Amino acids are the main components of protein, protein are found in all living organism and play an important role in living cells. Approximately 20 amino acids are the common constituents of protein.

The general formula of an amino acid is

R-------------CH-------COOH
|
NH2

All of the amino acids, except glycine have two optically active isomers symbolized by D-or L-before their names.

Amino Acids are the main components of the elementary nutrients of living organism. There are eight and possibly ten, amino acids that are essential for existence and must be ingested through food. The Nutritional value of protein is governed by the Quantitative and qualitative balance of individual essential amino acid.

Protein are metabolized continously by all living organism and are in dynamic equilibrium in living cell.

An organic acid containing both a basic amino group (NH2) on dipolar ions. The 25 amino acid that have been established as protein constituent, are a amino acid (i.e. the -NH2 group is attached to the carbon atom next to the L series), many other amino acids occur in the free state in plant or animal tissue 22 amino acid with structures identical with those that exist today have been identified in the pre-cambrian sedimentary rock indicating their presence atleast 3 million years ago. Amino acid are the main components of protein (qv.). Proteins are found in all living organisms and play an important role in living cells. Approximately 20 amino acids are the common constituents of proteins. Braconnot in 1820 isolated the simplest amino acid, glycine, from gelatin, the most recent one of nutritional importance is L-threonine which was found by rose in 1935 to a growth factor of rats. The presence of many uncommon amino acids has been reported in various living metabolites, such as antibiotics, some other microbiolozical products, and in non-proteinaceous substances of animals and plants, plant amino acid have been review recently by Bell. There are eight, and possibly ten, amino acids that are essential for existence and must be ingested through food. The nutritional value of proteins is governed by the quantitative and qualitative balance of individual essential amino acids. It has been clearly shown that the nutritional value of a protein can be improved by the addition of amino acids absent in that protein. Most of the amino acids absorbed through the digestion of proteins are used to replace body proteins. The remaining portion is metabolized into various bio-active substance such as harmones, purine and pyrimidine bases, the precursors of DNA, RNA and other nucleotides, or is consumed as a energy source.
The history of amino acid discoveries is closely related to advances in analytical methods initially, quantitative and qualitative analysis depended exclusively upon crystallization from protein hydrolysates. The quantitative precipitation of several basic amino acids including phosphotungstates, the separation of amino acid esters by vacuum distillation, and precipitation by sulfuric acid derivatives were developed successively during the last century. After World War II, analytical methods for amino acids were improved and new methods were introduced. The first was the microbiolozical assay using a lactic acid bacterium which requires all of the regular amino acids for its growth. This method is still used for the microdetermination of amino acids. Later, chromatographic separation using filter paper, ion exchange resins, and other absorbents were rapidly developed. Twenty years ago all L-amino acids from the synthesized racemic mixtures. Since 1956, methods of production of L-amino acid have changed extensively. The first important change was made by kinoshita and co-workers who invented a new fermentation process using corynebacterium glutamicum bacteria to produce many other amino acids. A number of useful amino acids e.g. L-lysine and L-theorine are now economically produced by fermentation. Recently L-lysine, L-aspartic acid and L-tryptopho have been produced lay rapid enzymatic conversion of easily available precursors. The progress of these biosynthetic procedures for various amino acids has been reviewed by Nakayama. Glycine, alamine, methionine, and some other amino acids are still produced by chemical synthesis. Chemical manufacturing procedures for amino acids are diocuned in a monography by Kaneko and co-workers. Most of the natural amino acids are currently available commercially and their uses are growing. Amino acids and their analogues have their own characteristic effects in flavoring nutrition, and pharmacology.

Amino Acid

Amino acids are used in many industrial applications as bulk biochemical to produce a wide range of products such as animal feed additives, flavour enhancers in human nutrition or as ingredients in cosmetic and medical products.

Besides the amino acids important role as intermediates as building blocks of proteins, they are involved in the regulation of key metabolic pathways and processes that are crucial for the growth and the maintenance of organisms. In particular, they promote health by several actions, including maximizing the efficiency of food utilization, reducing the adiposity, regulating the muscle protein metabolism and controlling the growth and immunity of the organism.

Amino acids can be produced by different processes such as extraction from protein hydrolysates, chemical synthesis or enzymatic and fermentation pathways with the aid of microorganisms. In particular, the fermentation process is becoming one of the most promising processes for amino acids commercial production because of the new genetic engineering tools applied to maximize yield, specificity and productivity of the target compounds.

The interest in the production of amino acids has increased over the years resulting in the development of a variety of technologies.

The development of new applications for amino acids, such as pharmaceutical, food additives, feed supplements, cosmetics, polymer materials and agricultural chemicals, led to a fast increase in the amino acid production.

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Increasing safety concerns has been a major factor driving market growth. Employment of fire fighting chemicals services has increased owing to increasing number of favorable fire safety regulations.

Fire fighting chemicals are primarily utilized in fire fighting equipment such as automatic sprinkler systems, fixed and portable fire extinguishers, fire dampers, inert gas systems, and fire retardant bulkhead. These fire suppression chemicals are then sprayed by means of fire extinguisher over the combustion zone, in order to alleviate its temperature and thus eventually extinguish the fire.

Potassium bicarbonate is projected to be the fastest growing segment in the chemicals category over the forecast period with an estimated CAGR of 5.1% from 2017 to 2025. Potassium bicarbonate is the only dry chemical certified by National Fire Protection Agency (NFPA) U.S. for use in Aircraft Rescue and Fire Fighting (ARFF). Potassium bicarbonate is also the most preferable dry chemical for use in oil spill incidences on onshore & offshore drilling sites. It is a salty, colorless and odorless chemical. These factors are projected to boost the potassium bicarbonate segment growth over the forecast period.

Server rooms are utilized to serve as a data center. These server rooms are kept air conditioned in order to drive out the heat generated by the constant rapid activity of data transferring. However, if in case the air conditioners malfunction it might lead to heating up of the room and also cause a fire hazard. Owing to this factor, fire dampers are utilized to stop the oxygen supply to the room in case of fire occurrence. On account of this factor, fire dampers application segment is expected to show a moderate to high growth rate over the forecast period. In terms of volume, the fire dampers segment had a market share of 20.3% in 2016.

The post POWDER & CHEMICAL FOR FIRE FIGHTING EQUIPMENTS appeared first on EIRI - eBooks and Project Reports.

This plant has been designed to produce succinic acid and focused on all aspects that are important for the production of succinic acid. The plant is located at (Location) and this report will explain thoroughly on the details about the variation of methods, process selection, the reaction being generated and the description on the production of succinic acid. A process for the bio-based production of 37,500 mt/yr  succinic  acid  using  glucose  as  a  feedstock.  The process  is  environmentally friendly in that it uses CO2  in the fermentation to improve the yield and productivity of succinic acid.
The succinic acid produced in the fermentation broth was recovered and purified by series of filtration, reactive extraction, vacuum distillation, crystallization, washing, and drying to produce99.5 wt% succinic acid crystals. This plant considers full safety of overall plant operations starting from the handling of raw materials until the recovery of final product. The product will be sold to local and foreign markets and being used as a raw material for other manufacturing purposes.

INTRODUCTION
APPLICATION
PRODUCT DESCRIPTION
ENVIRONMENTAL AND EXPOSURE EFFECT
MARKET SURVEY
PROCESS DESCRIPTION
MAJOR STREAM FLOWS
EQUIPMENT DESCRIPTION
UTILITIES SUMMARY
PROCESS DESCRIPTION
HAZARDS OF SUCCINIC ACID
SWOT ANALYSIS
HEALTH EFFECTS
SAFETY ANALYSIS
PLANT LAYOUT
SITE LAYOUT
SUPPLIERS OF RAW MATERIALS
SUPPLIERS OF PLANT & EQUIPMENTS
HEAT STERILIZATION
SEED FERMENTOR
MICROFILTRATION
AGITATOR
ION EXCHANGE
PLATE AND FRAME FILTRATION
RAW MATERIAL PHOTOGRAPHS
EQUIPMENTS PHOTOGRAPHS
HEAT STERILIZATION

APPENDIX – A:

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

The post SUCCINIC ACID PRODUCTION appeared first on EIRI - eBooks and Project Reports.

The derivatives can also tap export potential to earn foreign exchange for the country. There are two important derivatives of castor oil, namely, Heptaldehyde and Undecylenic acid, which are produced by standard techniques. Heptaldehyde, which is by product of pyrolysis of castor oil, is used in perfumery industry since it has a natural fruity flavour. Heptaldehyde is a colourless liquid, oily, fruity odour, penetrating, hygroscopic, soluble in water, ether and combustible. This is oxidized to yield a hepatonic acid and by reducing it produces heptyl alcohol, which combines to form heptyl heptanes, a perfume which combines well with Coumarins. Hapatonic acid esters have variety of fruity flavours. Aldol condensation of heptaldehyde with bezakdehide yields amyl cinnamic aldehyde which is an important perfume.

Undecylenic acid as well as its zinc salt, are used as bactericidal, fungicidal and also used for diseases like athlete foot. Derivatives of this acid have extensive perfumery outlets. This alcohol has an intense penetrating odour and the saturated 11 carbon aldehyde is used in the modification of floral odours. Treatment of this acid with strong sulphuric acid gives gamma-Undecalcetone which is also called peach aldehyde.

A volume outlet for Undecylenic acid lies in the preparation of nylon 11, 11. Hydrobromination of the acid in presence of peroxide catalysts yields the terminal bromide which on heating melts and then condenses in head to tail fashion to yield a 11,11- polyamide called Rilsan having melting point of about 188 0C. It is a colourless to pale yellow liquid with a waxy and creamy constitution having molecular weight of 184.28 grams.

Undecylenic acid is the parent substance for the synthesis of several higher alcohals and aldehydes especially those containg nine and eleven carbon items. Noncyclic aldehyde can be obtained from Undecylenic acid or from heptaldehyde. Reduction of Undecylenic acid with sodium and alcohal converts its into Undecylenic alcohol which is chracterised by a flowery odour with a persisting fatty note. Reduction by free hydrogen in the presence of colloidal palladum as catalyst saturates the double bond producing Undecylenic acid which can be converted into Undecylic alcohal a valuable modifier and a tip note compound. This alcohol can be oxdised to give the corresponding aldehyde an equally important product for the perfumery industry.

Undecylenic acid is a synthetic unsaturated fatty acid. It is prepared from the natural product, ricinoleic acid, present in castor oil. Undecylenic acid is produced by cracking castor oil at high temperature and pressure.[not verified in body] It is the common name of 10 - undecenoic acid, abbreviated (CH2 = CH (CH2) 8COOH), and has two functional groups, a terminal alkene at one end, and a carboxylic acid at the other. It has use in synthetic chemistry and is used in the manufacture of pharmaceuticals, persol hygiene products, cosmetics, and perfumes. It also used as a topical antifungal agent.

INTRODUCTION
PROPERTIES
PROPERTIES OF HEPTANOL
USES & APPLICATION
RAW METERIALS
USES AND APPLICATION OF HEPTANOIC ACID
USES AND APPLICATION OF HAPTANOL (HEPTYL ALCOHOL)
PROPERTIES OF CASTOR OIL
MARKET SURVAY
PRODUCTION OF HEPTALDEHYDE AND UNDECYLENIC ACID
IMPORT OF HEPTALDEHYDE AND UNDECYLENIC ACID
EXPORT OF HEPTALDEHYDE AND UNDECYLENIC ACID
APPARENT CONSUMPTION OF HEPTALDEHYDE AND UNDECYLENIC ACID
ESTIMATED DEMAND
IMPORT DATA OF UNDECYLENIC ACID
IMPORT DATA OF HEPTALDEHYDE
EXPORT DATA OF UNDECYLENIC ACID
EXPORT DATA OF HEPTALDEHYDE
SUPPLY AND DEMAND OF CASTOR OIL
IMPORT OF COSTOR OIL
EXPORT OF CASTOR OIL
GLOBAL MARKET POSITION OF UNDECYLENIC ACID
GLOBAL CASTOR OIL AND DERIVATION MARKET
PRESENT MANUFACTURE OF HEPTALDEHYDE AND UNDECYLENIC ACID
PRESENT MANUFACTURES (GLOBAL)
MANUFACTURING PROCESS
PROSSES DESCRIPTION
PROCESS IN DETAILS
IMPROVED METHOD FOR PRODUCTION OF HEPTALDEHYDE
AND UNDECYLENIC ACID
MANUFACTURING PROCESS OF HEPTALDEHYDE AND UNDECYLENIC
ACID FROM METHYL RICINOLEATE
RECOVERY OF UNDECYLENIC ACID FROM SPONGY MASS
SAPONIFICATION NUMBER
ACIDULATION OF THE SODIUM SALT OF UNDECYLENIC ACID
PRODUCTION YIELD
RAW METERIAL REQUIREMENTS
MANUFACTURING DIAGRAM
MANUFACTURING PROCESS OF HEPTANAL (HEPTYL ALCOHOL)
MANUFACTURING PROCESS OF HEPTANOIC ACID
COMPARSION OF YIELD FOR PRODUCTION OF HEPTALDEHYDE AND
UNDECYLENIC ACID FROM CASTOR OIL AND FROM METHYL ESTER
OF COSTOR OIL
METHOD OF ANALYSIS FOR HEPTALDEHYDE AND UNDECYLENIC ACID
OTHER COMMERCIAL METHODS
METHOD FOR PREPARING CLEAVED PRODUCTS FROM CASTOR OIL
SYNTHESIS OF DIACIDS OR DIESTERS FROM NATURAL FATTY ACIDS
SUPPLIERS OF PLANT AND MACHINERY
SOURCES OF TECHNOLOGY SUPPLIERS
COMPLETE PLANT AND MACHINERY SUPPLIERS
RAW MATERIAL SUPPLIERS
PLANT AND MACHENARY SUPPLIERS

APPENDIX – A :

1. COST OF PLANT ECONOMICS
2. LAND & BUILDING
3. PLANT AND MACHINERY
4. FIXED CAPITAL INVESTMENT
5. RAW MATERIAL
6. SALARY AND WAGES
7. UTILITIES AND OVERHEADS
8. TOTAL WORKING CAPITAL
9. COST OF PRODUCTION
10. PROFITABILITY ANALYSIS
11. BREAK EVEN POINT
12. RESOURCES OF FINANCE
13. INTEREST CHART
14. DEPRECIATION CHART
15. CASH FLOW STATEMENT
16. PROJECTED BALANCE SHEET

The post HEPTALDEHYDE & UNDECYLENIC ACID (C7 & C11) & ITS DERIVATIVES appeared first on EIRI - eBooks and Project Reports.

The adhesive industry is currently the most important outlet for polyvinyl acetate. Other major applications are in the field of paints and coatings, textile finishes, paper  coatings, printing inks and starches etc.

Polyvinyl acetate came into wide spread use in adhesives  in the  1940's  as  a  synthetic resin  substitute  for  hide  glue.

Superior  properties of the synthetic resin offset  their  higher price.  Polyvinyl  acetate adhesives were adaptable to  new  high speed machinery in the paper converting and wood adhesives.

Its  use in other industries rather than adhesives  actually depends  on its adhesive, binding and film properties as much  as does  it  in  adhesives industrial in  surface  coatings  dynamic growth  of  polyvinyl  acetate  has  continued  since  1950.  The early technology  produced emulsion paints for exterior  masonary and subsequently for interior primesealors primesealess and  flat wall  paints,  exterior  wood paints and  industrial  primers  and finshes.

Vinyl  resins in solutions have been in commercial  coatings used  since  World  War II.  Since then, the requirements for solution coatings have become increasingly demanding.   Better resistance to corrosion, weather, and abrasion has been required.

Vinyl  chloride - vinly acetate - vinyl alcohol  resins  are more  compatible  with thermo setting resins such  as  phenolics, epoxides,  and  isocyanate, and allow same coss -  linking.   The result is reduced thermoplasticity and increased hardness.

Carboxyl-containing  vinyl chloride - vinyl  acetate  resins are similar to the vinyl chloride - vinyl acetate polymers.  They are usually used in conjuction with them to give a high order  of adhesion to metal and glass when air dried - and even  more  when baked.

Vinyl chloride -vinyl acetate films have good acid,  alkali, and  water resistance and are the standard lacquer resins of  the paint  industry.   Baked coatings of this material  adhere  quite well  to metals, while air-dried films depend almost  entirely on mechanical adhesion.

1.   INTRODUCTION
2.   PROPERTIES
3.   OTHER CHARACTERISTICS
4.   USES AND APPLICATIONS
5.   APPLICATIONS
6.   B.I.S. SPECIFICATIONS
7.   MARKET SURVEY
8.   PRESENT MANUFACTURERS
9.   MANUFACTURING PROCESS
10.  SOME FORMULATIONS ON PAINTS AND COATINGS
11.  EMULSION PAINT FORMULATION
12.  FORMULATIONS OF ADHESIVES
13.  QUICK TACK POLYVINYL ACETATE EMULSION ADHESIVE
14.  FORMULATIONS FOR HIGHLY BRANCHED POLYVINYL-
ACETATE EMULSIONS
15.  SPECIAL FORMULATION OF POLYVINYL-
ACETATE ADHESIVE
16.  PROCESS FLOW SHEET FOR MFR. OF POLYVINYL ACETATE
17.  PLANT LAYOUT
18.  RAW MATERIAL SUPPLIERS
19.  PLANT AND MACHINERY SUPPLIERS
20.  ADDRESSES OF RAW MATERIALS SUPPLIERS (GLOBAL)

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

The post POLY VINYL ACETATE appeared first on EIRI - eBooks and Project Reports.

     Calcium compounds such as calcium carbonate, calcium phosphate, and calcium sulphate are widly distributed in nature. A large number of them are manufactured  on  account  of  this applications   in  industry.  Calcium  oxide  and  sulphate are extensively employed in building  and chemical industries Calcium phosphate,  nitrate  and   cynomids are useful as fertilizers Calcium  carbide  forms  the  source of  acetylene  which  is  an  important  starting material  for the synthesis of  many  organic chemicals.  A  large   number of organic compounds  find  use  in pharmacy.

Calcium Carbonate

Calcium carbonate, CaCo3 forms a major constituent of the earth is crust and occurs as massive beds of limestone, chalk and marble. It is found as dolomite in which a part of the calcium is replaced by magnesium.

Precipitated Calcium Carbonate

The  precipitated  Calcium  Carbonate applies to the compound obtained by chemical means and distinguishes it from the material produced by mechanical treatment of  natural varieties of Calcium carbonate  such  as calcite,  marble, limestone and  sea  shells. Precipitated  calcium  carbonate  is  produced  in  a  number  of different  grades  which range in particle size from 9.03  to  15 micron  I.P.  grade precipitated calcium carbonate  is  used  in dentifrices, foods, cosmetics, pharmaceuticals, and  antibiotics. Technical grades are also used in ingredients in the manufacture of ceramics, putty, polishes, insecticides, inks, shoe  dressings and as a filler in the production of adhesives, matches, linoleum and welding rods.

1.   INTRODUCTION
2.   PROPERTIES
3.   SPECIFICATION
4.   USES AND APPLICATIONS
5.   PRECIPITATED CALCIUM CARBONATE
6.   MARKET SURVEY
7.   END USE WIRE CONSUMPTION OF CALCIUM CARBONATE
8.   Present Manufacturiers
9.   MANUFACTURING DIAGRAM
10.  MNUFACTURING PROCESS
11.  PLANT LAYOUT
12.  PRESENT MANUFACTURE OF CALCIUM  CARBONATE
PRECIPITATED
13.  ADDRESSES OF PLANT & MACHINERY SUPPLIERS
14.  ADDRESSES OF RAW MATERIAL SUPPLIERS
15.  ATTENTION PLEASE

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

The post PRECIPITATED CALCIUM CARBONATE appeared first on EIRI - eBooks and Project Reports.

It has made the United States self sufficient in respect to the citric acid supply and greatly changes the commerce of the world in citric acid and calcium citrate.

Recent developments in the citric acid fermentation include the change from the older established shallow   pan method to a deep tank submerged method.

A  group  headed  by S.M. Martin of  the  National  Research laboratory   of  Canada  has  been  especially  active   in   the development  of  the  submerged production of  citric  acid  from ferrocyanide-treated beet molasses by Aspergillus Niger.

In  Russia, Imshenetskiietal through the use of  ultraviolet radiation, obtained an A. Niger mutant that produced 16-22%  more citric  acid  than  parent strain, which is  used  in  Commercial production  of this product.   The mutant strain produced  25-30% less  mycellium  than  the parents yet it  consumed  26-51%  more sucrose per gram of dry mycellium.  The yield of citric acid from the sugar consumed varied form 57-74%.

1.   INTRODUCTION
2.   MANUFACTURING PROCESS OF CITRIC ACID
3.   PROCESS FLOW DIAGRAM FOR
MANUFACTURE OF  CITRIC ACID
4.   MASS BALANCE PROCESS DIAGRAM
FOR SINGLE FERMENTOR
5.   PROPERTIES
6.   USES AND APPLICATION
7.   I.S.I.  SPECIFICATIONS
8.   QUALITY TESTING OF CITRIC ACID
9.   MARKET SURVEY REPORT
10.  FOREIGN MANUFACTURERS
11.  PLANT AND MACHINERY SUPPLIERS
12.  SUPPLIERS OF RAW MATERIALS

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

The post CITRIC ACID FROM MOLASSES appeared first on EIRI - eBooks and Project Reports.

It  is  flammable and has moderate fire risk. It  is  highly ;toxic  by  ingestion  and  is  strong  irritant  to  tissue.  The tolerance limit in air is 10 ppm.

Large  quantities  of  acetic  acid  are  required  for  the  manufacture  of acetate rayon, esters and lacquers and  vrnishes. It is also used for food industries. In India, the acid is mostly employed  for  the  coagulation  of rubber  latex,  and  for  the manufacture of pigments like white lead verdigris, etc.

It  is  also  employed in the preparation  of  acetates  and acetic esters, and in the dyeing and printing of textiles.
At  present, the commercial methods used for the  production of acetic acid are :
(1)  By acetaldehyde conversion method
(2)  By Oxidation of n-butone
(3)  By methanol conversion method.
But,  since  the last few  years,  biotechnological  process using molasses as the raw material is fastly coming up .

This process is divided into 2 major steps, viz.

(i)  Conversion of molasses into ethanol by fermentation process

(ii) conversion of ethanol into acetic acid by aerobic  bacterial oxidation  (ie.  by  air  oxidation  using  certain  en\ymes   as catalyst).

1.   INTRODUCTION
2.   PROPERTIES
3.   PRODUCT USES & APPLICATIONS
4.   MARKET SURVEY
5.   PRESENT MANUFACTURERS
6.   B I S SPECIFICATION
7.   RAW MATERIALS REQUIRED
8.   MANUFACTURING PROCESS
9.   FLOW SHEET OF ETHYL ALCOHOL INTO ACETIC ACID
10.  RAW MATERIAL SUPPLIERS
11.  EQUIPMENT SUPPLIERS
12.  PRINCIPLES OF PLANT LAYOUT
13.  PLANT LOCATION FACTORS
14.  EXPLANATION OF TERMS USED IN THE PROJECT REPORT
15.  ADDRESSES OF STATE INDUSTRIAL
16.  DEVELOPMENT CORPORATIONS
17.  ADDRESSES OF FINANCIAL INSTITUTIONS
18.  ADDRESSES OF RELEVANT GOVERNMENT OFFICES

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

The post ACETIC ACID FROM MOLASSES appeared first on EIRI - eBooks and Project Reports.

INTRODUCTION
USES & APPLICATIONS
OTHERS & APPLICATIONS OF DIAMMONIUM PHOSPHATE
PROPERTIES & CHARACTERISTICS
GRADES OF DIAMMONIUM PHOSPHATE
FERTILIZER GRADE AMMONIUM PHOSPHATE
CHEMICAL COMPOSITION OF DIAMMONIUM PHOSPHATE FERTILIZER
SPECIFICATIONS OF DIAMMONIUM PHOSPHATE
MARKET SURVEY
PRESENT MANUFACTURS/SUPPLIERS OF DIAMMONIUM PHOSPHATE
RAW MATERIALS
MANUFACTURING PROCESS OF DIAMMONUM PHOSPHATE
RAW MATERERIALS REQUIRMENTS
PROCESS FLOW DIAGRAM
RAW MATERIALS REQUIRMENTS / DAY
MANUFACTURING PROCESS OF DIAMMONIUM PHOSPHATE
FROM ROCK PHOSPHATE
PROCESS IN DETAILS
METHOD OF OPTIMIZATION OF DIAMMONIUM
PHOSPHATE (DAP) PLANT
THE JACOBS SLURRY PROCESS
PLANT LAYOUT
COMPLETE PLANT SUPPLIERS
SUPPLIERS OF PLANT & MACHINERY
SUPPLIERS OF RAW MATEERIALS

APPENDIX – A :

.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT

The post DIAMMONIUM PHOSPHATE (DAP) appeared first on EIRI - eBooks and Project Reports.

Illustrative reaction using copper chromite:-

•    Hydrogenolysis of ester compounds to the corresponding alcohols. For example, sebacion, derived from the acyloin condensation of dimethyl sebacate, is hydrogenated to 1,2-cyclodecanediol by this catalyst. Phenanthrene is also reduced, at the 9,10 position.

•    Hydrogenolysis of 2-furfuryl alcohol to 1,5-pentanediol at 250–300 °C under 3300-6000 psi of H2.

•    Decarboxylation of α-phenylcinnamic acid to cis-stilbene.

INTRODUCTION
USES AND APPLICATION OF COPPER CHROMITE CATALYST
MARKET SURVEY
PRESENT MANUFACTURERS OF COPPER CHROMITE AND ZINC OXIDE CATALYST (SULPHUR GUARD)
PROPERTIES OF ZINC OXIDE CATALYST
USES AND APPLICATION OF ZINC OXIDE DESULFURIZATION CATALYST
TECHNICAL SPECIFICATION OF SUPER GUARD ZINC OXIDE CATALYST
CHARACTERIZATION OF ZNO AND MODIFIED ZNO CATALYST FOR ANAEROBIC OXIDATION OF CYCLOHEXANOL
ZINC OXIDE HYDROGEN SULFIDE REMOVAL CATALYST
PRODUCTION OF COPPER CHROMITE
MANUFACTURING PROCESS OF COPPER    CHROMITE CATALYST
PROCESS FLOW DIAGRAM FOR THE MANUFACTURE  OF COPPER CHROMITE CATALYST
MANUFACTURING PROCESS OF SULPHUR GUARD ZINC OXIDE CATALYST
(SULPHUR ADSORPTION)
PROCESS FLOW DIAGRAM FOR SULPHUR GUARD ZINC OXIDE CATALYST
CATALYST AND RELATED PROCESSES USEFUL FOR SULPHUR ADSORPTION
MANUFACTURING PROCESS OF IMPROVED COPPER CHROMITE CATALYST
DIFFERENT METHODS FOR THE MANUFACTURE OF COPPER CHROMITE CATALYST
PRODUCTION METHOD OF COPPER CHROMITE HYDROGENATION CATALYST OF ENHANCED ACTIVITY
PERFORMANCE EVALUATION OF COMMERCIAL COPPER CHROMITE.
ANALYSIS OF COPPER CHROMITE CATALYST
PROCESS IN DETAILS OF COPPER CHROMITE CATALYST
LABORATORY CATALYST TESTING UNIT
SUPPLIERS OF PLANT & MACHINERIES
SUPPLIERS OF RAW MATERIAL

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT

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