United States is responsible for about 32% of the total soybeans grown worldwide, with Brazil and Argentina also significant producers of the oilseed.</p>
<p>Although ESO was first introduced into the plastics market over thirty years ago as a bio based plasticizer that could be a drop-in replacement to Dioctyl phthalate (DOP), it has found a strong niche as a secondary plasticizer due to its heat and light stabilization effects in PVC compounds. The epoxide group is more reactive than a double bond, thus providing a more energetically favorable site for reaction and making it a good hydrochloric acid scavenger and plasticizer.</p>
<p>Epoxidized soybean oil, better known by its acronym, ESBO, is a plasticizer used in polyvinyl chloride (PVC) plastics. It serves as a plasticizer and as a scavenger for hydrochloric acid liberated from PVC when the PVC undergoes heat treatment.</p>
<p>A few EU surveys have shown fairly high levels of ESBO in foods, in which about 4% were above the current specific migration limit (SML) for ESBO of 60 mg/kg and about 15% of the samples were above 30 mg ESBO/kg food. High migration levels might lead to an intake that exceeds the existing Tolerable Daily Intake of 1 mg/kg body weight/day.</p>
<p>Epoxidized linolein a major component of ESBO</p>
<p>ESBO is manufactured from soybean oil through the process of epoxidation. The reason why vegetable oils are widely used as plasticizers is because the high numbers of carbon-carbon double bonds present in vegetable oils make them a good target for manipulation into some other useful products like in this case - from soybean oil into epoxidized soybean oil. The epoxide group is more reactive than double bond, thus providing a more energetically favorable site for reaction and making the oil a good hydrochloric acid scavenger and plasticizer. Usually a peroxide or a peracid is used to add an atom of oxygen and convert the -C=C- bond to an epoxide group.</p>
<p>Metal closures incorporate a ring-shaped gasket formed from a bead of liquid plastisol containing up to 40% ESBO which is moulded into the correct profile in the closure shell using a hot punch, then fused by passing through an oven at 200°C for 90 seconds. PVC starts to break down at this high temperature and releases hydrogen chloride. ESBO functions as a stabilizer to scavenge this hydrogen chloride to prevent the autocatalytic breakdown of the polymer. It also functions as a plasticizer.<br />
Vegetable oil finds sustainable and renewable source of raw material. The unsaturation present in vegetable oils can be chemically modified to a value added product by a complicated reaction called ‘epoxidation’. Due to the high reactivity of the oxirane ring epoxides can also act as a raw material for synthesis of variety of chemicals such as alcohols (polyols), glycols, olefinic compounds, lubricants, plasticizer and stabilizer for polymers and their demand is increasing day by day. Vegetable oil represents one of the cheapest and most abundant biological feedstock available in large quantities and its use as starting material offers numerous advantages such as low toxicity and inherent biodegradability. Thus the economic value of the vegetable oil could be increased by converting the vegetable oil into epoxidized vegetable oil. The double bonds in the vegetable oil are used as reactive sites in the coatings and they can also be functionalized by epoxidation. Thus the high molecular weight products can be obtained by increasing the cross linking. Now due to the increasing levels of awareness regarding environment is driving the development of sustainable green materials.</p>
<p>Petrochemical based resin such as epoxy, polyester and vinyl ester find more engineering application because of their advantageous material properties such as high stiffness and strength. However these resins have serious drawbacks in terms of biodegradability, initial processing cost, energy consumption and health hazards. Consequently there is a requirement to develop novel biobased product from renewable feedstock. Therefore a number of researchers have been studied vegetable oils as alternative feedstock to substitute for petroleum. Hence it needs to be explored for the various applications in chemical industry.</p>
<p>The double bonds in the vegetable oils are used as reactive sites in coatings and they can also be functionalized by epoxidation. The utilization of epoxidized vegetable oil has become more common in the past few years. Moreover, plasticizers and additives for polymer PVC derived from vegetable oil based have been shown to have improved performance in terms of high resistance to heat and light.<br />
As energy demands increase and fossil fuel reserves are limited, there has been a growing interest in the utilization of renewable resources as an alternative to petroleum-based polymers. Consequently, much attention has been focused on the development of polymeric materials from vegetable oils, a ustainable resource. Vegetable oil, which is readily available and is a comparatively inexpensive material, can be used to synthesize various types of polymers. Today, one of the most important epoxidized vegetable oils is epoxidized soybean oil (ESO), and its worldwide production is about 200,000 t/year. Several derivatives of vegetable oils are used as polymerizable monomers in a radiation curable system due to their environmentally friendly character and low cost when compared to products from petroleum. Moreover, the long fatty acid chains of vegetable oils impart desirable flexibility and toughness to some brittle resin systems such as epoxy, urethane and polyester resins. Triglyceride oils are one of the most important sources for biopolymers. Triglycerides from plants, such as soy bean, palm, rapeseed or sun flower, can be utilized. Triglycerides are composed of three fatty acid chains joined by a glycerol center, with a typical structure.</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/epoxidized-soyabean-oil-secondary-plasticizer-used-in-pvc-compound-2/">EPOXIDIZED SOYABEAN OIL  (SECONDARY PLASTICIZER) USED IN PVC COMPOUND</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>INTRODUCTION<br />
EPOXIDIZED LINOLEIN A MAJOR COMPONENT OF ESBO<br />
CHARACTERISTICS OF EPOXIDIZED SOYABEAN OIL<br />
TYPICAL PROPERTIES OF EPOXIDIZED SOYBEAN OIL<br />
HEAT STABILITY<br />
GOOD IN NON-MIGRATION<br />
WATER RESISTANCE<br />
LOW VOLATILITY<br />
STORAGE, SAFETY, PACKING<br />
STORAGE AND TRANSPORTATION<br />
SAFETY<br />
STRUCTURE, COMPOSITION AND PROPERTIES OF VEGETABLE OILS<br />
1) COMPOSITION AND PROPERTIES<br />
CHEMICAL STRUCTURE OF COMMON FATTY ACID<br />
CHEMICAL COMPOSITION OF VEGETABLE OIL<br />
CHEMICAL COMPOSITION OF VEGETABLE OIL<br />
PROPERTIES OF VEGETABLE OIL<br />
USES AND APPLICATION<br />
APPLICATIONS<br />
TOXICITY OF EPOXIDIZED SOYABEAN OIL<br />
FOOD SAFETY AND LEGISLATION FOR EPOXIDIZED SOYABEAN OIL<br />
LEGISLATION<br />
B.I.S. SPECIFICATION<br />
GRADE OF EPOXIDIZED SOYA BEAN OIL<br />
MARKET OVERVIEW OF EPOXIDIZED SOYBEAN OIL<br />
GROWTH OPPORTUNITIES<br />
MARKET SCENARIO OF PLASTICIZER<br />
FIGURE: MARKET SHARE OF PLASTICIZERS IN VARIOUS APPLICATIONS<br />
GLOBAL MARKET TRENDS OF PLASTICIZER<br />
FIGURE: MARKET SHARE OF DIFFERENT PLASTICIZERS IN MMT/ANNUM<br />
GLOBAL PROMINENT PLAYERS<br />
TABLE: GLOBAL PLAYERS OF PLASTICIZERS<br />
FIGURE: MARKET SHARE OF VARIOUS PLASTICIZER IN USA<br />
FIGURE: MARKET SHARE OF VARIOUS PLASTICIZER IN EUROPE<br />
FIGURE: MARKET SHARE OF VARIOUS PLASTICIZER IN ASIA<br />
INDIAN MARKET TRENDS<br />
INDIAN INSTALLED CAPACITY<br />
TABLE: INSTALLED CAPACITY OF PLASTICIZER IN INDIA<br />
OUTLOOK<br />
PRESENT MANUFACTURES &amp; SUPPLIERS OF EPOXIDIZED SOYABEAN OIL<br />
FORMULATION OF EPOXIDIZED SOYABEAN OIL<br />
MANUFACUTRING PROCESS OF EPOXIDIZED SOYABEAN OIL (SECONDARY PLASTICIZER) USED IN PVC COMPOUND<br />
EPOXIDATION OF SOYBEAN OIL TO OBTAIN EPOXIDIZED SOYABEAN OIL (ESBO)<br />
PROCESS DESCRIPTION FOR EPOXIDATION OF SOYABEAN OIL<br />
SAFETY CRITERIA FOR THE EPOXIDATION OF SOYABEAN OIL<br />
SAFETY CRITERIA<br />
REACTION SCHEME OF EPOXIDATION PROCESS<br />
REACTION SCHEME<br />
SCHEME OF THE EPOXIDATION REACTIONS<br />
MASS AND ENERGY EQUATIONS<br />
PROCESS FLOW DIAGRAM OF EPOXIDIZED SOYABEAN OIL (SECONDARY PLASTICIZER) USED IN PVC COMPOUND<br />
MANUFACTURING PROCESS AND MASS BALANCE OF EPOXY PLASTICIZER<br />
CHEMICAL REACTION OF EPOXIDIZED SOYBEAN OIL<br />
MASS BALANCE OF EPOXY PLASTICIZER<br />
TESTING PROCEDUSE FOR EPOXIDIZED SOYABEAN OIL<br />
ANALYTICAL METHODS<br />
TITRATION OF EPOXY (OXIRANE OXYGEN)<br />
FTIR SPECTRUM<br />
EPOXY CONTENTS OF ESO<br />
FTIR OF TRIGLYCERIDES AND EPOXIDIZED TRIGLYCERIDES<br />
I) CONVENTIONAL CHEMICAL TREATMENT<br />
II) ACID ION EXCHANGE RESIN (AIER) METHOD<br />
III) ENZYMATIC METHOD<br />
IV) METAL CATALYST METHOD<br />
PROCESS INTENSIFICATION AND KINETICS FOR EPOXIDATION OF SOYABEAN OIL<br />
TABLE 1: KINETIC EXPRESSION, KINETIC LAWS AND ACTIVATION ENERGY<br />
REACTION MECHANISM AND KINETICS OF EPOXIDATION<br />
REACTION MECHANISM<br />
KINETICS OF EPOXIDATION<br />
THERMODYNAMIC PROPERTIES OF THE EPOXIDIZED VEGETABLE OIL<br />
CONTINUOUS EPOXIDATION FLOW PROCESS<br />
CONTINUOUS FLOW STIRRED TANK CASCADE<br />
VEGETABLE OIL<br />
PHASE-TRANSFER CATALYSED EPOXIDATION OF SOYABEAN OIL USINGHYDROGEN PEROXIDE AND SUPERCRITICAL CARBON DIOXIDE<br />
MATERIAL SAFETY DATA SHEET<br />
CHEMICAL PRODUCT AND COMPANY IDENTIFICATION<br />
HAZARD(S) IDENTIFICATION<br />
COMPOSITION / INFORMATION ON INGREDIENTS<br />
FIRST AID MEASURES<br />
FIRE-FIGHTING MEASURES<br />
ACCIDENTAL RELEASE MEASURES<br />
HANDLING AND STORAGE:<br />
EXPOSURE CONTROLS / PERSONAL PROTECTION<br />
PHYSICAL AND CHEMICAL PROPERTIES<br />
STABILITY AND REACTIVITY<br />
TOXICOLOGICAL INFORMATION<br />
PLANT LAYOUT<br />
SUPPLIERS OF RAW MATERIALS<br />
SUPPLIERS OF ACETIC ACID<br />
SUPPLIERS OF HYDROGEN PEROXIDE<br />
SUPPLIERS OF SULPHURIC ACID<br />
TURNKEY SUPPLIERS OF EPOXIDIZED SOYBEAN OIL<br />
SUPPLIERS OF PLANT AND MACHINERIES<br />
SUPPLIERS OF BOILERS<br />
SUPPLIERS OF REACTORS<br />
SUPPLIERS OF OIL STORAGE TANK<br />
SUPPLIERS OF OIL PACKAGING MACHINE<br />
SUPPLIERS OF FILTER PRESS</p>
<p>APPENDIX – A:</p>
<p>01. PLANT ECONOMICS<br />
02. LAND &amp; BUILDING<br />
03. PLANT AND MACHINERY<br />
04. OTHER FIXED ASSESTS<br />
05. FIXED CAPITAL<br />
06. RAW MATERIAL<br />
07. SALARY AND WAGES<br />
08. UTILITIES AND OVERHEADS<br />
09. TOTAL WORKING CAPITAL<br />
10. TOTAL CAPITAL INVESTMENT<br />
11. COST OF PRODUCTION<br />
12. TURN OVER/ANNUM<br />
13. BREAK EVEN POINT<br />
14. RESOURCES FOR FINANCE<br />
15. INSTALMENT PAYABLE IN 5 YEARS<br />
16. DEPRECIATION CHART FOR 5 YEARS<br />
17. PROFIT ANALYSIS FOR 5 YEARS<br />
18. PROJECTED BALANCE SHEET FOR (5 YEARS)</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/epoxidized-soyabean-oil-secondary-plasticizer-used-in-pvc-compound-2/">EPOXIDIZED SOYABEAN OIL  (SECONDARY PLASTICIZER) USED IN PVC COMPOUND</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></content:encoded>
					
		
		
			</item>
		<item>
		<title>SOLVENT EXTRACTION PLANT OF  COTTON SEED, SOYABEAN &#038; PALM OIL</title>
		<link>https://projectreports.eiriindia.org/product/solvent-extraction-plant-of-cotton-seed-soyabean-palm-oil/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 15 May 2015 09:12:01 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=4793</guid>

					<description><![CDATA[<p style="text-align: justify;">
Nigeria with a population of over 116 million is one of the most populous country in Africa.</p>
<p>Nigeria is located in West Africa with total land area of 923,768 sq km. The agriculture sector employs 70% of its labor force and contributes more than 33% to the GDP. The main crops grown are cotton, cocoa, rubber, peanuts, oil palm, maize, rice, sorghum, millet, cassava, yams, timber and livestock. The agricultural sector in Nigeria, since 1970’s has been characterized by declining productivity and increased dependence on import of food and raw materials.</p>
<p>For decades cotton production (lint and cotton seed) has been a driving force for economic development in Nigeria. The neglect of the agricultural sector during the oil boom years (1970-80’s) had a direct impact on the cotton sector. In the recent years due to poor management and reduced production of both lint and seed, the cotton sector has slackened.</p>
<p>••    INTRODUCTION<br />
•    PRESENT MANUFACTURERS/SUPPLIERS OF<br />
•    USES AND APPLICATIONS<br />
•    PROPERTIES<br />
•    STORAGE OF COTTON SEEDS, OIL AND CAKE<br />
•    USES AND APPLICATIONS<br />
•    MARKET POSITION<br />
•    EXTRACTION OF OIL FROM COTTONSEED<br />
•    PROPERTIES<br />
•    RAW MATERIALS<br />
•    ADVANTAGES OF EXPANDER -EXTRUDER - COOKER<br />
•    PROCESS OF MANUFACTURE<br />
•    PROCESS FLOW DIAGRAM OF SEED UNLOADING &#38; CLEANING SECTION<br />
•    PROCESS FLOW DIAGRAM OF SOLVENT EXTRACTION SECTION<br />
•    PROCESS FLOW DIAGRAM OF OIL REFINING SECTION<br />
•    PROCESS FLOW DIAGRAM OF OIL REFINING SECTION-CONTINUES<br />
•    PROCESS FLOW DIAGRAM OF OIL PACKING SECTION<br />
•    MATERIAL BALANCE FOR PREPARATORY SECTION<br />
•    MATERIAL BALANCE FOR SOLVENT EXTRACTION<br />
•    MATERIAL BALANCE FOR OIL REFINERY<br />
•    MANUFACTURING PROCESS DESCRIPTION<br />
•    VEGETABLE OIL REFINERIES<br />
•    GMP/GHP CRITERIA FOR FOOD<br />
•    UTILITIES<br />
•    WASTE TREATMENT<br />
•    EQUIPMENT REQUIREMENTS<br />
•    QUALITY CONTROL<br />
•    MANPOWER<br />
•    PROCESS FLOW DIAGRAM OF SOLVENT EXTRACTION PLANT<br />
•    PLANT LOCATION FACTORS<br />
•    EXPLANATION OF TERMS USED IN THE PROJECT REPORT<br />
•    PROJECT IMPLEMENTATION SCHEDULES<br />
•    IMPLEMENTATION SCHEDULE<br />
•    COMPLETE PLANT AND MACHINERY SUPPLIERS<br />
FOR SOLVENT EXTRACTION PLANT<br />
•    LIST OF PLANT AND MACHINERY SUPPLIER<br />
•    LIST OF FOOD AND AGRO PROCESSING CONSULTANTS<br />
•    COTTON SEED OIL MANUFACTURER<br />
•    LIST AND COST OF PLANT &#38; MACHINERY</p>
<p>APPENDIX – A :</p>
<p>.      COST OF PLANT ECONOMICS<br />
2.      LAND &#38; BUILDING<br />
3.      PLANT AND MACHINERY<br />
4.      FIXED CAPITAL INVESTMENT<br />
5.      RAW MATERIAL<br />
6.      SALARY AND WAGES<br />
7.      UTILITIES AND OVERHEADS<br />
8.      TOTAL WORKING CAPITAL<br />
9.      COST OF PRODUCTION<br />
10.      PROFITABILITY ANALYSIS<br />
11.      BREAK EVEN POINT<br />
12.      RESOURCES OF FINANCE<br />
13.      INTEREST CHART<br />
14.      DEPRECIATION CHART<br />
15.      CASH FLOW STATEMENT</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/solvent-extraction-plant-of-cotton-seed-soyabean-palm-oil/">SOLVENT EXTRACTION PLANT OF  COTTON SEED, SOYABEAN &#038; PALM OIL</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>The post <a href="https://projectreports.eiriindia.org/product/solvent-extraction-plant-of-cotton-seed-soyabean-palm-oil/">SOLVENT EXTRACTION PLANT OF  COTTON SEED, SOYABEAN &#038; PALM OIL</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></content:encoded>
					
		
		
			</item>
		<item>
		<title>Technology Book of Oilseeds Processing, Oils &#038; Fats and Refining</title>
		<link>https://projectreports.eiriindia.org/product/technology-oilseeds-processing-oils-fats-refining/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 19 Feb 2014 09:49:22 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1232</guid>

					<description><![CDATA[<p>The book Technology of Oilseeds Processing, Oils &#038; Fats and Refining  covers Chemical constituents of Fats, Oleaginous Seeds and their oils, Olive and Olive Oil, Palm Oil and Its Fractions, Animal Fat, Technology of Refining of Fats,  Hydrogenation Technology, Fractionation Technology, Margarine Technology,Production of Neat Soap with 63% fatty acids, Oilseed Processing Technology.</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/technology-oilseeds-processing-oils-fats-refining/">Technology Book of Oilseeds Processing, Oils &#038; Fats and Refining</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>The role of dietary fats and oils in human nutrition is one of the most important areas of concern and investigation in the field of nutritional science. The findings of investigations on this subject have wide-ranging implications for consumers, healthcare providers and nutrition educators as well as food producers, processors and distributors. New evidence concerning the benefits and risks associated with particular aspects of dietary fat is constantly emerging in both the scientific literature and the popular media. At times, controversies about these findings emerge. Sifting through all the claims and counterclaims, incomplete and incompatible studies, and biases and competing interests for the elements of truth and a prudent course of action is a challenge. However, such discrimination in essential because changing views about the effects of dietary fats and oils can profoundly influence the consumption of various foods and, ultimately, health and nutritional status, agricultural production, food processing technologies, food marketing practices and nutrition education. Fats are the main source of energy for satisfactory growth and physical activity during early infancy. This energy requirement is not easily met where diets are low in fat (less than 15 per cent of total calories), which partly explains the high prevalence of malnutrition in such areas. Fats should also be considered in terms of their structural function during the first two years of life. They provide the fatty acids and cholesterol needed to form cell membranes in all the organs.</p>
<p>Moreover, important organs such as the retina and the central nervous system are mainly composed of fats. Most of the fats needed to form these tissues are essential fatty acids (EFAs) which cannot be synthesized by the organism and have to be acquired through nutrition. Mother&#8217;s milk has a special fat composition that makes it unique for goodchild nutrition. It contains factors that facilitate the digestion of fats, while its chemical composition makes it more digestible and includes a balanced supply of n-6 and n-3 fatty acids. Oilseed processing equipment with a daily capacity of less than 50 tons per day typically employs a mechanical extraction process to separate the oil from an oilseed. Mechanical extraction processes apply pressure to separate oil from the meal in an oilseed. A common method for applying mechanical pressure is through a screw press.</p>
<p>Within India there are regional variations in ghani design, which probably arose form the nature of the oilseeds that were regionally available for crushing. The large granite ghanis of southern India have a capacity of 35 to 40 kg, requiring two animals yoked side by side and two operators, one for the animals and the other near the mortar. The load-beam is very long and curved and rides on a strong outer groove on the mortar. These ghanis have a life of four to five years, after which the pit is too worn to be useful. The wooden ghani of western India has a capacity of 8 to 15 kg, has an oil outlet at the base of the pit (which is kept plugged during crushing) and frequently has the operator seated on the load-beam. Margarine is an emulsion of water in oil type (W/O) which include two essential phases: continuous phase: FATTY PHASE dispersed phase: AQUEOUS PHASE It contains also some additives (lecithin, monoglycerides, salt, colouring agent, antioxidant, preservatives, vitamins) distributed partly in the fatty phase (soluble or dispersible in fats) and partly in the aqueous phase (soluble or dispersible in water and/or milk). Emulsion is a liquid system including two immiscible phases, one being finely dispersed in the other. But because of its thermodynamic instability, the emulsion tends to separate for restructuring the two original phases. In the case of margarine, it is therefore necessary to facilitate emulsion and to stabilize that condition. This is the role of emulsifying agents which reduce the quantum of labour for formation of a homogeneous mixture of these two immiscible phases, final stability of the product is obtained by crystallization of the fatty phase in the emulsion.</p>
<p>The complete definition of margarine is thus one of a polydispersed system of fats to solid and liquid states, in water and/ or milk, of ingredients and sometimes of gas bubbles. Mechanical extraction processes have two main elements. The first is seed preparation. Seed preparation methods vary depending on seed characteristics. For example, seed preparation for canola often is limited to seed cleaning while other oilseeds may need to be cleaned, de-hulled, cracked, rolled, and/or flaked. Additional equipment may be required to complete seed preparation. A producer should identify the oilseeds that they are likely to process in order to determine exactly what equipment will be needed.The second element is the removal of oil from the oilseed. In a screw press operation, seed is fed from a hopper into the screw press, which uses pressure to force oil contained in an oilseed through small openings in the side of the press. Meal, that is too large to exit through the small openings is extruded through larger openings at the end of the press. Screw presses are capable of removing approximately 65 percent to 75 percent of the oil contained in an oilseed. Some mechanical presses preheat seed as it enters the press. Preheating increases oil recovery rates to 65 percent to 80 percent. Alternatively, if seed is processed at low temperatures (for example, below freezing) oil recovery rates may be less than 60 percent. Actual recovery rates will depend on press quality, press operation, seed quality, seed type and seed temperature.</p>
<p>The present volume <b><i>Technology of Oilseeds Processing, Oils &amp; Fats and Refining </i></b>contains 11 chapters on various aspects of oilseed processing refining, i.e. <i>Chemical Constituents of Fats, Oleaginous Seeds and their Oils, Olive and Olive Oil, Palm Oil and its Fractions, Animal Fat, Technology of Refining of Fats, Hydrogenation Technology, Fractionation Technology, Margarine Technology, Production of Neat Soap with 63% Fatty Acids, Oilseed Processing Technology</i></p>
<p>&nbsp;</p>
<p><strong>TECHNOLOGY OF OILSEEDS PROCESSING, OILS &amp; FATS AND REFINING</strong> contains:</p>
<p><strong>Chemical Constituents<br />
of Fats</strong></p>
<ul>
<li>Fatty acids</li>
<li>Rules of Nomenclature</li>
<li>Numbering</li>
<li>Nomenclature</li>
<li>Symbols</li>
<li>Saturated Acids</li>
<li>Acids with an even number of carbon atoms</li>
<li>Acids with an odd number of carbon atoms</li>
<li>Branched chain acids</li>
<li>Monoenic acids</li>
<li>Monoenic acids: ethylene bond at 9</li>
<li>Monoenic acids: ethylene</li>
<li>bond at n – 9</li>
<li>Position isomers of oleic acid</li>
<li>Monoenic acids: trans ethylene bond</li>
<li>Monoenic acids: terminal ethylene bond</li>
<li>Polyenic Acids</li>
<li>Other Polyunsaturated Acids</li>
<li>Acids with conjugated</li>
<li>ethylene bonds</li>
<li>Cyclic Acids</li>
<li>Cyclopropenic Acids</li>
<li>Cyclopentenic Acids</li>
<li>Semisynthesized Cyclic</li>
<li>Acids</li>
<li>Acids with Secondary Groups</li>
<li>Hydroxy Acids</li>
<li>Epoxy Acids and Ketoacids</li>
<li>Fatty Acid Distribution</li>
<li>Glycerides</li>
<li>Overview</li>
<li>Stereospecific numbering</li>
<li>and nomenclature</li>
<li>Partial Glycerides</li>
<li>Single-acid diglycerides</li>
<li>Diglycerides with two fatty acids</li>
<li>Triglycerides</li>
<li>Glyceride Structure</li>
<li>Glyceride Composition</li>
<li>Glyceride Distribution</li>
<li>Hypothesis and Distribution Laws</li>
<li>Minor Constituents</li>
<li>Phosphatides</li>
<li>Phosphatidic Acids</li>
<li>Phosphatidyl Amino Alcohols</li>
<li>Phosphatidyl Polyols</li>
<li>Phosphoglyceride Fatty Acids</li>
<li>Sphingolipids</li>
<li>Glucolipids</li>
<li>Monogalactosyl diglyceride Cerides</li>
<li>Unsaponifiable Matter</li>
<li>Triterpenes and their Derivatives</li>
<li>Fat-Soluble Vitamins</li>
<li>Vitamin E, Tocopherols and Tocotrienols</li>
<li>Forms of Vitamin A</li>
<li>Forms of Vitamin D</li>
<li>Fatty Alcohols</li>
<li>Hydrocarbons</li>
<li>Aliphatic Hydrocarbons</li>
<li>Terpenic Hydrocarbons</li>
<li>Carotenes and Carotenoids</li>
<li>Other Constituents</li>
<li>Chlorophylls and their Derivatives</li>
</ul>
<p><strong>Oleaginous Seeds<br />
and their Oils</strong></p>
<ul>
<li>Oil Composition</li>
<li>Oleic Sunflower</li>
<li>Rapeseed and mustard</li>
<li>Rapeseed and Mustard Species</li>
<li>Rapeseed or Mustard Plant</li>
<li>Agronomy of Rapeseed and Mustard</li>
<li>Genetic Improvements</li>
<li>Rapeseed and Mustard Seed</li>
<li>Fatty Acids of Rapeseed and Mustard Oils</li>
<li>Unsaponifiable Fraction of Rapeseed Oil</li>
<li>SOYBEAN</li>
<li>Plant</li>
<li>Seed</li>
<li>Composition of Soybean Oil</li>
<li>Corn and Grapeseeds</li>
<li>Corn</li>
<li>Botany, Crop Growing, Production</li>
<li>Technology</li>
<li>Oil</li>
<li>Physicochemical Characteristics</li>
<li>Triglyceride Composition</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Grapeseeds</li>
<li>Botany, Growing, Production</li>
<li>Technology</li>
<li>Grapeseed Oil</li>
<li>Physicochemical Characteristics</li>
<li>Triglyceride Composition</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Safflower, sesame, Camelina, poppy seed oil</li>
<li>Safflower</li>
<li>Botany, Growing, Production Technology</li>
<li>Safflower Oil</li>
<li>Physicochemical Characteristics</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Sesame</li>
<li>Botany, Growing, Production</li>
<li>Technology</li>
<li>Sesame Oil</li>
<li>Physicochemical Characteristics</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Camelina</li>
<li>Botany, Growing, Production</li>
<li>Camelina Oil</li>
<li>Physicochemical Characteristics</li>
<li>Fatty Acid Composition</li>
<li>Unsaponifiable Fraction</li>
<li>Poppy Seed Oil</li>
<li>Botany, Growing, Production</li>
<li>Poppy Seed Oil</li>
<li>Physicochemical Characteristics</li>
<li>Triglyceride Composition</li>
<li>Fatty Acid Composition</li>
<li>Unsaponifiable Fraction</li>
<li>Oleaginous Flax</li>
<li>Seed</li>
<li>Oil Composition</li>
<li>Almond, Hazelnut, Walnut</li>
<li>Almond</li>
<li>Botany, Growing, Production</li>
<li>Almond Oil</li>
<li>Physicochemical Characteristics</li>
<li>Composition of Triglycerides</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Hazelnut</li>
<li>Botany, Growing, Production</li>
<li>Technology</li>
<li>Hazelnut Oil</li>
<li>Physicochemical Characteristics</li>
<li>Triglyceride Composition</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Walnut</li>
<li>Botany, Growing, Production</li>
<li>Technology</li>
<li>Walnut Oil</li>
<li>Physicochemical Characteristics</li>
<li>Fatty Acid Composition</li>
<li>Composition of Unsaponifiable Fraction</li>
<li>Evening Primrose, Borage, And Blackcurrant Seeds</li>
<li>Overview</li>
<li>Evening Primrose</li>
<li>Botany and Genetics of Primrose</li>
<li>The Œnothera genus</li>
<li>Evening Primrose Seed</li>
<li>Upgrading of the Evening Primrose for Production</li>
<li>of g-Ln</li>
<li>Evening Primrose Oil</li>
<li>Borage</li>
<li>Seed</li>
<li>Some Agronomical Data</li>
<li>Borage Oil</li>
<li>&#8220;Virgin&#8221; Oil or &#8220;Refined&#8221; Oil ?</li>
<li>Main Uses of Borage Oil</li>
<li>Blackcurrant Seeds</li>
<li>Botany</li>
<li>Blackcurrant Seed Oil</li>
<li>Main Uses of Blackcurrant Seed Oil</li>
<li>Competing</li>
<li>Biotechnologies</li>
</ul>
<p><strong>Olive and Olive Oil</strong></p>
<ul>
<li>The Olive and its tree</li>
<li>Composition and characteristics of olive oil</li>
<li>Triglyceride composition</li>
<li>Fatty Acid Distribution in Internal and External Positions</li>
<li>Fatty Acid Composition</li>
<li>Unsaponifiable Matters</li>
<li>Contaminants</li>
<li>Quality and specifications:</li>
<li>The International COI Standard</li>
</ul>
<p><strong><br />
Palm Oil and its Fractions</strong></p>
<ul>
<li>The plant</li>
<li>Botany</li>
<li>Crop growing techniques</li>
<li>Ecology &amp; Growing Area</li>
<li>Yields and Production</li>
<li>Palm oil</li>
<li>Characteristics and Chemical Composition</li>
<li>Utilization</li>
</ul>
<p><strong>Animal Fat</strong></p>
<ul>
<li>Fat rendering industry land animal</li>
<li>Raw Material</li>
<li>Source</li>
<li>Characteristics</li>
<li>Collecting Fat</li>
<li>Rendering Process Principle</li>
<li>Batch dry Rendering System</li>
<li>Continuous Wet Rendering System</li>
<li>Continuous Dry Rendering System</li>
<li>Materials</li>
<li>Metal Elimination</li>
<li>Cookers</li>
<li>Pre-heaters</li>
<li>Dryers</li>
<li>Separators</li>
<li>Bone fat extraction</li>
<li>Choice of a rendering process</li>
</ul>
<p><strong>Technology of Refining of Fats</strong></p>
<ul>
<li>Minor Components and Contaminants to be Eliminated</li>
<li>Free Fatty Acids</li>
<li>Partial Glycerides</li>
<li>Phospholipids</li>
<li>Colouring Agents</li>
<li>Free Sugars, Glycolipids</li>
<li>Hydrocarbons, Resins</li>
<li>Sterols</li>
<li>Tocopherols</li>
<li>Waxes</li>
<li>Metal Compounds</li>
<li>Flavours</li>
<li>Naturally Food-Borne Toxic Substances</li>
<li>Substances of External Origin</li>
<li>Receiving and Storing Crude Oils</li>
<li>Quality Control before Unloading</li>
<li>Crude Oil Warehousing</li>
<li>Determining Quantities, Gaugings</li>
<li>Classical Chemical Refining</li>
<li>Eliminating Phospholipids</li>
<li>Caustic Soda Neutralization</li>
<li>Waterwashing</li>
<li>Drying</li>
<li>Quality Control of Neutral Oil</li>
<li>Acidity</li>
<li>Moisture Content</li>
<li>Phosphorous</li>
<li>Soap</li>
<li>Neutralization Equipment Technology: Pumps, Exchangers, Mixers, Contactors</li>
<li>Feed Pumps</li>
<li>Dosing Pumps</li>
<li>Flow-Meters</li>
<li>Disc Heat-Exchangers</li>
<li>Spiral Exchangers</li>
<li>Welded Plate Heat-Exchangers</li>
<li>&#8220;Compablock&#8221; Exchangers</li>
<li>Scraped Surface Heat Exchangers</li>
<li>Mixers and Contactors</li>
<li>Neutralization Equipment Technology: Centrifugal Separators</li>
<li>Different Types of Continuous Centrifugal Separators</li>
<li>Peripherals of the Centrifugal Separators</li>
<li>Programming System of the Self-Cleaning Separators</li>
<li>Theoretical Data Determining the Bowls Characteristics</li>
<li>Study of Some Equipments</li>
<li>Cylindrical Bowls Separators</li>
<li>Westfalia&#8217;s Separators, Type RTA or OSM with Double Turbine</li>
<li>Alfa-Laval type SRG separator</li>
<li>Separators with Self-Cleaning Bowls</li>
<li>Westfalia&#8217;s Type RSA Self-Cleaning</li>
<li>Separators</li>
<li>Alfa-Laval Type SRPX</li>
<li>Self-cleaning Separators</li>
<li>Bowls Cleaning,</li>
<li>Starting up and Ending Procedures</li>
<li>Self-cleaning Bowls</li>
<li>Dismantling the Bowls</li>
<li>Reassembling the Bowls</li>
<li>Starting and Stopping a Centrifuge</li>
<li>Neutralization Loss</li>
<li>Determining Neutralization</li>
<li>Loss Using an Inventory Balance</li>
<li>Determination Using Loss Control</li>
<li>Determining Neutralization Loss with Chemical Methods</li>
<li>Bleaching</li>
<li>The Absoption Phenomenon</li>
<li>Bleaching Agents</li>
<li>Bleaching Clays</li>
<li>Activated Carbon</li>
<li>Side Effects of Bleaching Agents</li>
<li>&#8220;Trisyl&#8221; and other Similar Products</li>
<li>Bleaching Monitoring</li>
<li>Filtration and filters</li>
<li>Porous Walls</li>
<li>Filters: Process and Technology</li>
<li>Example of a Metallic Cloth Filter: Niagara Filter</li>
<li>Example of a Metal Mesh Filter:</li>
<li>Funda Filter</li>
<li>Example of a Metal Mesh Filter: Bernardini Filter</li>
<li>Plugging of Metal Filters</li>
<li>Safety Filters</li>
<li>Filters Using Paper Filtering Discs: Filter Presses</li>
<li>Filters Using Filtration Discs: Bubble Cap Filters</li>
<li>Filtration Quality Control &#8211; Computerizing  the Process</li>
<li>Control with a Filtration Test</li>
<li>Control with a Turbidity Measure</li>
<li>Monitek Turbidity Instrument</li>
<li>APV-Bowser Turbidity Instrument</li>
<li>De-Oiling Spent Earth</li>
<li>Analyses to be Carried Out on Bleached Oil</li>
<li>Dewaxing Vegetable Oils</li>
<li>Waxes &amp; their Measuring</li>
<li>Dewaxing by Filtration</li>
<li>Dewaxing by Centrifugation, Double Purification</li>
<li>Pre-Dewaxing by Chilling and Centrifugating after Neutralization</li>
<li>Pre-Dewaxing by Chilling and Centrifugating after Partial Neutralization</li>
<li>Pre-Dewaxing by Cold Degumming</li>
<li>Eliminating Spent Earths</li>
<li>&#8220;Demargarination&#8221; of Selectively Hydrogenized Oils</li>
<li>Prechilling Peanut Oils</li>
<li>Deodorization</li>
<li>Flavour and Odour Releasing Substances</li>
<li>Substances Characterizing Non-Alterated Oil</li>
<li>Substances Produced by Oil Degradation</li>
<li>Basic Principles of Deodorization</li>
<li>Influence of Various Parameters</li>
<li>Amount of Steam Injected</li>
<li>Influence of Temperature</li>
<li>Influence of the Duration of the Operation</li>
<li>Influence of Pressure</li>
<li>Influence of the Way Cooling is Conducted</li>
<li>Loss During Deodorization</li>
<li>Inevitable Loss</li>
<li>Other Loss</li>
<li>Product Quality</li>
<li>Deodorization Equipment</li>
<li>Example of a Semicontinuous Deodorizer</li>
<li>Example of a Continuous Deodorizer</li>
<li>Semicontinuous Deodorizer with Continuous Inlet and Outlet</li>
<li>Thin Film Deodorization</li>
<li>Saturation with Nitrogen</li>
<li>Pollution and Nuisance Due to Deodorization</li>
<li>Physical Refining</li>
<li>Basic Principles</li>
<li>Superdegumming</li>
<li>treating the by-products</li>
<li>Soapstocks</li>
<li>Earths From Bleaching</li>
<li>Earths from Dewaxing</li>
<li>Deodorization By-products</li>
<li>Waste Water Treatment</li>
</ul>
<p><strong>Hydrogenation Technology</strong></p>
<ul>
<li>Diagrammatic Principle of Hydrogenation</li>
<li>Hydrogen</li>
<li>Catalysts</li>
<li>Different Types of Catalysts</li>
<li>Catalyst Poisons</li>
<li>Fats and Oils to be Hydrogenated</li>
<li>Hydrogenation Equipment</li>
<li>Discontinuous or Vat Process</li>
<li>DEAD-END System</li>
<li>Continuous Hydrogenation</li>
<li>Comparison with Discontinuous Processes</li>
<li>Principle of Continuous Process</li>
<li>Equipment Models</li>
<li>Separation of Catalyst &amp; Operations</li>
<li>Filtration Conditions</li>
<li>Filtration Apparatus</li>
<li>Handling of Catalyst</li>
<li>General Layout of an Installation</li>
<li>Improvement in Hydrogenation Techniques</li>
<li>New Stirring Techniques</li>
<li>BUSS Loop Reactor</li>
<li>Helicoidal L.M. LITZ</li>
<li>Mechanism</li>
<li>Other Hydrogenation Techniques</li>
<li>Improvement in Energy Yield</li>
<li>Control of Reaction</li>
<li>Process Control</li>
<li>Controlling the End of</li>
<li>Reaction (End Point)</li>
<li>Control of Finished Product</li>
<li>Characteristics of Some Hydrogenated Oils</li>
<li>Safety Problems</li>
<li>Hydrogen-Related Problems</li>
<li>Problems in Handling of Catalyst</li>
<li>Problems of Installation Safety</li>
</ul>
<p><strong>Fractionation Technology</strong></p>
<ul>
<li>Fractionation of palm oil</li>
<li>Fractionation of lightly hydrogenated lard or tallow</li>
<li>Fractionation of Hydrogenated Oils</li>
<li>Dewaxing of Sunflower Oil</li>
<li>Different Methods of Fractionation</li>
<li>Chromatography</li>
<li>Fractionated Crystallization</li>
<li>Liquid/liquid Extraction</li>
<li>Fractionated Crystallization</li>
<li>Principle and Method</li>
<li>Some Theoretical Considerations on Crystallization Technology</li>
<li>Heat transfer between</li>
<li>Rate of nuclei diffusion</li>
<li>Effect of Temperature Gradient (At)</li>
<li>Effect of the Surface (S) of Transfer</li>
<li>Effect of Viscosity</li>
<li>Dry Fractionation</li>
<li>Principle</li>
<li>The TIRTIAUX Process</li>
<li>Fractionation in Solvent</li>
<li>Phase</li>
<li>Principle</li>
<li>Operating Conditions</li>
<li>Installation of Fractionation by Solvent</li>
<li>Fractionation in Presence of Detergent (Lanza process)</li>
<li>Principle</li>
<li>Operating Conditions</li>
<li>Installation Using LANZA Process</li>
<li>Brief Comparison of the Three Processes</li>
<li>Liquid/Liquid Fractionation</li>
<li>Freeman Rule</li>
</ul>
<p><strong>Margarine Technology</strong></p>
<ul>
<li>General Production</li>
<li>Principles</li>
<li>Importance of Crystallization</li>
<li>Polymorphism</li>
<li>Mixed Crystals</li>
<li>Dimension and Form of Crystals</li>
<li>Importance of Rate of Solid</li>
<li>Does the Aqueous Phase and Ingredients Have a Role to Play?</li>
<li>General Production Pattern</li>
<li>Vegetable Oils and Fats</li>
<li>Animal Oils</li>
<li>Formulation of Fatty Phases</li>
<li>Equivalent of Rates of Solids</li>
<li>Introduction of Data of Crystallization</li>
<li>Problems Linked to Hardness</li>
<li>Evaluation of Margarine for Pastry</li>
<li>Elasticity and Spread</li>
<li>Taste of Margarines</li>
<li>Melting Speed</li>
<li>Sensation of  &#8220;freshness &#8220;</li>
<li>Sensation of  &#8220;thickness&#8221;</li>
<li>Oil Exudation</li>
<li>Characteristics of the Fatty Phase</li>
<li>Production Additives and Auxiliaries</li>
<li>Ingredients Soluble in the Fatty Phase</li>
<li>Emulsifying Agent</li>
<li>Monoglycerides of Fatty Acids</li>
<li>Colouring agents</li>
<li>Aromas Soluble in Fatty Phase</li>
<li>Liposoluble Vitamins</li>
<li>Ingredients Soluble in Aqueous Phase</li>
<li>Water</li>
<li>Milk</li>
<li>Salt</li>
<li>Preservatives</li>
<li>pH Regulators</li>
<li>Antioxidants</li>
<li>Emulsion Preparation</li>
<li>Preparation of the Fatty</li>
<li>Phase</li>
<li>Preparation of Aqueous</li>
<li>Phase</li>
<li>Water and Brine</li>
<li>Sugar</li>
<li>Matured Milk</li>
<li>Acidity Regulator</li>
<li>Final Emulsion</li>
<li>Diverse Processes of Manufacture</li>
<li>Semi-Continuous</li>
<li>Processes or Proces-</li>
<li>ses on Drum</li>
<li>The Traditional Processes Represented by the</li>
<li>System of Tubular</li>
<li>Cooling and Scraped Surface</li>
<li>VOTATOR Process</li>
<li>The Perfector System</li>
<li>Conditioning</li>
<li>Quality Control</li>
<li>Control During Manufacture</li>
<li>Control of the Fat Phase</li>
<li>Salt and Sugar</li>
<li>Testing the Finished</li>
<li>Product</li>
<li>Testing the Water Content</li>
<li>Testing Weight of Bricks</li>
<li>Salt Content</li>
<li>Content of Air and Occluded Gases</li>
<li>pH Measurement</li>
<li>Measurement of Hardness</li>
<li>Other Tests</li>
<li>Organoleptic Quality</li>
<li>Bacteriological Control</li>
<li>Packaging Checks</li>
<li>Oil Emulsions in Water</li>
<li>Emulsions</li>
<li>Physical Stability</li>
<li>Sedimentation or Creaming</li>
<li>Floculation or Coagulation</li>
<li>Coalescence or Rupture of Emulsion</li>
<li>Bacteriological Stability</li>
<li>Organoleptic Stability</li>
<li>Mayonnaise</li>
<li>Definition</li>
<li>Raw Materials Used</li>
<li>Oil</li>
<li>Egg yolk</li>
<li>Mustard</li>
<li>Vinegar</li>
<li>Other Ingredients</li>
<li>Additives and Aromas</li>
<li>Formulation</li>
<li>Production</li>
<li>Discontinuous Production</li>
<li>Quality Control</li>
<li>Mayonnaise</li>
<li>Raw Materials</li>
<li>Packaging</li>
<li>Sauces</li>
<li>Variety Sauces</li>
<li>Bearnaise Sauce</li>
<li>Tartar Sauce</li>
<li>Burgundy Sauce</li>
<li>Ailloli Sauce</li>
<li>Salad Sauces</li>
<li>Vinegar</li>
</ul>
<p><strong>Production of Neat Soap with 63% Fatty Acids</strong></p>
<ul>
<li>Saponification Reaction</li>
<li>Batch Process</li>
<li>Equipment</li>
<li>Saponification</li>
<li>Washing</li>
<li>Fitting</li>
<li>Continuous Processes</li>
<li>Sharples Process</li>
<li>Monsavon Process</li>
<li>Alfa-Laval Process</li>
<li>Saponification</li>
<li>Mazzoni Process</li>
<li>Washing cycles</li>
<li>Latest Developments in Processes</li>
<li>Other Processes</li>
<li>Soap from Fatty Acids</li>
<li>Methyl Ester Soap</li>
<li>Miscellaneous Processes</li>
<li>Drying and Finishing of Soap</li>
<li>Drying of Household Soaps</li>
<li>Drying of Toilet Soap</li>
<li>Finishing of Toilet Soap</li>
<li>Wrapping and Packaging</li>
<li>Glycerine Recovery</li>
<li>Lye Processing</li>
<li>Concentration</li>
<li>Distillation</li>
<li>Bleaching</li>
</ul>
<p><strong>Oilseed Processing Technology</strong></p>
<ul>
<li>Importance of fats and oils</li>
<li>Availability of edible oils</li>
<li>Traditional oil processing</li>
<li>Ghani technology</li>
<li>Crushing oilseeds</li>
<li>Oil yield</li>
<li>Evolution of oil</li>
<li>processing</li>
<li>Advantages and disadvantages of ghani crushing</li>
<li>Authenticity of edible oils</li>
<li>Olive oil</li>
<li>Purity criteria</li>
<li>Free Fatty Acid</li>
<li>Content (FFA)</li>
<li>Peroxide Value (PV)</li>
<li>Specific Extinction (SE)</li>
<li>Fatty Acid Composition</li>
<li>Sterol Composition</li>
<li>Codex standards to combat fraud</li>
<li>Future developments</li>
<li>Recommendations on</li>
<li>Fats and Oils in Human Nutrition</li>
<li>Minimum Desirable</li>
<li>Intakes for Adults</li>
<li>Recommendations</li>
<li>Minimum desirable intakes for infants and young children</li>
<li>Recommendations</li>
<li>Upper limits of dietary fat and oil intakes</li>
<li>Recommendations</li>
<li>Saturated and unsaturated fatty acids and cholesterol</li>
<li>Recommendations</li>
<li>Isomeric fatty acids</li>
<li>Recommendations</li>
<li>Substances associated with fats and oils</li>
<li>Recommendations</li>
<li>Essential fatty acids</li>
<li>Recommendations</li>
<li>Dietary information and programme needs</li>
<li>Recommendations</li>
</ul>
<p>The post <a href="https://projectreports.eiriindia.org/product/technology-oilseeds-processing-oils-fats-refining/">Technology Book of Oilseeds Processing, Oils &#038; Fats and Refining</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></content:encoded>
					
		
		
			</item>
		<item>
		<title>agro food processing and packaging technology book</title>
		<link>https://projectreports.eiriindia.org/product/agro-food-processing-packaging-technology-e-book/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Sat, 15 Feb 2014 11:01:57 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1141</guid>

					<description><![CDATA[<p>AGRO FOOD PROCESSING AND PACKAGING TECHNOLOGY FOOD LAWS Introduction Food safety and standard act The ABCD of FSSA Salient features of FSSA Responsibilities of the food business operator Improvement notices Offences and penalties Licensing and registration Nutrition labelling Requirements Content on label Hazard analysis and critical control point (HACCP) IS 15000) Principles of HACCP Features Some salient points are Benefits of HACCP License process Food safety management systems certification scheme (IS/ISO 22000) Features Benefits Licence procedure ISI Mark: Bureau of Indian Standards (BIS, 1986) Features License procedure Weight and Measure&#8230;</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/agro-food-processing-packaging-technology-e-book/">agro food processing and packaging technology book</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p><strong>AGRO FOOD PROCESSING AND PACKAGING TECHNOLOGY</strong></p>
<p>FOOD LAWS</p>
<p>Introduction<br />
Food safety and standard act<br />
The ABCD of FSSA<br />
Salient features of FSSA<br />
Responsibilities of the food business operator<br />
Improvement notices<br />
Offences and penalties<br />
Licensing and registration<br />
Nutrition labelling<br />
Requirements<br />
Content on label<br />
Hazard analysis and critical control point (HACCP) IS 15000)<br />
Principles of HACCP<br />
Features<br />
Some salient points are<br />
Benefits of HACCP<br />
License process<br />
Food safety management systems certification scheme (IS/ISO 22000)<br />
Features<br />
Benefits<br />
Licence procedure<br />
ISI Mark: Bureau of Indian Standards (BIS, 1986)<br />
Features<br />
License procedure<br />
Weight and Measure Act<br />
Regulations<br />
Package Commodity Act<br />
Regulations</p>
<p><strong>READY-TO-EAT SNACKS EXTRUSION TECHNOLOGY</strong></p>
<p>Introduction<br />
Materials and methods<br />
Raw materials<br />
Dehulling and milling<br />
Formulations used<br />
Extrusion conditions for lab scale extruder<br />
Spicing of samples<br />
Sensory evaluation<br />
Physical characteristics<br />
Proximate composition<br />
Consumer acceptability of extruded snacks<br />
Results<br />
Sensory evaluation<br />
Physical parameters of the extrudates<br />
Proximate composition of the extrudates<br />
Consumer evaluation of products</p>
<p><strong>POTATO CHIPS</strong></p>
<p>Introduction<br />
Materials and methods<br />
Procurement of raw material<br />
Preparation of potato chips<br />
Fat analysis<br />
Sensory Evaluation<br />
Statistical analysis<br />
Results and discussion</p>
<p><strong>READY TO EAT PROTEIN RICH FOOD BARS</strong></p>
<p>Introduction<br />
Formulation and preparation of protein rich food bars<br />
Results<br />
Organoleptic evaluation of protein rich rood bars<br />
Proximate chemical composition, mineral content and IVPD of most acceptable protein in rich food bars</p>
<p><strong>GRADING AND SORTING FOOD PRODUCTS USING COMPUTER</strong></p>
<p>Introduction<br />
Digital image processing<br />
Fundamental steps in image processing<br />
Image acquisition<br />
Image preprocessing<br />
Image segmentation<br />
Image representation and descriptioner<br />
Image recognition and interpretation<br />
Elements of digital image processing system<br />
Automatic grading and sorting of food products using computer vision systems<br />
Bakery products<br />
Fruits<br />
Vegetables<br />
Grains<br />
Limitations of the system</p>
<p><strong>IQF FREEZING AND APPLICATION</strong></p>
<p>IQF  Spiral Freezers<br />
Applications<br />
Benefits<br />
Low operation cost<br />
Impingement Polybelt Tunnel Freezer<br />
Applications<br />
Modular IQF fluidized tunnelfreezer<br />
Multipass belt tunnel freezer<br />
Applications<br />
Tray IQF fluidized tunnel freezer<br />
Applications<br />
Drag-thru-dolly tunnel freezer<br />
Application</p>
<p><strong>FOOD CANNING</strong></p>
<p>Plant site<br />
Factory building<br />
Water supply and drainage<br />
Workers<br />
Machinery and equipment<br />
Canning method<br />
Key processes<br />
Sorting  and grading<br />
Washing<br />
Peeling, coring and pitting<br />
Hand peeling<br />
Peeling, coring and pitting by machine<br />
Peeling by heat<br />
Lye peeling<br />
Blanchng<br />
Can filling<br />
Syruping or brining<br />
Lidding or clinching<br />
Exhausting<br />
Sealing<br />
Processing/Manufacturing<br />
Heat penetration in cans<br />
Manufacturing processes<br />
Non-acid Vegetables<br />
Effect of altitude on processing time<br />
Effect of altitude on processing pressure and temperature<br />
Effect of acidity on sterilization<br />
Effect of processing on strain in can<br />
Cooling Testing<br />
Labelling, storing and packing</p>
<p><strong>FRUITS CANNING TECHNOLOGY</strong></p>
<p>Canning of fruits<br />
Apples<br />
Storage<br />
Washing<br />
Grading<br />
Peeling and coring<br />
Blanching<br />
Canning<br />
Filling<br />
Exhausting<br />
Sterilizing<br />
Cooling<br />
Mangoes<br />
Oranges<br />
Papaya<br />
Pineapple<br />
Harvesting<br />
The Ginaca machine<br />
Trimming<br />
Slicing<br />
Grading and packing<br />
Prevacuumizing<br />
Syruping<br />
Double seaming<br />
Processing<br />
Cooling<br />
Crushed pineapple<br />
By products<br />
Peaches<br />
Grading<br />
Cutting and pitting<br />
Cutting and pitting by hand<br />
Cutting and pitting by machine<br />
Peeling and washing of clingstone of  peaches<br />
Slicing<br />
Cans<br />
Filling<br />
Syruping<br />
Peeling and washing, freestone peaches<br />
Steaming<br />
Scalding in water<br />
Combination of steam and lye<br />
Sorting<br />
Grading<br />
Exhausting<br />
Closing<br />
Processing<br />
Cooling<br />
Storage<br />
Pears<br />
Grading<br />
Peeling and coring<br />
Grading and filling<br />
Syrupping<br />
Exhausting<br />
Closing<br />
Process<br />
Cooling</p>
<p><strong>PREPARATION OF FRUIT JUICES, SQUASHES &amp; CORDIALS</strong></p>
<p>Sherbet<br />
Eqipment for fruit juices<br />
Washing equipment<br />
Sorting equipment<br />
Extraction equipment<br />
Halving and turning machines<br />
Continuous screw expeller press<br />
Plunger type press<br />
Roller type press<br />
Double operation<br />
Basket press<br />
Rack and cloth press<br />
Straining or screening equipment<br />
Setting or sedimentation<br />
Filtration equipment<br />
Deaerator and flash pasteurizer<br />
Fruit beverages<br />
Preparation and preservation<br />
Selection and preparation of fruit<br />
Juice extraction<br />
Deaeration<br />
Straining, filtration and clarification<br />
Use of fining agents<br />
Enzymes<br />
Chemical finings<br />
Clarification by freezing<br />
Clarification by heating<br />
Preservation of fruit juices<br />
Pasteurization<br />
Bottle methd or Holding pasteurization<br />
Pasteurization by over flow method<br />
Preparation of fruit beverages<br />
Fruit beverages<br />
Squashes and cordials<br />
Orange squash<br />
Extraction of Juice<br />
Preparation of squash<br />
Grapefruit squash<br />
Lemon squash<br />
Lime squash<br />
Lime juice cordial<br />
Jaman squash or syrup<br />
Mango squash<br />
Peach squash<br />
Phalsa squash<br />
Pineapple squash<br />
Plum squash<br />
Syrups</p>
<p><strong>TECHNOLOGY OF VEGETABLES CANNING<br />
</strong><br />
Comparison offruits and vegetables<br />
Okra<br />
Filling and exhausting<br />
Mushrooms<br />
Sorting of washing<br />
Blanching<br />
Size-grading<br />
Filling<br />
Canning<br />
Peas<br />
Vining<br />
Cleaning<br />
Grading<br />
Blanching<br />
Grading and maturity<br />
Brine<br />
Fill of cans<br />
Exhausting<br />
Cooling<br />
Cabbage<br />
Pumpkin<br />
Washing and preparation for canning<br />
Pulping<br />
Canning<br />
Beans<br />
Vining<br />
Grading<br />
Blanching<br />
Filling<br />
Exhaust<br />
Cooling<br />
Potatoes<br />
Washing<br />
Preheating<br />
Peeling<br />
Inspection and trimming<br />
Size grading<br />
Filling<br />
Sealing and processing<br />
Cooling<br />
Carrots<br />
Washing<br />
Grading<br />
Blanching<br />
Peeling<br />
Slicing of dicing<br />
Canning</p>
<p><strong>POULTRY PROCESSING</strong></p>
<p>Slaughter and bleeding<br />
Scalding<br />
Defeathering<br />
Evisceration<br />
Chilling<br />
Packaging<br />
Nutritive value<br />
Eggs and egg products<br />
Nutritive value<br />
Egg quality<br />
Evaluation of egg quality<br />
Egg grading<br />
Egg processing<br />
Egg freezing<br />
Dried eggs<br />
Egg substitutes<br />
Other products<br />
Leavening power<br />
Binding and thickening<br />
Emulsifying power<br />
Tenderizing<br />
Moisture  refention<br />
Flavour<br />
Nutrition<br />
Colour</p>
<p><strong>AQUA FARM</strong></p>
<p>Selection of region<br />
Site selection<br />
Soil<br />
Water<br />
Land<br />
Other factors<br />
Design of aqua farm<br />
Design of earthen ponds<br />
Size and depth<br />
Earthen embankment<br />
Type and shape<br />
Inlet and outlets<br />
Free board<br />
Design of hatchery<br />
Deterination of main parameters<br />
Other  facilities<br />
Estimation in fish farm construction</p>
<p><strong>PULSE PRODUCTION</strong></p>
<p>Improved varieties<br />
Ridge/raised bed planting<br />
Bio-fertilizers<br />
Foilar spray of urea<br />
Sulphur  application<br />
Weed Management<br />
Seed priming<br />
Remunerative cropping systems<br />
Integrated wilt management<br />
Integrated management of helicoverpa<br />
IIPR Mini Dal Mill</p>
<p><strong>PRODUCTION PROCESS OF LARGE CARDAMOM</strong></p>
<p>Growth requirements<br />
The plant<br />
Wild relatives<br />
Varieties<br />
Propagation<br />
Inflorescence and pollination<br />
Nutrient management<br />
Disease management<br />
Insect pest management<br />
Flowering and harvest<br />
The fruit<br />
Production<br />
Post-harvest processing<br />
Benefit Cost analysis<br />
Trade</p>
<p><strong>RICE-FISH POULTRY FARMING</strong></p>
<p>Field layout<br />
Fish<br />
Poultry<br />
Productivity of the system<br />
Economics<br />
Employment generation<br />
Water requirement<br />
Nutritional status of soil</p>
<p><strong>ORGANIZED DAIRY FARMS<br />
</strong><br />
Components of animal shelter<br />
Foundation<br />
Pillars<br />
Walls<br />
Loft<br />
Roof<br />
Feeding manager<br />
Stall<br />
Stanchion<br />
Passages<br />
Water provision<br />
Night lighting<br />
Manure pits<br />
Calf stalls<br />
White washing<br />
Loafing yard<br />
Other facilities<br />
Surroundings<br />
Dairy animal shelter models<br />
Model for specialized large herd of 100 cows and 72 followers in hot and dry or hot and humid climatic zone</p>
<p><strong>POLYHOUSE  TECHNOLOGY FOR PRODUCTION OF VEGETABLES</strong></p>
<p>Polyhouse<br />
Polyhouse/greenhouse construction tips<br />
Plastic low tunnels<br />
Sil trench<br />
Site selection<br />
Raising off season nursery<br />
Raising plant propagation material<br />
Production of fresh vegetables<br />
Vegetable seed production in polyhouse<br />
Maintenance of germplasm<br />
Production of breeder seeds<br />
Hybrid (F1) seed production<br />
Benefits of poly/green house in temperate regions</p>
<p><strong>PRODUCTIVITY OF GOATS</strong></p>
<p>Criteria for selection of good goats<br />
Features of unproductive goats<br />
Criteria for checking the general health of goats<br />
Housing of goats<br />
Advantages of artificial insemination in goats<br />
Milk secretion is different in goats<br />
Milking of goats<br />
Machine milking of goats<br />
Criteria for producing betterquality milk from goats<br />
Quality testing of goat milk<br />
Chevon production in goats<br />
Comparison of goat meat with chicken and mutton<br />
Steps for prevention of disease in goats<br />
Difference between goats and sheep</p>
<p><strong>CONTINUOUS PROCESSING OF RTD TEA AND COFFEE BEVERAGES</strong></p>
<p>The integrated Extraction System (IES)<br />
Concentration of tea and coffee extracts<br />
High quality tea concentrates<br />
High quality coffee concentrates</p>
<p><strong>COLD CHAIN SUPPLY</strong></p>
<p>Current state of Indian agricultural industry<br />
The Indian food processing industry<br />
The  food supply chain<br />
Food supply chain cluster<br />
The cold chain<br />
Supply chain expertise<br />
Food packaging<br />
Standards<br />
Food safety and hygiene<br />
Importance of freezing and cold chain in food production and distribution<br />
Spoilage<br />
Microbial Spoilage<br />
Autolytic Spoilage (enzymatic)<br />
Oxidative Spoilage<br />
Refrigeration and freezing<br />
Quality of frozen food vs. fresh</p>
<p><strong>PROCESSING AND PRESERVATION OF FISH<br />
</strong><br />
Drying<br />
Natural drying<br />
Mechanical drying<br />
Solar drying<br />
Salting<br />
Smoking<br />
Fermenting<br />
Boiling<br />
Canning</p>
<p><strong>UHT PLANT FOR MILK IN ASEPTIC POUCHES</strong></p>
<p>Complete unit of UHT Plant<br />
Economical<br />
Principle of operation<br />
UHT sterilizer<br />
Automatic UHT plant<br />
Balancing equipment<br />
The process of sterilization<br />
Cleaning<br />
Homogenizer<br />
Functional description<br />
CIP system<br />
Functional description<br />
Coding unit<br />
Film web controller<br />
Pouch counter<br />
Specifications for packaging material<br />
Recommendations of the packaging film</p>
<p><strong>PLANT ECONOMICS OF AQUACULTURE SHRIMP FARMING</strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF CANNING AND PRESERVATION OF VEGETABLES</strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF CANNING OF FRUITS AND VEGETABLES<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF COLD  SUPPLY CHAIN </strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF DAIRY FARMING (BUFFALOES KUNDI)<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF DAIRY FARMING (JERSEY COWS) &amp; MILK PROCESSING<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF FROZEN FOOD BY IQF TECHNOLOGY<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF FRUIT JUICE IN TETRAPACK</strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF GRAM DALL/PULSE MILL </strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF GREEN  HOUSE/POLY HOUSE<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF MANGO PULP<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF NAMKEENS (KURKURE TYPE SNACK FOOD)<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF PINEAPPLE, TOMATO, FRUIT JUICE AND OTHER PRODUCTS BOTTLING PLANT</strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF POTATO CHIPS WITH NITROGEN PACKING (ON IMPORTED M/C)</strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF POULTRY AND HATCHERY FARMING<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF PROTEIN FROM SOYABEAN </strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF READY TO EAT FOODS IN TETRA PACKS<br />
</strong><br />
Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF RICE SORTING/GRADING PLANT </strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF SEEDS GRADING AND PROCESSING </strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>PLANT ECONOMICS OF SNACK FOOD (CRAX SIZE) (ROLL AND BALL TYPE)</strong></p>
<p>Plant &amp; Machinery<br />
Fixed Capital<br />
Raw Materials<br />
Total Working Capital/Annum<br />
Total Capital Investment<br />
Turn Over/Annum</p>
<p><strong>SUPPLIERS OF PLANT AND EQUIPMENTS FOR FOOD PROCESSING AND ALLIED INDUSTRY </strong><br />
The book Agro Food Processing and Packaging Technology covers Food Laws, Ready to Eat Snacks Extrusion Technology, Potato Chips, Ready to Eat Protein Rich Food Bars, Grading and Sorting Food Products Using Computer, IQF Freezing and Application, Food Canning, Fruits  Canning Technology, Preparation of Fruit Juices, Squashes &amp; Cordials, Technology of Vegetables Canning, Poultry Processing, Aqua Farm,  Pulse Production, Production Process of Large Cardamom, Rice-Fish Poultry Farming, Organized Dairy Farms, Polyhouse Technology for Production of Vegetables, Productivity of Goats, Continuous Processing of RTD Tea and Coffee Beverages, Cold Chain Supply, Processing Preservation of Fish, UHT Plant for Milk in Aseptic Pouches,  Plant Economics of Aquaculture Shrimp Farming, Plant Economics of Canning and Preservation of Vegetables, Plant Economics of Canning of Fruits and Vegetables, Plant Economics of Cold Supply Chain  Plant Economics of Dairy Farming (Buffaloes Kundi), Plant Economics of Dairy Farming (Jersey Cows) &amp; Milk Processing, Plant  Economics of Frozen Food by IQF Technology, Plant Economics of Fruit Juice in Tetrapack, Plant Economics of Gram Dall/Pulse Mill, Plant  Economics of Green House/Poly House, Plant  Economics of Mango Pulp, Plant Economics of Namkeens (Kurkure Type Snack Food), Plant Economics of Pineapple, Tomato, Fruit Juice and Other Products Bottling Plant,  Plant Economics of Potato Chips with Nitrogen Packing (On Imported M/C), Plant Economics of Poultry and Hatchery Farming, Plant Economics of Protein From Soyabean,  Plant Economics of Ready to Eat Foods in Tetra Packs, Plant Economics of Rice Sorting/Grading Plant,  Plant Economics of  Seeds  Grading and processing,  Plant Economics of Snack Food (Crax Size) (Roll and Ball Type), Suppliers of Plant and Equipments for Food Processing and Allied Industry.</p>
<p>Engineers India Research Institute (EIRI) is a renowned name in the industrial world for offering technical and financial consultancy services.</p>
<p>EIRI services are:</p>
<p>Detailed Feasibility Reports<br />
New Project Identification<br />
Project Feasibility and Market Study<br />
Identification of Lucrative Industrial Project Opportunities<br />
Preparation of Project Profiles / Pre-Investment and Detailed Feasibility Studies,<br />
Market Surveys / Studies, Market Survey Cum Detailed Techno-Economic Feasibility Reports<br />
Project Reports in CD Roms<br />
Identification of Plant /Process/Machinery and Equipment, Industrial General Guidance for setting up new industrial projects.</p>
<p>Our most up-to-date and Technologically Advanced Industrial Project Reports, categorized with respect to Financial Outlays and Sector – wise Classification are immensely useful for :</p>
<p>Existing Small or Medium Scale Industrialists facing competition from large houses<br />
Young Entrepreneurs dreaming to start their own industrial enterprise<br />
Young Graduates and Professionals wishing to begin their career<br />
Industrialists interested in Debottlenecking  their capacities &amp; New Product – Lines<br />
Large Industrial Houses pursuing  Expansion, Growth and Diversification Plans</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/agro-food-processing-packaging-technology-e-book/">agro food processing and packaging technology book</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></content:encoded>
					
		
		
			</item>
	</channel>
</rss>
