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	<title>Project report on Aluminium Alloy Ingots - Technology Book - Feasibility Report - Market Survey - Industrial Report</title>
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	<title>Project report on Aluminium Alloy Ingots - Technology Book - Feasibility Report - Market Survey - Industrial Report</title>
	<link>https://projectreports.eiriindia.org/product-tag/aluminium-alloy-ingots/</link>
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		<title>ALUMINIUM ALLOY WHEEL</title>
		<link>https://projectreports.eiriindia.org/product/aluminium-alloy-wheel/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 25 Dec 2020 04:32:28 +0000</pubDate>
				<guid isPermaLink="false">https://projectreports.eiriindia.org/?post_type=product&#038;p=14316</guid>

					<description><![CDATA[<p>Wheel is a component that supports tire .Alloy wheels are wheels that are made from an alloy of aluminium. Aluminum alloy wheel is the second most popular wheel after steel one</p>
<p>For the production of aluminum alloy wheel, A 356 Al alloys are mostly used as the raw material. Because of their good casting properties, this type of alloys provides the alloy wheel to have good corrosion resistance and strength so that the vehicle can adapt to the road and weather conditions. Aluminum casting alloy wheels are generally produced using low-pressure diecasting. For the application of this casting method, Al-Si casting alloys should be chosen owing to their high adaptation capability to the permanent metal molds. By the help of alloying elements, it is possible to achieve effective and efficient aluminum alloy wheel production.</p>
<p>The advantages of Al alloy wheel are:</p>
<p>? Highly styling versatility<br />
? Any size available<br />
? Unique style<br />
? Weight savings<br />
? Minimum trim<br />
? Best wheel uniformity<br />
? Various “bright look” options<br />
? Low tooling costs</p>
<p>The advantages of Al alloy wheels over the steel wheels are:</p>
<p>1. They provide less fuel consumption. Because density of Al is only 1/3 of the steel. And for 4-aluminum wheels/car, the total weight reduction is 4-8 kg. Consequently, the fuel saving rate is about 7%.</p>
<p>2. Al wheels have better performance than steel wheels. Because of lighter weight, Al wheels gain more quick acceleration and short braking distance.</p>
<p>3. With Al wheels, driving is more comfortable. It means to get excellent impact absorption and more accurate balancing.</p>
<p>4. Al wheel utilization maintains effective dissipation of heat. It improves the service life.</p>
<p>5. By using Al wheels, there becomes no air leakage. Because of precise and accurate machine usage, there occurs very rare air leakage and excellent safety.</p>
<p>6. Al alloys wheels have good corrosion resistance. They are suitable for running under very severe weather conditions.</p>
<p>7. Al alloy wheels have outstanding appearance. Actually, they have various style and brightly shining surface. They are also very attractive.</p>
<p>Types of Al Alloy Wheels</p>
<p>1. Forged Al Alloy Wheels<br />
2. Single piece Al Alloy Wheels<br />
3. Multi piece Al Alloy Wheels</p>
<p>Forged Al alloy wheels are generally used in medium and heavy trucks. Al. Forged wheels are manufactured by using one piece of aluminum alloy that gives fuel savings, greater payloads and lower weight.</p>
<p>Most Al wheels are single-piece castings manufactured from a variety of casting processes The cast product provides an infinite number of styling iterations and optimized for minimum weight and cost. This type of wheels can be used in passenger cars, minivans, sport utility vehicles and etc.</p>
<p>Multi piece wheels are actually manufactured from two or more components that are securely welded together. The process has the unique advantage of having a rolledand- spun wrought aluminum rim combined with a cast disc, made of mold This cast disc can provide lower tooling cost.</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/aluminium-alloy-wheel/">ALUMINIUM ALLOY WHEEL</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>INTRODUCTION<br />
THE ADVANTAGES OF AL ALLOY WHEEL ARE:<br />
THE ADVANTAGES OF AL ALLOY WHEELS OVER THE STEEL WHEELS ARE:<br />
TYPES OF AL ALLOY WHEELS<br />
FIG-1 SINGLE PIECE FORGED WHEEL<br />
FIG-2 SINGLE PIECE CAST WHEEL<br />
FIG-3 MULTI PIECE WHEEL<br />
PROPERTIES OF ALLOY WHEEL<br />
USES AND APPLICATION<br />
TECHNICAL SPECIFICATION OF ALUMINIUM ALLOY WHEEL<br />
B.I.S. SPECIFICATION<br />
PROCESS FLOW CHART FOR ALLOY WHEEL<br />
MANUFACTURING PROCESS<br />
LOW PRESSURES DIE CASTING<br />
THE MAIN ADVANTAGES OF LOW-PRESSURE DIE-CASTING<br />
ARE GIVEN AS [11]:<br />
AL WHEEL PRODUCTION INVOLVES WITH SEVERAL PRODUCTION<br />
STEPS. THESE STEPS ARE:<br />
THERE ARE SEVERAL STEPS DURING THE PRODUCTION OF ALUMINUM<br />
CASTING ALLOY WHEEL WHICH ARE GIVEN BELOW:<br />
MELTING PROCESS<br />
MELTING OF AL ALLOY FOR DIE-CASTING ENTAILS THREE DIFFERENT<br />
TYPES OF OPERATIONS<br />
MELT PREPARATION<br />
THE PRIMARY PURPOSE OF MELT TREATMENT IS<br />
(A) DEGASSING<br />
DEGASSING PROCESS<br />
MEASURING HYDROGEN CONCENTRATION<br />
REDUCED PRESSURE TEST (STRAUBE-PFEIFFER)<br />
QUANTITATIVE REDUCED PRESSURE TEST (SEVERN SCIENCE)<br />
DENSITY MEASUREMENTS<br />
INITIAL BUBBLE TEST (HYCON TEST):<br />
RECIRCULATING GAS TEST (TELGAS, ALSCAN)<br />
(B) FLUXING<br />
X-RAY INSPECTION (REAL TIME RADIOSCOPIC INSPECTION)<br />
FIGURE: REAL TIME RADIOSCOPIC IMAGE OF CAST AL ALLOY WHEEL<br />
FIGURE: RADIOSCOPIC INSPECTION SYSTEM<br />
FIGURE: SCHEMATIC VIEW OF AL WHEEL INSPECTING RTR SYSTEM<br />
QUALITY CONTROL<br />
FINISHING PROCESS<br />
PAINTING<br />
TESTING<br />
MARKET POSITION<br />
MARKET OVERVIEW<br />
GROWTH DRIVERS AND CHALLENGES<br />
MARKET SIZE AND FORECAST<br />
KEY PLAYERS:<br />
ON THE BASIS OF COATING TYPE, THE MARKET CAN BE SEGMENTED INTO<br />
ON THE BASIS OF WHEEL SIZE, THE MARKET CAN BE SEGMENTED INTO:<br />
ON THE BASIS OF VEHICLE TYPE, THE MARKET CAN BE SEGMENTED INTO:<br />
ON THE BASIS OF SALES CHANNEL, THE MARKET CAN BE<br />
SEGMENTED INTO:<br />
AUTOMOTIVE ALLOY WHEEL MARKET: REGIONAL OUTLOOK<br />
AUTOMOTIVE ALLOY WHEEL MARKET: MARKET PARTICIPANTS<br />
GLOBAL MARKET OVERVIEW OF ALUMINIUM ALLOY WHEEL<br />
FEW KEY PLAYERS IN THIS INDUSTRY ARE AS FOLLOWS:<br />
MAJOR CLASSIFICATIONS OF ALLOY WHEEL ARE AS FOLLOWS:<br />
MAJOR APPLICATIONS ARE AS FOLLOWS:<br />
GLOBAL SCENARIO OF AUTOMOBILE INDUSTRY<br />
CURRENT PROFILE OF THE INDUSTRY<br />
TRENDS IN DOMESTIC PRODUCTION<br />
AUTOMOBILE PRODUCTION TRENDS<br />
TRENDS IN DOMESTIC SALES<br />
AUTOMOBILE SALES TRENDS<br />
TRENDS IN EXPORTS<br />
AUTOMOBILE EXPORTS TRENDS<br />
MARKET SEGMENT<br />
AUTOMOBILE WHEEL MARKET<br />
MARKET DYNAMICS<br />
DRIVERS<br />
RESTRAINTS<br />
OPPORTUNITIES<br />
CHALLENGES<br />
PRINCIPLES OF PLANT LAYOUT<br />
PLANT LOCATION FACTORS<br />
PRIMARY FACTORS<br />
1. RAW-MATERIAL SUPPLY:<br />
2. MARKETS:<br />
3. POWER AND FUEL SUPPLY:<br />
4. WATER SUPPLY:<br />
5. CLIMATE:<br />
6. TRANSPORTATION:<br />
7. WASTE DISPOSAL:<br />
8. LABOR:<br />
9. REGULATORY LAWS:<br />
10. TAXES:<br />
11. SITE CHARACTERISTICS:<br />
12. COMMUNITY FACTORS:<br />
13. VULNERABILITY TO WARTIME ATTACK:<br />
14. FLOOD AND FIRE CONTROL:<br />
EXPLANATION OF TERMS USED IN THE PROJECT REPORT<br />
1. DEPRECIATION:<br />
2. FIXED ASSETS:<br />
3. WORKING CAPITAL:<br />
4. BREAK-EVEN POINT:<br />
5. OTHER FIXED EXPENSES:<br />
6. MARGIN MONEY:<br />
8. TOTAL LOAD:<br />
9. LAND AREA/MAN POWER RATIO:<br />
PROJECT IMPLEMENTATION SCHEDULES<br />
INTRODUCTION<br />
PROJECT HANDLING<br />
PROJECT SCHEDULING<br />
PROJECT CONSTRUCTION SCHEDULE<br />
TIME SCHEDULE<br />
PLANT LAYOUT<br />
ADDRESSES OF RAW MATERIAL SUPPLIERS (IMPORTED)<br />
ADDRESSES OF PLANT AND MACHINERY SUPPLIERS (IMPORTED)<br />
SUPPLIERS OF ALUMINIUM ALLOY WHEEL<br />
SUPPLIERS OF RAW MATERIALS<br />
SUPPLIERS OF ALUMINIUM ALLOY INGOT<br />
SUPPLIERS OF PICKLING ACIDS<br />
SUPPLIERS OF PACKING MATERIALS<br />
SUPPLIERS OF PAINT<br />
SUPPLIERS OF PLANT AND MACHINERY<br />
SUPPLIERS OF LOW PRESSURE DIE CASTING MACHINE<br />
SUPPLIERS OF ALUMINIUM MELTING FURNACE<br />
SUPPLIERS OF CNC LATHE MACHINE<br />
SUPPLIERS OF PAINTING EQUIPMENTS<br />
SUPPLIERS OF DG SETS<br />
SUPPLIERS OF EOT CRANES<br />
SUPPLIERS OF POWER TRANSFORMERS<br />
SUPPLIERS OF ELECTRICAL PANEL<br />
SUPPLIERS OF ELECTRIC MOTOR<br />
SUPPLIERS OF COOLING TOWER<br />
SUPPLIERS OF EFFULENT TREATMENT PLANT (ETP PLANT)<br />
SUPPLIERS OF AIR POLLUTION CONTROL EQUIPMENTS<br />
SUPPLIERS OF AIR CONDITIONING EQUIPMENTS<br />
SUPPLIERS OF AIR COMPRESSORS<br />
SUPPLIERS OF PLATFORM WEIGHING MACHINE<br />
SUPPLIERS OF MATERIAL HANDLING EQUIPMENTS<br />
SUPPLIERS OF FIRE FIGHTING EQUIPMENTS<br />
SUPPLIERS OF SHOT BLASTING MACHINE<br />
SUPPLIERS OF JIGS AND FIXTURE<br />
SUPPLIERS OF SUBMERSIBLE WATER PUMP</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/aluminium-alloy-wheel/">ALUMINIUM ALLOY WHEEL</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>ALUMINIUM ALLOY PLANT</title>
		<link>https://projectreports.eiriindia.org/product/aluminium-alloy-plant/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 27 May 2014 12:30:26 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=2118</guid>

					<description><![CDATA[<p style="text-align: justify;">
Aluminium containing variable amounts of manganese, silicon, copper, Magnesium, lead bismuth, nickel, chromium, zinc ortin.  A wide range of uses and properties is possible.  Always  may  be obtained  for  costing  or working  heat  treatable  or  non-heat treatable  with  a wide range of  strength  corrosion  resistance machinability and weldability.</p>
<p>The Latin in name  Alumen was  employed  by  pliny.   The chemical Alum had been used for car tarius but it was not until 1922 that French Hoffman concluded from experiments that the book of  alum was a true and distinct Earth.  Before the end of that century the name of the earth had been anglicized to Alumina.</p>
<p><strong>PROJECT REPORT COVERS:</strong></p>
<ul>
<li>    Introduction</li>
<li>    Uses and Applications</li>
<li>    Properties</li>
<li>    Market Survey with future aspects</li>
<li>    Present Manufacturers</li>
<li>    B.I.S. Specifications</li>
<li>    Manufacturing Process with Formulae</li>
<li>   Cost Economics with Profitability Analysis</li>
<li>    Capacity</li>
<li>    Land &#38; Building Requirements with Rates</li>
<li>    List &#38; Details of Plant and Machinery with their Costs</li>
<li>    Raw Materials</li>
<li>    Details/List and Costs</li>
<li>    Power &#38; Water Requirements</li>
<li>    Labour/Staff Requirements</li>
<li>    Utilities and Overheads</li>
<li>    Total Capital Investment</li>
<li>    Turnover</li>
<li>    Cost of Production</li>
<li>    Break Even Point</li>
<li>    Profitability</li>
<li>    Land Man Ratio</li>
<li>    Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a href="https://projectreports.eiriindia.org/product/aluminium-alloy-plant/">ALUMINIUM ALLOY PLANT</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/aluminium-alloy-plant/">ALUMINIUM ALLOY PLANT</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>Casting Technology Hand Book</title>
		<link>https://projectreports.eiriindia.org/product/casting-technology-hand-book/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 25 Mar 2014 08:03:45 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1546</guid>

					<description><![CDATA[<p>The book Casting Technology Hand Book  covers  Rules for Casting Design, Melting Furnaces and Refractories, Casting  Processes, Cast Irons, Various Types of Cast Steels, Production of Cast iron Castings, Production of Steel Castings.</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/casting-technology-hand-book/">Casting Technology Hand Book</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>CASTING TECHNOLOGY HAND BOOK</p>
<p>The book Casting Technology Hand Book  covers  Rules for Casting Design, Melting Furnaces and Refractories, Casting  Processes, Cast Irons, Various Types of Cast Steels, Production of Cast iron Castings, Production of Steel Castings.</p>
<p><strong>RULES FOR CASTING DESIGN</strong></p>
<p>Factors Affecting Casting Design<br />
Fluid Life<br />
Solidification Shrinkage<br />
Type of Solidification<br />
Volume<br />
Slag/Dross Formation<br />
Mechanical Factors<br />
Common Design Rules</p>
<p><strong>MELTING FURNACES AND REFRACTORIES</strong></p>
<p>Cupola<br />
Cold Blast Acid Lined Cupola<br />
Construction of the cupola<br />
Operational procedure<br />
Metallurgical reactions<br />
Importance of cupola well depth<br />
Factors affecting the efficiency of cupola operation<br />
Divided Blast Cupola<br />
Cokeless Cupola<br />
Hot Blast Cupola<br />
Water Cooled Cupola<br />
Use Oxygen in Cupolas<br />
Rotary Furnace<br />
Energy  Furnace<br />
Energy Consumption and Heat Transfer<br />
Induction Furnace<br />
Types of Induction Furnace<br />
Ramming materials<br />
Cored Induction Furnace<br />
Induction Furnace Lining<br />
Vacuum Induction Melting<br />
Arc Furnace Melting<br />
Bridge Formation<br />
Disadvantages of DRI<br />
DC Arc Melting Furnace<br />
Electrode breakages<br />
Scrap mix up<br />
Use of sponge iron/HBI<br />
Advantages<br />
Applications of Vacuum Metallurgy in Steel Melting<br />
Introduction<br />
Hydrogen<br />
Nitrogen<br />
Vacuum carbon dexidation<br />
Fundamental Principles of Reactions Under Vacuum<br />
Ladle Degassing by Argon Purging<br />
Vacuum Arc Melting<br />
Non-consumable electrode arc furnace<br />
Consumable electrode vacuum arc process<br />
VOD Process<br />
AOD Process<br />
Foundry Refractories<br />
Classification of Refractories<br />
Refractories for Non-ferrous Melting</p>
<p><strong>CASTING PROCESS</strong></p>
<p>Shell Process<br />
Coating<br />
Making Shell Cores/Moulds<br />
Evaporative Pattern Casting Process<br />
Centrifugal Casting<br />
True Centrifugal Casting<br />
Semi centrifugal Casting<br />
Centrifuging<br />
Investment Casting<br />
Rapid Prototyping<br />
Die Casting<br />
Die Casting Methods<br />
Cold Chamber Process<br />
Low Pressure Die Casting<br />
Cosworth Process<br />
Squeeze Casting<br />
Semi solid Metal Working Process<br />
Technologies for Semi solid Metal processing<br />
Rheocasting<br />
Thixoforming<br />
Rapid Solidification Processing</p>
<p><strong>CAST IRONS</strong></p>
<p>Introduction<br />
Types of Cast Irons<br />
Gray Cast Iron<br />
Melting and Inoculation</p>
<p><strong>VARIOUS TYPES OF CAST STEELS</strong></p>
<p>Pearlitic Steels<br />
Austenitic Manganese steel<br />
Effect of Alloy Additions on Austenitic Manganese Steels<br />
Effect of Process Parameters<br />
Prevention of Failure<br />
Stainless Steels<br />
Austenitic Stainless Steels<br />
Heat treatment<br />
Martensitic Stainless Steels<br />
Duplex Stainless Steels<br />
Maraging Steels</p>
<p><strong>PRODUCTION OF CAST IRON CASTINGS</strong></p>
<p>Classification of cast Irons<br />
Ceemical Composition Effect on structure and Properties<br />
Carbon Equivalent<br />
Silicon<br />
Manganese<br />
Slphur<br />
Phosphorus<br />
Other Minor and Alloying Elements<br />
Types of Graphite<br />
Graphite Size<br />
Metallurgy of Cast Irons<br />
Moulding Practice for Gray Cast Iron Castings<br />
Malleable Irons<br />
Moulding Practice for Malleable Cast Irons<br />
Spheroidal Graphite Cast Iron (Sg Iron)<br />
Uses of SG iron Castings<br />
Chemical Composition<br />
Production Technique<br />
Moulding and Casting Practice<br />
Vermicular Iron</p>
<p><strong>PRODUCTION OF STEEL CASTINGS</strong></p>
<p>Classes of Steel Castings<br />
Specific Characteristics of Casting of Steels<br />
Melting Practice<br />
Moulding Practice<br />
Green Sand Moulding<br />
Dry sand Moulding<br />
Pouring  Gating and Risering<br />
Risering Practice<br />
Cleaning and Inspection<br />
Alloying Practice for Steel Casting<br />
Heat Treatment of Steel Castings<br />
Annealing<br />
Normalising<br />
Quenching and Tempering<br />
Flame Hardening</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/casting-technology-hand-book/">Casting Technology Hand Book</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>ALUMINIUM INGOTS FROM BAUXITE</title>
		<link>https://projectreports.eiriindia.org/product/aluminium-ingots-bauxite/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 14 Mar 2014 09:12:35 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1447</guid>

					<description><![CDATA[<p style="text-align: justify;">         The  20th century has seen the emergence of aluminium  as  a key  industrial and strategic material, second to only  steel  in terms of importance and tonnages of production.</p>
<p>A point to notice is the upsurge in production synchronizing with  the  two world wars pointing to the need for  aluminium  as strategic material.</p>
<p>In  todays industrial civilization, aluminium  is  important because  it serves as a basic input for a number of industry  is, it  is  indistpensable  for building  up  and  strengthening  the industrial  infra-structure in the basic sectors viz.  power  and transportation.  Besides  finding extensive use  in  other  vital sectors  like space, defense, buildings,  construction,  domestic<br />
hardwares etc.</p>
<p><strong>Project Reports Cover:</strong></p>
<ul>
<li>    Introduction</li>
<li>    Uses and Applications</li>
<li>    Properties</li>
<li>    Market Survey with future aspects</li>
<li>    Present Manufacturers</li>
<li>    B.I.S. Specifications</li>
<li>    Manufacturing Process with Formulae</li>
<li>   Cost Economics with Profitability Analysis</li>
<li>    Capacity</li>
<li>    Land &#38; Building Requirements with Rates</li>
<li>    List &#38; Details of Plant and Machinery with their Costs</li>
<li>    Raw Materials</li>
<li>    Details/List and Costs</li>
<li>    Power &#38; Water Requirements</li>
<li>    Labour/Staff Requirements</li>
<li>    Utilities and Overheads</li>
<li>    Total Capital Investment</li>
<li>    Turnover</li>
<li>    Cost of Production</li>
<li>    Break Even Point</li>
<li>    Profitability</li>
<li>    Land Man Ratio</li>
<li>    Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a href="https://projectreports.eiriindia.org/product/aluminium-ingots-bauxite/">ALUMINIUM INGOTS FROM BAUXITE</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/aluminium-ingots-bauxite/">ALUMINIUM INGOTS FROM BAUXITE</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>Practical Project Execution Know-How Report on Alloy Wheels Manufacturing Plant (Present &#038; Future Prospects, Market Size, Statistics, Trends, SWOT Analysis and Forecasts upto 2020)</title>
		<link>https://projectreports.eiriindia.org/product/practical-project-execution-know-report-alloy-wheels-manufacturing-plant-present-future-prospects-market-size-statistics-trends-swot-analysis-forecasts-upto-2020/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Thu, 13 Mar 2014 10:47:57 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1426</guid>

					<description><![CDATA[<p><strong>PRACTICAL PROJECT EXECUTION KNOW-HOW REPORT ON </strong><strong>ALLOY WHEELS MANUFACTURING PLANT</strong></p>
<p><strong>(PRESENT and FUTURE Prospects, Market Size, Statistics, Trends, SWOT Analysis and Forecasts Upto 2020)</strong></p>
<p><strong>PUBLISHER: ENGINEERS INDIA RESEARCH INSTITUTE (EIRI), An experienced industrial consultants working over 35 years and heve published over 175 technology publications</strong></p>
<p>Aluminum alloy wheels and wheel covers have the advantage of low weight and high degree of corrosion-resistance. It is the high time to boost-up this substitution because on one hand  the availability of aluminum is assured as its raw material while on the  other hand, the automobile industry has  started  looking-up after  a long recessionary stretch. But, aluminium alloy wheels are more readily acceptable due to the interests in manufacturing fuel-efficient auto-vehicles.</p>
<p>Various incentives and concessions offered by the government to Rs. 12,000 crore automobile industry has succeeded in bringing the industry back to track. Automobile market has picked-up its demand. Maruti's new car for exports to Europe and new tie-ups by other car manufacturers have given a new dynamism  to  Indian automobile  industry.  Tatas  have  promised  to  put  India-made Mercedes  on  roads  along with  other  foreign  models.  Reputed foreign  automobile  companies  are entering  into  tie-ups  with indian   firms  for  manufacturing  vehicles,  in  the   country. Hindustan Motors will set-up a joint venture with General Motors of USA for manufacturing cars.</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/practical-project-execution-know-report-alloy-wheels-manufacturing-plant-present-future-prospects-market-size-statistics-trends-swot-analysis-forecasts-upto-2020/">Practical Project Execution Know-How Report on Alloy Wheels Manufacturing Plant (Present &#038; Future Prospects, Market Size, Statistics, Trends, SWOT Analysis and Forecasts upto 2020)</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p><strong>PRACTICAL PROJECT EXECUTION KNOW-HOW REPORT ON </strong><strong>ALLOY WHEELS MANUFACTURING PLANT</strong></p>
<p><strong>(PRESENT and FUTURE Prospects, Market Size, Statistics, Trends, SWOT Analysis and Forecasts Upto 2020)</strong></p>
<p><strong>PUBLISHER: ENGINEERS INDIA RESEARCH INSTITUTE (EIRI), An experienced industrial consultants working over 35 years and heve published over 175 technology publications</strong></p>
<p>Aluminum alloy wheels and wheel covers have the advantage of low weight and high degree of corrosion-resistance. It is the high time to boost-up this substitution because on one hand  the availability of aluminum is assured as its raw material while on the  other hand, the automobile industry has  started  looking-up after  a long recessionary stretch. But, aluminium alloy wheels are more readily acceptable due to the interests in manufacturing fuel-efficient auto-vehicles.</p>
<p>Various incentives and concessions offered by the government to Rs. 12,000 crore automobile industry has succeeded in bringing the industry back to track. Automobile market has picked-up its demand. Maruti&#8217;s new car for exports to Europe and new tie-ups by other car manufacturers have given a new dynamism  to  Indian automobile  industry.  Tatas  have  promised  to  put  India-made Mercedes  on  roads  along with  other  foreign  models.  Reputed foreign  automobile  companies  are entering  into  tie-ups  with indian   firms  for  manufacturing  vehicles,  in  the   country. Hindustan Motors will set-up a joint venture with General Motors of USA for manufacturing cars.</p>
<p>Similarly, Premier Automobiles Ltd.  (PAL)  is undergoing collaboration with French firm Peugeot to manufacture a range of motor cars, in India. According to a report, the  French  car manufacturing companies of repute are trying to make India  their manufacturing base.</p>
<p>All these significant changes indicate that there will be an all round quality consciousness in the country in future.</p>
<p>Recently, Indian auto-ancillary industry has been plagued by problems of increase in the manufacture f spurious parts. Out of the total manufacture of auto-parts worth Rs. 3,500 crore, India exported  Rs. 375 crore, to Dacwoo Motor Corporation (S.  Korea), Lana Corporation (USA), and DAF (Holland), etc.</p>
<p>LCVs industry showed over 58% growth,  despite  the  tight money markets, low depreciation rates and shift in the  corporate purchase  period. India produces cars (0.2 mm nos.), trucks  (0.1 mm  nos.)  6T GVW (0.10 mn nos.), and 2-wheelers  (1.7  mn  nos.) totaling  2  million  nos. which is 3% of  the  world  automobile vehicles production.</p>
<p>This scenario is felt the best for in introducing aluminium alloy wheels for auto vehicles.</p>
<p><strong>AUTOMOBILE INDUSTRY IN INDIA</strong></p>
<p><strong>Government Initiatives</strong></p>
<p><strong>The Government of India plans to introduce fuel-efficiency ratings for automobiles to encourage sale of cars that consume less petrol or diesel,  per Mr Veerappa Moily, Union Minister for Petroleum and Natural Gas, Government of India.</strong></p>
<p>The Union Budget 2013-14 added some incentives to the industry. The analysis by Deloitte on the Union Budget highlighted the following points:</p>
<p>• The period of concession available for specified part of electric and hybrid vehicles till April 2013 has been extended upto March 31, 2015</p>
<p>• The basic customs duty (BCD) on imported luxury goods such as high-end motor vehicles, motor cycles, yachts and similar vessels was increased. The duty was raised from 75 per cent to 100 per cent on cars/ motor vehicles (irrespective of engine capacity) with CIF value more than US$ 40,000; from 60 per cent to 75 per cent on motorcycles with engine capacity of 800 cc or more and on yachts and similar vessels from 10 per cent to 25 per cent</p>
<p>• In addition, an increase in excise duty from 27 to 30 per cent has been allowed for SUVs with engine capacity exceeding 1,500 cc, while excise duty was decreased from 80 to 72 per cent, in case of SUVs registered solely to be used for taxi purposes</p>
<p>• An exemption from BCD on lithium ion automotive battery for manufacture of lithium ion battery packs for supply to manufacturers of hybrid and electric vehicles</p>
<p>• The excise duty on chassis of diesel motor vehicles for transport of goods reduced from 14 per cent to 13 per cent</p>
<p>The Government of India allows 100 per cent FDI in the automotive industry through automatic route. The Government also plans to accelerate the supply of electric vehicles over the next eight years. It is expected that there will be a demand for 5-7 million electricity-operated vehicles by 2020.</p>
<p>With special focus on exports of small cars, MUVs, two &amp; three wheelers and auto components; the automotive sector’s contribution to the gross domestic product (GDP) is expected to double reaching a turnover worth US$ 145 billion in 2016, according to the Automotive Mission Plan (AMP) 2006-2016.</p>
<p><strong>Why to Buy this Report:</strong></p>
<p>• This detailed research report helps you get a detailed picture of the Alloy wheel industry by providing overview of the industry along with the market structure, classification and technology details with complete latest cost economics and profitability analysis.</p>
<p>• The report provides market analysis covering major growth driving factors for the industry and latest market trends in the industry</p>
<p>• This report helps to understand the present status of the allow wheels industry by elucidating a comprehensive market with future demand and supply analysis and scrutiny of the demand supply situation with technology details to start and setup the industry.</p>
<p>• The report provides forecasts of key parameters which helps to anticipate the industry performance</p>
<p>Our Approach:</p>
<p>• Our research reports broadly cover Indian markets, present analysis, outlook and forecast for a period of five years.</p>
<p>• The market forecasts are developed on the basis of secondary research and are cross-validated through interactions with the industry players</p>
<p>• We use reliable sources of information and databases. And information from such sources  is processed by us and included in the report</p>
<p>• EIRI have experienced technologists with its team to provide you the all genuine data.</p>
<p><strong>DETAILED CONTENTS COVERED IN THE REPORT.</strong></p>
<ul>
<li>1. INTRODUCTION</li>
<li>2. PROPERTIES</li>
<li>3. B.I.S. SPECIFICATIONS</li>
<li>4. MARKET SURVEY</li>
<li>5. GLOBAL AUTOMOTIVE ALUMINIUM WHEEL INDUSTRY (2014-2016)</li>
<li>6. ALUMINUM WHEEL INDUSTRY TRANSFER TO ASIA ESPECIALLY TO CHINA</li>
<li>7. CHINA WHEEL-HISTORY AND DEVELOPMENT MOST VALUABLE CLIENTS GROUP IN THE WORLD</li>
<li>8. PRODUCTION OF ALUMINUM  ALLOY WHEEL IN INDIA</li>
<li>9. IMPORT AND EXPORT OF ALUMINUM ALLOY WHEEL</li>
<li>10. ALUMINUM WHEEL EXPORT DATA &amp; EXPORT SHIPMENT</li>
<li>11. DATA OF INDIA  (SEP 13 TO NOV 13)</li>
<li>12. ALUMINUM WHEEL IMPORT DATA &amp; IMPORT STATISTICS IN INDIA (OCT 13 TO NOV 13)</li>
<li>13. INSTALLED CAPACITY, PRODUCTION &amp; CAPACITY UTILIZATION OF ALUMINUM ALLOY WHEELS UPTO 2013</li>
<li>14. APPARENT CONSUMPTION OF ALUMINUM ALLOY WHEEL 2008 TO 2013</li>
<li>15. ESTIMATED DEMAND UPTO 2019-2020</li>
<li>16. DEMAND SUPPLY GAP 2019-2020</li>
<li>17. MANUFACTURING PROCESS</li>
<li>18. PROCESS FLOW DIAGRAM</li>
<li>19. PLANT LAYOUT</li>
<li>20. PRESENT MANUFACTURERS/ SUPPLIERS/ EXPORTERS/ DEALERS OF ALLOY WHEELS</li>
<li>21. SUPPLIERS OF RAW MATERIALS</li>
<li>22. SUPPLIERS OF PLANT &amp; MACHINERY</li>
<li>23. SUPPLIERS/MANUFACTURERS OF ALLOY WHEEL</li>
</ul>
<p>along with financial details as under:</p>
<ul>
<li>Summary of Capital Cost of Project</li>
<li>Land &amp; Side Development Exp.</li>
<li>Buildings</li>
<li>Plant &amp; Machineries</li>
<li>Misc. Fixed Assets</li>
<li>Technical Know how Fees &amp; Exp.</li>
<li>Preliminary Expenses</li>
<li>Pre-operative Expenses</li>
<li>Provision for Contingencies</li>
</ul>
<p>below mentioned financial statements (Annexure) will be  for 5 to 10 Years</p>
<ul>
<li>  Annexure  ::         Cost of Project and Means of Finance</li>
<li>  Annexure  ::         Output, Profitability and Cash Flow Chart</li>
<li>  Annexure  ::         Assessment of Working Capital requirements</li>
<li>  Annexure  ::         Sources of Finance</li>
<li>  Annexure  ::         Balance Sheets</li>
<li>  Annexure  ::         Break-Even Analysis and profitability analysis.</li>
<li>  Annexure  ::         Quantitative Details-Output/Sales/Stocks</li>
<li>  Annexure  ::         Sales Realisation</li>
<li>  Annexure  ::         Raw Material Cost</li>
<li>  Annexure  ::         Other Raw Material Cost</li>
<li>  Annexure  ::         Packing Material Cost</li>
<li>  Annexure  ::         Consumables, Store etc.,</li>
<li>  Annexure  ::         Employees Expenses</li>
<li>  Annexure  ::         Fuel Expenses</li>
<li>  Annexure  ::         Power/Electricity Expenses</li>
<li>  Annexure  ::         Repairs &amp; Maintenance Exp.</li>
<li>  Annexure  ::         Other Mfg. Expenses</li>
<li>  Annexure  ::         Administration Expenses</li>
<li>  Annexure  ::         Selling Expenses</li>
<li>  Annexure  ::         Depreciation Charges &#8211; Profitability</li>
<li>  Annexure  ::         Depreciation Charges</li>
<li>  Annexure  ::         Interest and Repayment &#8211; Term Loans</li>
<li>  Annexure  ::         Tax on Profit</li>
<li>  Annexure  ::         Assumptions for Profitability workings</li>
<li>  Annexure  ::         Assessment of Working Capital</li>
</ul>
<p><strong>Total No. of Pages : 141</strong></p>
<p><strong>ISBN: 9789380772462</strong></p>
<p><strong>Author: EiRi Board of Consultants</strong></p>
<p><strong>Published: 2014</strong></p>
<p><strong>Delivery: In 3-4 working days via Email.</strong></p>
<p>The post <a href="https://projectreports.eiriindia.org/product/practical-project-execution-know-report-alloy-wheels-manufacturing-plant-present-future-prospects-market-size-statistics-trends-swot-analysis-forecasts-upto-2020/">Practical Project Execution Know-How Report on Alloy Wheels Manufacturing Plant (Present &#038; Future Prospects, Market Size, Statistics, Trends, SWOT Analysis and Forecasts upto 2020)</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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			</item>
		<item>
		<title>ALUMINIUM ALLOY INGOTS</title>
		<link>https://projectreports.eiriindia.org/product/aluminium-alloy-ingots-3/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Tue, 11 Mar 2014 13:54:51 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1405</guid>

					<description><![CDATA[<p style="text-align: justify;">   ALUMINIUM All metallic element of atomic number 13 group III  A of the periodic Table-Alomic weight 26. 9815.  Valance  + 3,  one stable,  8  radiative isotoper, monovolent  in  high  temperature compounds  AICI and AFF.  Most abundant metal in earth is  crust, third  most  abundant  of all elements does  not  occur  free  in nature.</p>
<p><strong>Project Reports Cover:</strong></p>
<ul>
<li>    Introduction</li>
<li>    Uses and Applications</li>
<li>    Properties</li>
<li>    Market Survey with future aspects</li>
<li>    Present Manufacturers</li>
<li>    B.I.S. Specifications</li>
<li>    Manufacturing Process with Formulae</li>
<li>   Cost Economics with Profitability Analysis</li>
<li>    Capacity</li>
<li>    Land &#38; Building Requirements with Rates</li>
<li>    List &#38; Details of Plant and Machinery with their Costs</li>
<li>    Raw Materials</li>
<li>    Details/List and Costs</li>
<li>    Power &#38; Water Requirements</li>
<li>    Labour/Staff Requirements</li>
<li>    Utilities and Overheads</li>
<li>    Total Capital Investment</li>
<li>    Turnover</li>
<li>    Cost of Production</li>
<li>    Break Even Point</li>
<li>    Profitability</li>
<li>    Land Man Ratio</li>
<li>    Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a href="https://projectreports.eiriindia.org/product/aluminium-alloy-ingots-3/">ALUMINIUM ALLOY INGOTS</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/aluminium-alloy-ingots-3/">ALUMINIUM ALLOY INGOTS</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>ALUMINIUM DOORS AND WINDOWS</title>
		<link>https://projectreports.eiriindia.org/product/aluminium-doors-windows/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Fri, 07 Mar 2014 06:15:47 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1378</guid>

					<description><![CDATA[<p style="text-align: justify;">
Doors,  windows and ventilators are essential  component  of<br />
all types of buildings - residential, commercial and  industrial.<br />
House building has been a need and beautifying the buildings  has<br />
been a love for mankind from the time immemorial. Doors are  used<br />
for  providing entrances from outside into the building  and  for<br />
inter  room  connections  for  easy  approach.  Ventilators   are<br />
provided  for  sun rays and light, into the dwelling  houses,  in<br />
sufficient  quantity  windows  play larger roles  in  the  entire<br />
building  construction  for enhancing the utility of  the  house.<br />
Windows  are  provided  in  building walls in  as  many  nos.  as<br />
possible.  This is so because windows serve in a lot  many  ways.<br />
Most  of  the  air passage takes places  through  these  windows.<br />
Similarly, light and sun get entry through windows quite  freely.<br />
Windows  provide  cross  ventilation in  many  cases.  All  these<br />
conditions are essential for human conforts. Outsiders enter into<br />
the  house  through  the doors but the  doors  are  opened  after<br />
looking  at the entrance through windows and  after  ascertaining<br />
that the outsider could be allowed to enter.</p>
<p><strong>Project Reports Cover:</strong></p>
<ul>
<li>    Introduction</li>
<li>    Uses and Applications</li>
<li>    Properties</li>
<li>    Market Survey with future aspects</li>
<li>    Present Manufacturers</li>
<li>    B.I.S. Specifications</li>
<li>    Manufacturing Process with Formulae</li>
<li>   Cost Economics with Profitability Analysis</li>
<li>    Capacity</li>
<li>    Land &#38; Building Requirements with Rates</li>
<li>    List &#38; Details of Plant and Machinery with their Costs</li>
<li>    Raw Materials</li>
<li>    Details/List and Costs</li>
<li>    Power &#38; Water Requirements</li>
<li>    Labour/Staff Requirements</li>
<li>    Utilities and Overheads</li>
<li>    Total Capital Investment</li>
<li>    Turnover</li>
<li>    Cost of Production</li>
<li>    Break Even Point</li>
<li>    Profitability</li>
<li>    Land Man Ratio</li>
<li>    Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a href="https://projectreports.eiriindia.org/product/aluminium-doors-windows/">ALUMINIUM DOORS AND WINDOWS</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/aluminium-doors-windows/">ALUMINIUM DOORS AND WINDOWS</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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			</item>
		<item>
		<title>modern technology of rolling mill, billets, steel wire, galvanized sheet, forging and castings</title>
		<link>https://projectreports.eiriindia.org/product/modern-technology-rolling-mill-billets-steel-wire-galvanized-sheet-forging-castings/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 19 Feb 2014 13:48:36 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1281</guid>

					<description><![CDATA[<p>The book Modern Technology of Rolling Mill, Billets, Steel Wire, Galvanized Sheet, Forging and Castings covers Technology of Rolling Mills, Heating Steel for Hot Working, Production of Steel Blooms, Slabs and Billets, Steel Plates Manufacture, Technology of Steel Wire and Steel Wire Products, Manufacturing Technology of Hot-Strip Mill Products, Production Process of Cold-Reduced Flat Rolled Products, Manufacture of Galvanized Sheet and Strip, Castings-Steel and Iron and Project Profiles</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/modern-technology-rolling-mill-billets-steel-wire-galvanized-sheet-forging-castings/">modern technology of rolling mill, billets, steel wire, galvanized sheet, forging and castings</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p align="justify"><strong>In metalworking, rolling is a metal forming process</strong> in which metal stock is passed through a pair of rolls. Rolling is classified according to the temperature of the metal rolled. If the temperature of the metal is above its recrystallization temperature, then the process is termed as hot rolling. If the temperature of the metal is below its recrystallization temperature, the process is termed as cold rolling. In terms of usage, hot rolling processes more tonnage than any other manufacturing process and cold rolling processes the most tonnage out of all cold working processes. There are many types of rolling processes, including flat rolling, foil rolling, ring rolling, roll bending, roll forming, profile rolling, and controlled<br />
rolling.</p>
<p>Originally, a “billet” (from the French) was a note, commonly used in the 18th and early 19th centuries as a “billet of invitation.” A particular use of the word in this sense is to denote an order issued to a soldier entitling him to quarters with a certain person. From this meaning, the word billet came to be loosely used of the quarters thus obtained. Repeated petitions against the practice of billeting, starting in the 16th century, culminated in its outlawing in 1689 as an extension of a section of the Petition of Right 1628. During wartime, civilians who have been evacuated from a city in danger of attack are billetted in communal shelters or in the homes of individuals. The practice of billetting evacuees was widespread in Britain during World War II, particularly during the Blitz, when children and other non-essential persons in major cities were sent to rural areas for safety. In European countries since the formation of regular forces the Quartermaster was an occupation and a rank of the individuals responsible for provision of sleeping quarters as well as other provisions for regular time troops.</p>
<p>In general, galvanized sheet metal is mild (carbon) steel that is used for a ton of different things. This material is tough and strong, and it can be fairly easily worked (bent or formed) in a number of different ways to produce useful products (like HVAC ductwork, to name just one application). It lasts a long time, too, because the zinc coating (the galvanizing) inhibits corrosion quite well.</p>
<p>Forging or cold forming are metalforming processes. There is no melting and consequent solidification involved. Plastic deformation produces an increase in the number of dislocations resulting in a higher state of internal stress. Indeed, strain hardening is attributed to the interaction of dislocations with other dislocations and other barriers (such as grain boundaries). Simultaneously, the shape of primary crystals (dendrites) changes after plastic working of the metal. Dendrites are stretched in the direction of metal flow and<br />
thus form fibers of increased strength along the direction of flow. Casting is a solidification process. Therefore, the microstructure can be finely tuned, such as grain structure, phase<br />
transformations and precipitation. However, defects such as shrinkage porosity, cracks and segregation are also intimately linked to solidification. These defects can lead to lower mechanical properties. A subsequent heat treatment is often required to reduce residual stresses and optimize mechanical properties. The book cover various aspects on Rolling Mill, Billets, Steel Wire, Galvanised Sheet, Forging and Castings.</p>
<p><strong>Chapter 1<br />
Technology of Rolling Mills</strong></p>
<ul>
<li>Types of Mills</li>
<li>General Classification</li>
<li>Arrangement of Mills</li>
<li>Types of Roll Mountings</li>
<li>Mill-Size Description</li>
<li>Rolling-Mill Accessories</li>
<li>Lead Spindle</li>
<li>Mill Pinions</li>
<li>The Bearings</li>
<li>Roller Bearings</li>
<li>Oil-Film Bearings</li>
<li>Chock Bearings</li>
<li>Arrangement of Chock Bearings</li>
<li>Housings</li>
<li>Guides and Guards</li>
<li>Rolling-Mill Roll Design and Manufacture</li>
<li>Principal Parts of Rolls</li>
<li>Procedure in Designing</li>
<li>Elements of Good Roll Design</li>
<li>Casting of Rolling-Mill Rolls</li>
<li>Steel Rolls</li>
<li>Iron-Base Rolls</li>
<li>Chill Rolls</li>
<li>Grain-Iron Rolls</li>
<li>Composite or Overflowed Rolls</li>
<li>Ductile-Iron Rolls</li>
<li>Mill Drives and Power Requirements</li>
<li>Development of Main</li>
<li>Mill Drives</li>
<li>Power Requirements for Various Operations in</li>
<li>the Production of Steel</li>
<li>Factors Affecting Size and</li>
<li>Type of Main-Drive Motors</li>
<li>Types of Motors for Main Drives</li>
<li>Synchronous Motors</li>
<li>Squirrel-Cage Motors</li>
<li>Wound-Rotor Induction Motors</li>
<li>Direct-Current Motors</li>
<li>Principle and Application of Flywheels</li>
<li>Energy Stored in a Flywheel</li>
<li>Amount of Energy Available for Regulation</li>
<li>Acceleration and Retardation of the</li>
<li>Wheel</li>
<li>Induction-Motor</li>
<li>Characteristics</li>
<li>Motor Load Curves Various Means for</li>
<li>Obtaining Adjustable</li>
<li>Speeds</li>
<li>Control of Two-Speed AC Motors</li>
<li>AC-Motor Speed Control by Secondary</li>
<li>Resistance</li>
<li>Variable-Speed Controls for AC Motors</li>
<li>Variable-Speed Controls for DC Motors</li>
<li>Ward-Leonard Control</li>
<li>Relay and Continuous-Feedback Systems</li>
<li>Reversing-Mill Drives</li>
<li>The Flywheel Motor-Generator Set</li>
<li>Three-High Mill Drives</li>
<li>Continuous-Mill Drives</li>
<li>Wide-Hot-Strip Mills</li>
<li>Tandem Cold-Reduction Mills</li>
<li>Continuous Billet Mills</li>
<li>Continuous Bar Mills</li>
<li>Continuous Rod Mills</li>
<li>Continuous Seamless Tube Mill</li>
<li>Motor-Room Ventilation</li>
<li>Auxiliary Drives</li>
<li>Table Rollers</li>
<li>Screw-Downs</li>
<li>Manipulators and Side-Guards</li>
<li>Blooming-Mill Shears</li>
<li>Future Drives</li>
<li>Automatic Control of Rolling Operations</li>
<li>Principles of Process Control Systems</li>
<li>Process Equations</li>
<li>Instrumentation</li>
<li>Control of Primary Rolling</li>
<li>Plate-Mill Control</li>
<li>Hot-Strip Mill Control</li>
<li>Roughing</li>
<li>Finishing</li>
<li>Computer Control</li>
<li>Control of Cold-Reduction Mills</li>
<li>Reversing Mills</li>
<li>Tandem Mills</li>
<li>Computer Control</li>
</ul>
<p><strong>Chapter 2<br />
Heating Steel for Hot Working</strong></p>
<ul>
<li>Principles of Furnace Design</li>
<li>Objectives and General Metallurgical Requirements</li>
<li>Basic Elements of Furnaces</li>
<li>Furnace Size and Capacity</li>
<li>Furnace Type and Shape</li>
<li>Thermal Efficiency</li>
<li>Materials of Construction</li>
<li>Soaking-Pit Furnaces</li>
<li>Introductory Types of Soaking-Pit Furnaces</li>
<li>Auxiliary Facilities</li>
<li>Ingot Pit Cranes</li>
<li>Cinder-Removal Facilities</li>
<li>Objectives in Modern Soaking Pit Design</li>
<li>Modern Heating Practices</li>
<li>Operating Statistics</li>
<li>Reheating Furnaces</li>
<li>Furnace Types</li>
<li>Pusher-Type Furnaces</li>
<li>Walking-Beam-Type Furnaces</li>
<li>Roller-Hearth Reheating Furnaces</li>
<li>General Considerations in Furnace-Type Selection</li>
<li>Batch-Type Furnaces</li>
<li>Pusher-Type Furnaces</li>
<li>Rotary-Hearth Furnaces</li>
<li>Walking-Beam Furnaces</li>
<li>Roller-Hearth Furnaces</li>
<li>Operating Statistics</li>
</ul>
<p><strong>Chapter 3<br />
Production of Steel Blooms, Slabs and Billets</strong></p>
<ul>
<li>Introductory</li>
<li>Production of Blooms and Slabs by Rolling</li>
<li>General Features of Blooming and Slabbing Mills</li>
<li>Primary-Mill Activities</li>
<li>Two-High Reversing Mill</li>
<li>Two-High Tandem Mill</li>
<li>Three-High Mill</li>
<li>Operating Units Comprising a Blooming Mill</li>
<li>Rolling</li>
<li>Shearing</li>
<li>Combinations of Conventional-Type Mills for Special Purposes</li>
<li>Two Two-High Reversing Mills in Tandem</li>
<li>Tandem and Three-high Mill in Tandem</li>
<li>Four-Stand and Five-Stand Tandem</li>
<li>Mills in Tandem</li>
<li>Design of Blooming-Slabbing Mill Roll Stands</li>
<li>Stand Design</li>
<li>Roll Design and Rolling Procedures</li>
<li>Roll Design</li>
<li>Effect of Pass Design on Rolling Procedures</li>
<li>Convexity of Passes</li>
<li>Depth of Passes Bearings</li>
<li>Roll-Opening Indicators</li>
<li>Roll-Changing Devices</li>
<li>Cooling Water</li>
<li>Manipulators</li>
<li>Production of Billets by Rolling</li>
<li>Development of the Billet Mill</li>
<li>Types of Billet Mills</li>
<li>Three-High Billet Mills</li>
<li>Cross-Country Billet Mills</li>
<li>Advantages of Cross-Country Mills</li>
<li>Continuous Billet Mill</li>
<li>Six-Stand Continuous Mill at Lorain Works</li>
<li>The Four-Stand Continuous Mill at Lorain</li>
<li>Hot-Scarfing Machines Roll Adjustment</li>
<li>Shears</li>
<li>Identification</li>
<li>Continuous Casting of Blooms, Slabs and Billets</li>
<li>Principles of Continuous Casting</li>
<li>The Continuous Slab Caster at Gary Works</li>
<li>Sequence of Operations</li>
<li>Process Control</li>
</ul>
<p><strong>Chapter 4<br />
Steel Plates Manufacture</strong></p>
<ul>
<li>Plate-Mill Products</li>
<li>Plate-Mill Operations</li>
<li>Heating Slabs for Rolling</li>
<li>Batch-Type Heating Furnaces</li>
<li>Continuous-type Heating Furnaces</li>
<li>Furnace Control</li>
<li>Descaling</li>
<li>Plate Rolling</li>
<li>Plate Rolling Variables</li>
<li>Bending of Rolls</li>
<li>Roll Wear</li>
<li>Temperature Variation</li>
<li>Levelling (Flattening) Cooling</li>
<li>Shearing and Cutting</li>
<li>Identification, Inspection and Loading</li>
<li>General Types of Plate Mills</li>
<li>Two-High Pull-Over, Two-High Single-Stand</li>
<li>Reversing and Three-High Plate Mills</li>
<li>Three-High Plate Mills</li>
<li>Four-High Reversing Plate Mills</li>
<li>160/210-Inch Plate Mill</li>
<li>Slab Yard</li>
<li>Slab-Reheating Furnaces</li>
<li>Scalebreaker</li>
<li>Slab Turnaround</li>
<li>Four-High Reversing Stand Tables</li>
<li>Transfer Tables and Cooling</li>
<li>Levelers</li>
<li>Plate-Inspection Turnovers</li>
<li>Plate Marking Crop Shear</li>
<li>Side Shears</li>
<li>Dividing Shear</li>
<li>Scrap Shears</li>
<li>Inspection and Piling</li>
<li>Flame Cutting</li>
<li>Heat-Treating Facilities</li>
<li>Roll Shop</li>
<li>Lubrication</li>
<li>160-Inch Four-High Plate Mill at Homestead Works</li>
<li>Tandem Mills</li>
<li>Semi-continuous and Continuous Mills</li>
<li>The 100-inch Semi-Continuous Plate Mill at Homestead Works</li>
<li>No. 3 Shear Unit</li>
<li>No. 4 Shear Unit</li>
<li>Rotary Shear Line—No. 1 Shear Unit</li>
<li>Continuous Normalizing Furnace</li>
<li>No. 2 Shear Unit</li>
<li>The 96-inch Four-High</li>
<li>Continuous Plate Mill at South Works</li>
<li>Universal Plate Mills</li>
<li>The 30-Inch Universal Plate Mill</li>
<li>Reheating Furnaces</li>
<li>30-Inch Universal Plate Mill Stand</li>
<li>Rolling</li>
<li>Hot Bed</li>
<li>Finishing</li>
<li>Heat-Treating Facilities for Steel Plates</li>
<li>Types of Heat Treatment</li>
<li>Furnaces for Heat Treating Plates</li>
<li>Plate Heat-Treating</li>
<li>Equipment at Homestead Works</li>
<li>160-Inch Mill Heat-Treating Facilities</li>
<li>100-Inch Mill Hardening-Tempering Furnace</li>
<li>Car-Bottom Heat-Treating Furnaces</li>
<li>Plate Heat-Treating Equipment</li>
</ul>
<p><strong>Chapter 5<br />
Technology of Steel Wire and Steel Wire Products</strong></p>
<ul>
<li>Principle Uses of Steel Wire Early Method of Manufacture Classification of Steel Wire</li>
<li>Bases for Classification</li>
<li>Kinds and Composition of Steel Used for Wire</li>
<li>Wire Shapes</li>
<li>Sizes of Wire</li>
<li>Classification of Common Round Wire According to Size</li>
<li>Surface Finishes of Wire</li>
<li>Temper of Wire</li>
<li>Rolling the Wire Rod</li>
<li>The Wire Rod</li>
<li>Types of Rod Mills</li>
<li>The Continuous Rod Mill</li>
<li>The Morgan Mill</li>
<li>Modern Continuous Rod Mills</li>
<li>Layouts for Rolling Small Billets</li>
<li>The Looping Continuous Mill</li>
<li>Layouts for Rolling 4-lnch by 4-lnch Billets</li>
<li>Operation of Continuous Mills</li>
<li>Outline of Wire-Drawing Processes</li>
<li>Preparing the Rod for Drawing</li>
<li>Drawing the Rod</li>
<li>Draft, Drawing and Process Wire</li>
<li>Dry Drawing and Wet Drawing</li>
<li>Types of Wire</li>
<li>Processes and Equipment for Preparing Rods</li>
<li>and Wire for Drawing</li>
<li>Importance of Cleaning</li>
<li>Method of Cleaning</li>
<li>Manner of Handling the Material</li>
<li>Types of Cranes</li>
<li>Construction of Tanks</li>
<li>Arrangement of Tanks</li>
<li>Concentration of Acid</li>
<li>Temperature for Cleaning</li>
<li>Time of Cleaning</li>
<li>Rinsing</li>
<li>Coatings</li>
<li>Process for Lime Coating</li>
<li>Coatings for Dry Drawing</li>
<li>Phosphate Coatings</li>
<li>Baking</li>
<li>Wire-Drawing Equipment</li>
<li>Dies</li>
<li>Die Holes</li>
<li>Diamond Dies</li>
<li>The Block</li>
<li>Drawing Machines</li>
<li>Drawbench</li>
<li>Bull Blocks</li>
<li>Motor Blocks</li>
<li>Continuous Machines</li>
<li>Intermediate Machines</li>
<li>Terminal Equipment</li>
<li>Fine-Wire Machines</li>
<li>Drawing Frames</li>
<li>Auxiliary Equipment</li>
<li>Pay-Off Reels</li>
<li>Welders</li>
<li>Safety Stop</li>
<li>Pointers</li>
<li>“Turks-Head” Shaped-Wire Drawing Machine</li>
<li>Heating Effect in Wire Drawing</li>
<li>Wire-Drawing Processes and Operations</li>
<li>Effect of Drawing Upon Mechanical Properties</li>
<li>The Cause of These Changes</li>
<li>Limitations of Drawing</li>
<li>Dry Drawing</li>
<li>Uses of Low-Carbon Wire</li>
<li>High-Carbon and Specialty Wire</li>
<li>Wet Drawing</li>
<li>Wet Drawing-Multiple Drafts</li>
<li>Drawing Limits and Tolerances</li>
<li>Special Finishing Operations</li>
<li>Straightening and Cutting Wire Whirls</li>
<li>Roll Straighteners</li>
<li>Inspection and Testing</li>
<li>Importance of Inspection</li>
<li>Final Tests on Wires</li>
<li>Defects in Wire</li>
<li>Size and Shape</li>
<li>Internal Defects</li>
<li>Surface Defects</li>
<li>Mechanical Properties</li>
<li>Heat Treatment of Wire</li>
<li>Importance and Purposes of Annealing</li>
<li>Annealing for Definite Structures</li>
<li>Sizes of Grains</li>
<li>Time and Temperature for Annealing</li>
<li>Methods of Annealing Wire</li>
<li>Controlled-Atmosphere Annealing</li>
<li>Salt-Bath Annealing Patenting</li>
<li>Metals of Patenting</li>
<li>Properties of Patented Wire</li>
<li>Hardening and Tempering</li>
<li>Methods of Hardening and Tempering Wire</li>
<li>Protective Metallic Coatings</li>
<li>Kinds of Coatings</li>
<li>Wire Galvanizing</li>
<li>Advantages of Galvanizing</li>
<li>Methods of Galvanizing</li>
<li>Processes Preliminary to Hot Galvanizing</li>
<li>Apparatus for Hot Galvanizing</li>
<li>Wiping the Wire</li>
<li>Cooling the Coated Wire</li>
<li>Coiling the Wire</li>
<li>Some Features of the Operations for Hot Galvanizing</li>
<li>The Structure of the Zinc Coat Electrogalvanizing</li>
<li>Operation of the Process</li>
<li>Factors in Controlling the Thickness of the Coat</li>
<li>Tests for Galvanized Coatings</li>
<li>Wire Tinning</li>
<li>Aluminum Coatings</li>
<li>Typical Finished Wires for Manufacturing Purposes</li>
<li>Common Wires</li>
<li>Bright Basic Wire or Bright Hard Basic Wire Medium Classifications</li>
<li>Annealed Wires</li>
<li>Cold-Heading Wire</li>
<li>Liquor-Finished Fine and Weaving Wire</li>
<li>Welding Wire</li>
<li>Brush Wire</li>
<li>High-Carbon or Special Wires</li>
<li>Rope Wire</li>
<li>Music Wire</li>
<li>Piano Wire</li>
<li>Bronze Finish Tire</li>
<li>Bead Wire</li>
<li>Valve Spring Wire</li>
<li>Tempered Wire</li>
<li>Other Special Wires</li>
<li>Stainless-Steel Wire</li>
<li>Flat Wire</li>
<li>Some Fabricated Steel-Wire Products</li>
<li>Importance of Fabricated Wire Products</li>
<li>Wire Nails</li>
<li>Nail Machines</li>
<li>Feeding</li>
<li>Pinching</li>
<li>Cutting</li>
<li>Expelling</li>
<li>Cleaning and Packing</li>
<li>Wire Fence</li>
<li>Woven-Wire Fence</li>
<li>Barbed-Wire Fence</li>
<li>Concrete Reinforcement</li>
<li>Prestressed Concrete</li>
<li>Bale Ties</li>
<li>Wire Rope</li>
<li>Fabrication of Wire Rope</li>
<li>Stranding</li>
<li>Laying or Closing</li>
<li>Types of Wire Rope</li>
<li>Wire Springs</li>
<li>Spring Terms</li>
<li>Bluing</li>
<li>Tested Spring</li>
<li>Scale Testing</li>
<li>Pitch</li>
<li>Active and Inactive Coils</li>
<li>Initial Tension</li>
<li>Bridge Wire</li>
</ul>
<p><strong>Chapter 6<br />
Manufacturing Technology of Hot-Strip Mill Products</strong></p>
<ul>
<li>Classification of Flat-Rolled Steel Products</li>
<li>Sources and Types of Steel for Sheet, Strip and Tin Plates</li>
<li>Chemical Compositions</li>
<li>Steelmaking Processes Slabs</li>
<li>Rolling Slabs from Ingots</li>
<li>Continuous Casting of Slabs</li>
<li>Bottom-Pressure Pouring of Slabs</li>
<li>Continuous Hot-Strip Mills</li>
<li>Development and Output</li>
<li>General Arrangement of Modern Mills</li>
<li>Control of Finished Product Quality</li>
<li>An 84-inch Continuous Hot-Strip Mill</li>
<li>Slab Conditioning and Storage Areas</li>
<li>Slab-Heating Furnaces</li>
<li>Runout Table</li>
<li>Coilers</li>
<li>Lubricating Systems</li>
<li>Motor Room</li>
<li>Metallurgy of Hot-Rolled Strip</li>
<li>Hand Hot Mills</li>
<li>Development</li>
<li>Process</li>
<li>Oxide Removal (Pickling and Shot Blasting)</li>
<li>Necessity for Removal</li>
<li>Types of Oxide</li>
<li>Principles of Pickling Inhibitors</li>
<li>Hydrochloric-Acid Pickling</li>
<li>Spent Hydrochloric-Acid Disposal</li>
<li>Continuous Pickling Lines</li>
<li>Batch Pickling</li>
<li>Shot Blasting</li>
<li>Finishing of Hot-Strip Mill Products</li>
<li>Temper Rolling (Skin Passing)</li>
<li>Levelling (Flattening)</li>
<li>Slitting</li>
<li>Shearing</li>
<li>Heat Treating</li>
</ul>
<p><strong>Chapter 7<br />
Production Process of Cold-Reduced Flat-Rolled Products</strong></p>
<ul>
<li>Cold-Finished Flat-Rolled Products</li>
<li>Cold-Finished Flat Bars</li>
<li>Cold-Rolled Carbon- Steel Strip Temper</li>
<li>Stainless Cold-rolled Strip Steel Finishes</li>
<li>Cold Rolled Carbon Spring Steel</li>
<li>Temper</li>
<li>Cold-Rolled Carbon-Steel Sheets</li>
<li>Black Plate</li>
<li>Principles of Cold Reduction</li>
<li>Sequence of Operations in Cold Reduction</li>
<li>Roll Arrangement for Cold Reduction</li>
<li>Mill Layouts</li>
<li>Four-High Tandem Mills</li>
<li>Four-High Reversing Mills</li>
<li>Two-High Cold Mills</li>
<li>Disposition of Product</li>
<li>Cold-Reduced Product for Strip</li>
<li>Cold-Reduced Product for Sheets</li>
<li>Cold-Reduced Product for Tin Plate</li>
<li>Cleaning of Cold-Reduced Steel</li>
<li>Heat Treatment of Cold-Reduced Steel</li>
<li>Purposes and Types of Heat Treatment</li>
<li>Effects of Heat</li>
<li>Treatment on</li>
<li>Microstructure</li>
<li>Box Annealing</li>
<li>Normalizing</li>
<li>Continuous Annealing</li>
<li>Heat-Treating Equipment</li>
<li>and Practices</li>
<li>Box Annealing</li>
<li>Equipment</li>
<li>Box Annealing</li>
<li>Practices</li>
<li>Open-Coil Annealing</li>
<li>Normalizing</li>
<li>Continuous Annealing</li>
<li>Temper Rolling</li>
<li>Shearing, Side Trimming, Slitting and Leveling</li>
<li>Shearing to Length</li>
<li>Side Trimming and Slitting</li>
</ul>
<p><strong>Chapter 8<br />
Manufacture of Galvanized Sheet and Strip Uses of Galvanized Sheet and Strip</strong></p>
<ul>
<li>Factors Influencing Effectiveness of Galvanized Coatings</li>
<li>Coating Weight and Gage Requirements</li>
<li>Metallurgical Features of the Hot-Dip Galvanizing Processes</li>
<li>Coating Metal Used In Hot-Dip Galvanizing</li>
<li>Steels Used for Hot-Dip Galvanizing</li>
<li>Mill Treatment of Steel Prior to Hot-Dip Galvanizing</li>
<li>Special Finishes</li>
<li>Hot-Dip Sheet Galvanizing</li>
<li>Pickling for Sheet Galvanizing</li>
<li>Equipment for Sheet Galvanizing</li>
<li>General Arrangement and Operation of a Sheet-Galvanizing Line</li>
<li>Continuous (Strip) Hot-Dip Galvanizing</li>
<li>General Arrangement and Operation of Continuous</li>
<li>Galvanizing Lines</li>
<li>Testing Galvanized Sheets</li>
</ul>
<p><strong>Chapter 9<br />
Manufacture of Heavy Press Forgings</strong></p>
<ul>
<li>Heating for Forging</li>
<li>Rate of Heating</li>
<li>Forging Temperature</li>
<li>Handling Equipment</li>
<li>Open Dies for Forging</li>
<li>Principal Forging Operations</li>
<li>Examples of Forging Procedure</li>
<li>Cooling after Forging</li>
<li>Heat Treatment of Forgings</li>
<li>Car-Bottom Furnaces</li>
<li>Vertical Furnaces</li>
<li>Quenching Facilities</li>
</ul>
<p><strong>Chapter 10<br />
Castings &#8211; Steel and Iron</strong></p>
<ul>
<li>Steel Castings</li>
<li>Casting Compared with Other Forms of Shaping Steel</li>
<li>Composition and Mechanical Properties of Cast Steels</li>
<li>Making Steel for Castings</li>
<li>Molding for Casting Steel</li>
<li>Patterns and Molds for Steel Castings</li>
<li>Making the Mold</li>
<li>Machine Molding</li>
<li>Cored Molds for Hollow Castings</li>
<li>Gates, Risers and Vents</li>
<li>Steel Casting &amp; Finishing Operations Casting</li>
<li>Shaking Out, Cleaning, Finishing and Testing</li>
<li>Heat Treatment of Steel Castings</li>
<li>Annealing</li>
<li>Normalizing</li>
<li>Quenching and Tempering</li>
<li>Flame Hardening</li>
<li>Heat- And Corrosion- Resistant Steel Castings</li>
<li>Highly Alloyed Steels</li>
<li>Typical Applications</li>
<li>Melting</li>
<li>Casting</li>
<li>Molding</li>
<li>Finishing Operations</li>
<li>Methods of Sampling and Testing</li>
<li>Precision Steel Castings</li>
<li>Iron Castings</li>
<li>Pig Iron for Castings</li>
<li>Iron Composition vs.Properties</li>
<li>Forms of Carbon in Pig Iron</li>
<li>Influence of Silicon</li>
<li>Effects of Manganese</li>
<li>Influence of Sulphur</li>
<li>Influence of Phosphorus</li>
<li>Effects of Chromium</li>
<li>Influence of Nickel</li>
<li>Influence of Copper</li>
<li>Effects of Molybdenum</li>
<li>Effects of Titanium and Aluminum</li>
<li>Influence of Vanadium</li>
<li>Effects of Special Additives</li>
<li>Iron-Foundry Melting</li>
<li>Methods</li>
<li>The Cupola</li>
<li>The Electric Furnace</li>
<li>Kinds and Uses of Iron Castings</li>
<li>Alloyed Castings</li>
<li>Iron-Foundry Molding and Casting Practice</li>
<li>Testing of Cast Iron</li>
</ul>
<p><strong>Chapter 11<br />
Project Profiles</strong></p>
<ul>
<li>M.S. Billet casting with induction furnace from steel scrap &amp; sponge iron</li>
<li>Mini steel plant (3t-induction furnace)</li>
<li>Steel rolling mill (by induction furnace) from steel scrap and sponge iron</li>
<li>Rolling mill (by induction furnace) &amp; manufacturing of bars, angles, squares, tubes and others</li>
<li>Hot rolling mill of narrow steel strip plant economics</li>
<li>Rolling mill &amp; manufacturing of bars, angles, squares, tubes &amp; others</li>
<li>Cold rolling mill</li>
<li>Steel rolling mill (reinforcement bars)</li>
<li>Re-rolling mill (reinforcement and structural members)</li>
<li>Sodium aluminate</li>
<li>Super enamelled copper wire (from copper scrap)</li>
<li>Super enamelled copper wire (from copper cathode rod)</li>
<li>Copper rod wire drawing and pvc wire &amp; cables</li>
<li>G.I. wire</li>
<li>Stainless steel cold rolling mill from coil</li>
<li>Cold roll forming of z-section and other section</li>
<li>Aluminium hot and cold rolling mill</li>
<li>Forging plant steel casting</li>
</ul>
<p>An extract from the book</p>
<p><b>TYPES OF MILLS</b></p>
<p><b>General Classification</b></p>
<p>The three principal types of rolling mills used for the rolling of steel are referred to as two-high, three-high, and four-high mills, shown schematically in Fig. 1.1. As the names indicate, the classification is based on the manner of arranging the rolls in the housings, a two-high stand consisting of two rolls, one above the other; a three-high mill has three rolls, and a four-high mill has hour rolls, arranged similarly. When rolling is in one direction only on two-high mills, and the piece is returned over the top of the rolls to be rerolled in the next pass, the mill is known as a pullover or drag-over mill. This type of mill formerly was used mainly for production of light sheets and tin plate; it still is used by merchant mills for rolling of tool and high-alloy steels. On two high reversing mills, the direction of rotation of the rolls can be reversed, and rolling is alternately in opposite directions, with work done on the piece while traveling in each direction. The long mill tables of reversing mills make it possible to handle heavy pieces in long lengths that would be impractical to roll on ordinary twohigh mills, or to handle on the lift tables of a three-high mill (see below). The reversing two-high type of mill occupies an important position in the industry and, with the use of manipulators, it is possible to produce on it slabs, blooms, plates, billets, rounds, and partially-formed sections suitable for later rolling into finished shapes on other mills. In all three-high mills, each roll revolves continuously in one direction; the top and bottom rolls in the same direction and the middle roll in the opposite direction. The piece is lifted from the bottom pass to the return top pass by mechanicallyoperated lift tables, or by inclined approach tables. Usually the large top and bottom rolls are drive, while the smaller middle roll is friction driven.</p>
<p>This latter roll is about two-thirds the size of the other two rolls, in order to permit removal through the housing windows. Four-high mills are used for rolling flat material, like sheets and plates, and represent a special type of two-high mill for both hot and cold rolling, in which large backing-up rolls are employed to reinforce the smaller working rolls: either the working or back-up rolls may be driven. Four-high mills resist the tendency of long working rolls to deflect, and permit the use of smalldiameter working rolls for producing wide plates, and hot-or coldrolled strip and sheets of uniform gage. These mills often consist of a number of stands spaced closely together in one continuous line and are known then as tandem mills; the product passes in a straight line from one stand to the next. In cluster mills, each of the two small working rolls is supported by two (or more) backing-up rolls. This latter type of mill is used for the rolling of thin sheets.</p>
<p><b>Arrangement of Mills</b></p>
<p>A single stand mill, which may be either two-, three- or fourhigh, and either reversing or non-reversing, represents the most common arrangement for rolling a wide range of products, including blooms, slabs, plates, sheets, and various sections. Guide, loop, and cross-country mills are made up of several two- or three-high stands, or a combination of both, and are used for rolling of merchant-bar sections. Guide mills are small hand mills consisting of several stands of rolls in a train. Mills in train have the rolls of separate stands in the same line, the rolls of one mill being driven from the end of the rolls of an adjacent stand. Guide mills take their name from the metal guides which support the piece in the correct position during its passage through the grooves of the various passes. For example, it is possible to roll from an oval section to a round in one pass, provided the oval is supported by metal guides. In many guide mills it is the practice of the catchers, in order to save time, to start the piece through each of the passes before it is through the preceding one, thus forming a loop, resulting in this arrangement being called a looping mill.</p>
<p>There originated in Belgium the plan for setting up an independent roughing stand preceding the finishing train of the looping mill. This arrangement became known as a Belgian mill. On looping mills, it was found that the loop could be made mechanically by a tube or house-shoe type trough, called a repeater, and thus dispense with the hand catchers. Prior to the looping mill, the piece was rolled throughout the entire length in one pass before it could be entered in the next pass. The looping arrangement eliminates the temperature difficulties encountered with long lengths. The shapes produced range from simple rounds and squares to intricate special country mill is so named because of the scattered location of its roll stands, and was developed for rolling sections that, due to size or shape, are not adaptable to loop rolling. These mills involve the continuous idea, but the stands are placed so far apart that the piece must leave one set of rolls before entering the next.</p>
<p>To save space and to avoid complicating the drives, the stands usually are arranged in two or more parallel lines, and the direction of travel of the piece is reversed during the rolling by employing transfer and skid tables. This arrangement results in a high production mill of great flexibility, which may be used for a wide range of products, including structural shapes, rails, and splice bars. A continuous mill consists of several stands of rolls arranged in a straight line (in tandem), with each succeeding stand operating with roll surface speed greater than its predecessor. Reduction takes place in several passes at the same time until the piece emerges as a finished shape for the last roll stand. This type of mill is in very common usage for rolling strip, sheet, billets, bars, rods, etc. A semi-continuous mill comprises also a reversing roughing stand for reducing the piece prior to entering the continuous mill for reduction to the finished shape. This arrangement gives moderately high production with lower first cost than a continuous mill. Combination mills are those in which the roughing or major part of the reduction is performed in a continuous mill, and the shaping in a guide or looping mill.</p>
<p><b>Speciality Mills</b></p>
<p>The universal mill is a combination of horizontal and vertical rolls, usually mounted in the same roll stand (Fig 1.1). The mill is made up of two-high (and occasionally three-high) horizontal rolls, with vertical roll sets on either or both sides of the horizontal stand. The vertical rolls also usually are driven. The direction of the piece is reversed after each pass in the mill. The universal mill is used to a limited extent also for plate product that requires rolled edges (see Fig 1.2). A special type of universal mill, known as the Gray mill is well adapted for rolling beams and H-sections of great width and depth without taper on flanges (see Fig 1.3). The horizontal rolls work on the web and flange thickness, while the idler vertical rolls in the same stand work simultaneously on flange thickness only. The roughing stands and intermediate stands are of the reversing type, and each has a separate stand of driven horizontal edging rolls which work on the flange height only. The finishing stand consists of the horizontal and vertical rolls in which the beams are given one pass only.</p>
<p style="text-align: justify;">The Wenstrom mill is a similar modification of a universal plate mill, designed principally for rolling flats. Instead of acting upon the top and bottom and the two sides at different times, it does this simultaneously. The top roll can be adjusted vertically, and the bottom roll transversely, whereby peices of different thickness and width can be produced with the same set of rolls. The Sack universal mill, designed principally for rolling cruciform sections, has horizontal and vertical rolls which act upon the piece simultaneously, the general arrangement being much like that of the Wenstrom mill. A somewhat similar principle is employed in the Schoen mill for rolling of railroad car wheels, whereby the tread and flange are rolled simultaneously with the web, while rotating the forged wheel blank in a vertical position. This is accomplished by a pair of driven web rolls, and an idler tread roll in simultaneous contact with the wheel blank. A pair of idler rim rolls controls the width of rim.</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/modern-technology-rolling-mill-billets-steel-wire-galvanized-sheet-forging-castings/">modern technology of rolling mill, billets, steel wire, galvanized sheet, forging and castings</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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			</item>
		<item>
		<title>MANUFACTURING TECHNOLOGY OF NON FERROUS METAL PRODUCTS</title>
		<link>https://projectreports.eiriindia.org/product/manufacturing-technology-non-ferrous-metal-products/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 19 Feb 2014 11:56:55 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=1259</guid>

					<description><![CDATA[<p style="text-align: justify;">The book Manufacturing Technology of Non-Ferrous Metal Products covers Introduction to Non-Ferrous Metals, Manufacturing of Aluminium Products, Manufacturing Aluminium Pipe, Manufacturing of Aluminium Foil, Manufacturing of Aluminium Sheet, Manufacturing of Aluminium Kettle, Manufacturing Process of Aluminium Products, Heat Treatment of Aluminium Products, forming and Bending Processes of Aluminium Products, Bending Process of aluminium, Technology Innovation in aluminium Products, Manufacturing of Copper Products, Manufacturing of Copper Foil, Material Characterization Techniques, Forging Process of Copper, Joining Process of Copper, Manufacturing of Lead Products, Manufacturing of Lead Acid Battery, Types of Lead Acid Batteries, Production of Lead Oxide and Pigment, Manufacturing of Lead Crystal</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/manufacturing-technology-non-ferrous-metal-products/">MANUFACTURING TECHNOLOGY OF NON FERROUS METAL PRODUCTS</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
]]></description>
										<content:encoded><![CDATA[<p>Contents-cum-Index</p>
<p><strong>Introduction to Non-ferrous Metals</strong></p>
<p>Manufacturing of Aluminium Products</p>
<p>&nbsp;</p>
<ul>
<li>Properties of aluminium</li>
<li>Uses and engineering applications of aluminium</li>
<li>Manufacturing of aluminium can</li>
<li>Background of Can</li>
<li>Aluminium and aluminium products</li>
<li>Raw materials</li>
<li>Composition</li>
<li>Capacity</li>
<li>Dimensions</li>
<li>Technical flow chart</li>
<li>Machine udge and its purpose</li>
<li>Horizontal impact extrusion press</li>
<li>Trimming machine</li>
<li>Cleaning machine</li>
<li>Internal coating machine</li>
<li>Accumulator</li>
<li>Lacquer curing oven</li>
<li>Base-coating machine</li>
<li>Six-colour printing machine</li>
<li>Fuel gas oven/platform</li>
<li>Can capping machine</li>
<li>Can latexing machine</li>
<li>The manufacturing process</li>
<li>Cutting the blank</li>
<li>Redrawing the cup</li>
<li>Trimming the ears</li>
<li>Cleaning and decorating</li>
<li>The lid</li>
<li>Filling and seaming</li>
<li>Bye-products/waste</li>
<li>The future</li>
</ul>
<p><strong>Manufacturing Aluminium Pipe Standards of Aluminium</strong></p>
<ul>
<li>Pipes</li>
<li>Abstract</li>
<li>Scope</li>
<li>ASTM standards</li>
<li>Specifications</li>
<li>6061- T 6 schedule 40</li>
<li>Manufacturing process</li>
<li>Pipe is manufactured by extrusion process</li>
<li>Extrusion products</li>
<li>Hot extrusion</li>
<li>Cold extrusion</li>
<li>Advantages</li>
<li>Cold extrusion and cold forming</li>
<li>Tube extrusion</li>
<li>Extrusion equipment (Presses, dies and tools)</li>
<li>Horizontal extrusion presses (15-50 MN capacity or up to 140 MN)</li>
<li>Disadvantages</li>
<li>Vertical extrusion presses (3-20 mn capacity)</li>
<li>Requirements</li>
<li>Die design</li>
<li>Die materials</li>
<li>Flat-faced dies</li>
<li>Dies with conical entrance angle</li>
<li>Remarks</li>
<li>Typical arrangement of extrusion tooling</li>
<li>Extrusion defects</li>
</ul>
<p><strong>Manufacturing of Aluminium Foil</strong></p>
<ul>
<li>Introduction</li>
<li>Characteristics and properties</li>
<li>Chemical characteristics of aluminium foil</li>
<li>Mechanical properties of aluminium foil</li>
<li>Chemical formula of aluminium foil</li>
<li>Types of aluminium foil</li>
<li>Federal specification</li>
<li>Requirements</li>
<li>Chemical composition</li>
<li>Surface finish</li>
<li>Thickness and covering area</li>
<li>Dimension tolerances</li>
<li>Tolerances</li>
<li>Width and length</li>
<li>Raw materials</li>
<li>Property</li>
<li>Uses</li>
<li>Packaging</li>
<li>Insulation</li>
<li>EMF shieling</li>
<li>Cooking</li>
<li>Art and decoration</li>
<li>Geochemists sampling</li>
<li>Polishing</li>
<li>Quality control</li>
<li>The future</li>
<li>The manufacturing process</li>
<li>Refining – Bayer process</li>
<li>Smelting</li>
<li>Rolling foil</li>
<li>Finishing processes</li>
</ul>
<p><strong><br />
Manufacturing of Aluminium Sheet</strong></p>
<ul>
<li>Aluminium alloys grouped by major alloying elements</li>
<li>Descriptions of Individual Aluminium Alloys</li>
<li>1100 Aluminium Sheet</li>
<li>Typical Physical Properties of All Aluminium Alloys</li>
<li>2014 Aluminium Sheet</li>
<li>2024 Aluminium Sheet</li>
<li>2124 Aluminium Sheet</li>
<li>2219 Aluminium Sheet</li>
<li>Hardening</li>
<li>Applications</li>
<li>3003 Aluminium Sheet</li>
<li>3004 Aluminium Sheet</li>
<li>3005 Aluminium Sheet</li>
<li>3104 Aluminium Sheet</li>
<li>3105 Aluminium Sheet</li>
<li>5005 Aluminium Sheet</li>
<li>5052 Aluminium Sheet</li>
<li>5056 Aluminium Sheet</li>
<li>5083 Aluminium Sheet</li>
<li>5086 Aluminium Sheet</li>
<li>5182 Aluminium Sheet</li>
<li>5454 Aluminium Sheet</li>
<li>5456 Aluminium Sheet</li>
<li>6013 Aluminium Sheet</li>
<li>6061 Aluminium Sheet</li>
<li>7050 Aluminium Sheet</li>
<li>7075 Aluminium Sheet</li>
<li>7150 Aluminium Sheet</li>
<li>7475 Aluminium Sheet</li>
<li>Grades of Aluminium sheets</li>
<li>Standards of Aluminium Sheet</li>
<li>Tolerances &amp; Standards</li>
<li>Sheet Tolerances EN 485-4</li>
<li>Dimensional tolerances</li>
<li>Width</li>
<li>Length</li>
<li>Shape tolerances</li>
<li>Manufacturing Process</li>
<li>The Production Process</li>
<li>Plate, sheet and strip typical physical properties</li>
<li>Aluminium Plate, Sheet and Strip: Typical Properties Products and Applications</li>
</ul>
<p><strong>Manufacturing of Aluminium Kettle</strong></p>
<ul>
<li>Purposes</li>
<li>Design</li>
<li>Raw material</li>
<li>Manufacturing process</li>
<li>Quality Control</li>
</ul>
<p><strong>Manufacturing Process of Aluminium Products</strong></p>
<ul>
<li>Casting Process of Aluminium</li>
<li>Melting Details</li>
<li>Crucibles Electric furnaces</li>
<li>Casting processes</li>
<li>Sand Casting</li>
<li>Casting in metal moulds</li>
<li>Centrifugal casting</li>
<li>Shell moulding</li>
<li>Investment casting</li>
<li>Continuous casting</li>
<li>Casting Defects</li>
<li>Gas porosity</li>
<li>Melt Temperature</li>
<li>Other</li>
<li>Forging of Aluminium Alloys &#8211; Process and Operation</li>
<li>Forging Process</li>
<li>Forging Operation</li>
<li>Stock Preparation and Heating</li>
<li>Die Heating</li>
<li>Use of Die</li>
<li>Lubricants</li>
<li>Deduction of Residual Stresses</li>
<li>Machining Process of Aluminium Products</li>
<li>Electron Beam Welding</li>
<li>Process of Aluminium Products</li>
<li>Electron Beam Welding</li>
<li>Operating Principle of an Electron Beam</li>
<li>Welding Equipment</li>
<li>Process Steps of the Deep Welding Process</li>
<li>Electron Beam Welding of Butt Joints</li>
<li>Terms Used for Describing a Weld</li>
<li>Electron Beam Weldability of Aluminium Alloys</li>
<li>Electron Beam Welds in Aluminium Alloys</li>
<li>Rate of Vaporisation during Electron Beam Welding of 7050 (AlZnMgCu)</li>
<li>Tensile Strength of Electron Beam Welded 7050 (AlZnMgCu)</li>
<li>Laser Welding of Aluminium Products</li>
<li>Laser Welding</li>
<li>Principle of a Solid-State Laser</li>
<li>Comparison between Electron Beam</li>
<li>Welding and Laser Welding</li>
<li>Laser Cutting of Aluminium Products</li>
<li>Laser Cutting</li>
<li>Principle of Laser Gas-Jet Cutting</li>
<li>Laser Cutting Diagram for Aluminium</li>
<li>Laser Beam Cutting of Aluminium</li>
<li>Comparison of Laser Beam Cutting and Plasma Cutting</li>
</ul>
<p><strong><br />
Heat Treatment of Aluminium Products<br />
</strong></p>
<ul>
<li>Annealing</li>
<li>Solution Heat Treatment</li>
<li>Quenching</li>
<li>Age Hardening</li>
</ul>
<p><strong>Forming and Bending Processes of Aluminium Products<br />
</strong><br />
<strong>Gauge</strong></p>
<p>Rate of change in thickness vs gauge number</p>
<p><strong>Bending Process of Aluminium<br />
</strong></p>
<ul>
<li>Bending</li>
<li>Types</li>
<li>Air bending</li>
<li>Bottoming</li>
<li>Coining</li>
<li>Three-point bending</li>
<li>Folding</li>
<li>Wiping</li>
<li>Rotary bending</li>
<li>Roll bending</li>
<li>Elastomer bending</li>
<li>Joggling</li>
<li>Calculations</li>
<li>Bend allowance</li>
<li>Bend Deduction</li>
<li>K-factor</li>
<li>Curling</li>
<li>Operation</li>
<li>Decambering</li>
<li>Processes</li>
<li>Laser cutting Process of Aluminium</li>
<li>Types</li>
<li>Laser microjet</li>
<li>Process</li>
<li>Vaporization cutting</li>
<li>Melt and blow</li>
<li>Thermal stress cracking</li>
<li>Stealth dicing of silicon wafers</li>
<li>Reactive cutting</li>
<li>Tolerances and surface finish</li>
<li>Machine configurations</li>
<li>Pulsing</li>
<li>Advantages and disadvantages</li>
</ul>
<p><strong><br />
Perforation of Aluminium Products Processes</strong></p>
<ul>
<li>Die and punch</li>
<li>Laser perforation</li>
<li>Applications</li>
<li>Stamping Process of Aluminium</li>
<li>Stamping</li>
<li>Operations</li>
<li>Simulation</li>
<li>Roll forming process of Aluminium</li>
<li>Overview</li>
<li>Process</li>
<li>Geometric Possibilities</li>
<li>Production Rates</li>
<li>Other Considerations</li>
<li>Ironing Process of Aluminium</li>
<li>Punching Process of Aluminium</li>
<li>Process</li>
<li>Punching Characteristics</li>
<li>Geometry</li>
<li>Equipment</li>
<li>Forces</li>
<li>Spinning Process of Aluminium</li>
<li>Process</li>
<li>Tools</li>
<li>Advantages &amp; Disadvantages</li>
<li>Water jet cutting of Aluminium Operation</li>
<li>Benefits</li>
<li>Versatility</li>
<li>Availability</li>
<li>Process</li>
<li>Edge Quality</li>
<li>Multi-axis cutting</li>
</ul>
<p><strong>Technology Innovation in Aluminium Products</strong></p>
<p>&nbsp;</p>
<ul>
<li>Introduction</li>
<li>Direct-chill Casting</li>
<li>Heat-treatable Alloys</li>
<li>Two-piece Beverage Can</li>
<li>Aluminium Extrusion</li>
<li>Continuous Molten Metal Treatment</li>
<li>Alloy 6061</li>
<li>Electrical Conductors</li>
<li>Continuous Casting</li>
<li>Shape-casting Alloy A356</li>
<li>Extrusion Press Quenching</li>
</ul>
<p><strong>Manufacturing of Copper Products</strong></p>
<ul>
<li>Mechanical properties</li>
<li>Refining of copper</li>
<li>Types of copper</li>
<li>Uses of copper</li>
<li>ASTM specification codes for copper and copper alloys</li>
<li>Indian standards course for practice</li>
<li>Manufacturing of copper wire</li>
<li>ASTM standards of copper wire</li>
<li>Copper wire specification</li>
<li>Copper wire manufacturing process</li>
<li>Drawing process</li>
<li>Annealing process</li>
<li>Bunching/stranding process</li>
<li>Tinning process &#8211; There are two process of tinning</li>
<li>Braiding</li>
<li>Process for tinsel wire</li>
<li>Process of glass wire</li>
<li>Manufacturing of copper pipe</li>
<li>ASTM Standards</li>
<li>Sizes &#8211; Copper pipe</li>
<li>Temper</li>
<li>DWV (drain waste vent)</li>
<li>ACR (air conditioning and refrigeration)</li>
<li>Distribution</li>
<li>Raw material</li>
<li>Melting</li>
<li>Casting</li>
<li>Piercing</li>
<li>Extrusion</li>
<li>Drawing</li>
<li>Annealing</li>
<li>Final steps</li>
<li>Manufacturing of copper strips</li>
<li>Types of beryllium copper strips</li>
<li>ASTM: Standards</li>
<li>Manufacturing process copper strips</li>
<li>Feedstock pay-offs and straighteners</li>
<li>Feed stock cleaning system</li>
<li>Confirm machine</li>
<li>Control system</li>
<li>Product cooling system</li>
<li>Quality control and measuring equipment</li>
<li>Product handling system</li>
<li>Tooling</li>
<li>Manufacturing operations</li>
<li>Product quality</li>
<li>Economics</li>
<li>Conclusion</li>
<li></li>
<li>Manufacturing of Copper Foil</li>
<li></li>
<li>Geometry</li>
<li>Foil Patterning</li>
<li>Heat Treatment</li>
<li>Samples Fabricated and Tested</li>
</ul>
<p><strong>Material Characterization Techniques</strong></p>
<ul>
<li>Determination of Sample Geometry</li>
<li>Width</li>
<li>Thickness</li>
<li>Roughness</li>
<li>Metallography</li>
<li>X-Ray Diffraction</li>
<li>Physical Principle</li>
<li>Texture Goniometry</li>
<li>Scanning Electron Microscope</li>
<li>Physical Principle</li>
<li>Contrast Methods</li>
<li>Electron Backscatter Diffraction (EBSD)</li>
<li>Measurement Setup Used</li>
<li>Tensile Testing</li>
<li>Setup</li>
<li>Hardware</li>
<li>Software</li>
<li>Accuracy of LSM Algorithm</li>
<li>Post Processing</li>
<li>Material Model Optimization</li>
</ul>
<p><strong>Forging Process of Copper</strong></p>
<ul>
<li>Forging Alloys</li>
<li>Forging Temperature</li>
<li>Forging Process and Equipment</li>
<li>Operational Considerations</li>
<li>Copper and Brass Forgings</li>
<li>Introduction</li>
<li>Unique Combinations of Properties</li>
<li>Advantages of Copper and Brass Forgings</li>
<li>High Strength</li>
<li>Leak Resistance</li>
<li>Close Tolerances</li>
<li>Low Overall Cost</li>
<li>The Hot Press Forging Process</li>
<li>Rod Cutting</li>
<li>Slug Heating</li>
<li>Forging</li>
<li>Trimming and Clipping</li>
<li>Dip Finishing</li>
<li>Packaging</li>
<li>Dies and Die Design</li>
<li>Die Design</li>
<li>Draft</li>
<li>Webs</li>
<li>Construction</li>
<li>Multiple Parts</li>
<li>Design Changes</li>
<li>Trimming or Clipping Dies</li>
<li>Die Purchases</li>
<li>Parting Line</li>
<li>Holes and Cavities</li>
<li>Forgings and Other</li>
<li>Products – A Comparison</li>
<li>Castings</li>
<li>Screw Machine Products</li>
<li>Stampings</li>
<li>Machining</li>
<li>Definition of a Forging</li>
<li>TOLERANCES</li>
<li>Inquiry or Purchase Order Information</li>
<li>Heat Treating of Copper and Copper Alloys</li>
<li>Homogenizing</li>
<li>Annealing</li>
<li>Stress Relieving</li>
<li>Precipitation Hardening</li>
<li>Extrusion Prosess of Copper</li>
<li>Copper Profiles</li>
<li>Copper Profile Shapes</li>
<li>Advantages of Copper Extrusions</li>
<li>Design of extruded copper profiles</li>
<li>Do&#8217;s and Don&#8217;ts in Copper extruded Profile Design</li>
<li>Manufacturing Copper Extruded Profiles</li>
<li>Application of the Copper extruded profiles</li>
</ul>
<p><strong>Joining Process of Copper</strong></p>
<ul>
<li>Introduction</li>
<li>Selection of a Joining Process</li>
<li>Bolting and Riveting</li>
<li>Adhesive Bonding</li>
<li>Soldering</li>
<li>Recommended Solder Fluxes for Engineering Materials</li>
<li>Soft Solder Filler Metals</li>
<li>Resistance Soldering</li>
<li>Brazing and Silver Soldering</li>
<li>The Brazing Process</li>
<li>Basic Principles</li>
<li>Brazing Filler Metals</li>
<li>Copper-Silver Alloys</li>
<li>Copper-phosphorus silver alloys</li>
<li>Joint Design</li>
<li>Physical and Metallurgical Factors</li>
<li>The Coppers</li>
<li>Alloys Heavily Cold-worked, or with High Softening Temperatures</li>
<li>Precipitation-hardening Copper Alloys</li>
<li>Alloys Containing Aluminium</li>
<li>Alloys Containing Lead</li>
<li>Alloys Containing Tellurium or Sulphur</li>
<li>The Bronze Welding Process</li>
<li>Basic Principles</li>
<li>Filler Metals</li>
<li>Joint Design</li>
<li>Welding</li>
<li>Gas-shielded Arc Welding</li>
<li>Shielding Gases</li>
<li>TIG Welding</li>
<li>MIG Welding</li>
<li>Joint Design and Preparation</li>
<li>Basic Steps in Joining Process</li>
<li>Pre-weld and Inter-run Cleaning</li>
<li>Jigging and Backing Techniques</li>
<li>Preheating and Inter-run Temperatures</li>
<li>Process Applications</li>
<li>Work-hardening and Precipitation-hardening Copper-rich Alloys</li>
<li>Electron Beam Welding</li>
<li>Joint Design and Preparation</li>
<li>Laser Welding</li>
<li>Friction Welding</li>
<li>Ultrasonic Welding</li>
<li>Ball Bonding</li>
<li>Wedge Bonding</li>
<li>Joining and Repairing Castings</li>
<li>Copper-based Casting Alloys</li>
<li>General Principles, Joint Design and Preparation</li>
<li>Selection of Welding Process and Welding Techniques</li>
<li>Metallurgical Factors in Welding Castings</li>
<li>Selection of Filler Metals</li>
<li>Metallurgical Behaviour of Cast Alloys</li>
<li>Joining Dissimilar Metals and Weld Surfacing</li>
<li>Availability of Pre-clad Material</li>
<li>Weld Surfacing</li>
<li>Metallurgical Factors in Joining Dissimilar Metals</li>
<li>Copper to Steel</li>
<li>Copper Nickel to Steel</li>
<li>Aluminium Bronzes to Steel</li>
<li>Copper to Aluminium</li>
<li>Copper and Alloys to Other Copper Alloys</li>
</ul>
<p><strong><br />
Manufacturing of Lead Products</strong></p>
<ul>
<li>Properties of lead</li>
<li>Corroding lead</li>
<li>Chemical lead</li>
<li>Tellurium lead</li>
<li>Antimonial lead</li>
<li>Uses of lead</li>
<li>Indian standard specification</li>
<li>List of lead products</li>
<li>Lead Products</li>
<li>Lead-Acid Batteries</li>
<li>Lead Sheet</li>
<li>Lead Pipe</li>
<li>Cable Sheathing</li>
<li>Lead Cames</li>
<li>Lead-Clad Steel</li>
<li>Lead Powder</li>
<li>Lead Alloys</li>
<li>Lead for Radiation Shielding</li>
<li>Lead in Glass</li>
<li>Lead for Ceramics</li>
<li>Lead Pigments</li>
<li>Lead Wool</li>
</ul>
<p><strong>Manufacturing of Lead Acid Battery</strong></p>
<ul>
<li>Specification for Battery Secondary, Lead Acid,</li>
<li>Low Maintenance For Mt Purposes</li>
<li>Foreword</li>
<li>Scope</li>
<li>Related Specifications</li>
<li>Illustration and Drawings</li>
<li>Terminology, Definitions &amp; Symbols</li>
<li>Battery</li>
<li>Initial Charge</li>
<li>Normal Charge</li>
<li>Charging of battery</li>
<li>Accelerated charge</li>
<li>Over Charge</li>
<li>Retention of Charge</li>
<li>Rated Capacity</li>
<li>Nominal Voltage</li>
<li>Shelf Life/Storage Life</li>
<li>High Rate Discharge Test</li>
<li>Specific Gravity</li>
<li>Water Consumption Test</li>
<li>Materials, Construction and Workmanship</li>
<li>Separator</li>
<li>Sealing Material</li>
<li>Terminals</li>
<li>Electrolyte</li>
<li>Construction</li>
<li>Dimensions and Tolerance</li>
<li>Workmanship and Finish</li>
<li>Packing The Individual Battery</li>
<li>Pre-inspection of Supplies By Supplier</li>
<li>Quality Assurance</li>
<li>Sampling Procedure</li>
<li>Product Specification</li>
<li>Details of tests to be carried out by the Supplier</li>
<li>Classification Of Tests</li>
<li>Acceptance Tests Details</li>
<li>Equipment</li>
<li>Voltmeter and Ammeter</li>
<li>Thermometer</li>
<li>Hydrometer</li>
<li>Instrument for Measuring Length</li>
<li>Methods of Test and Requirements</li>
<li>Visual Examination</li>
<li>Physical Examination</li>
<li>Dimensions and Layout</li>
<li>Marking</li>
<li>Capacity (5-h rate)</li>
<li>Temperature correction</li>
<li>Requirement</li>
<li>High Rate Discharge</li>
<li>Requirement</li>
<li>High Rate Discharge at Normal Temp</li>
<li>Robustness of Handles</li>
<li>Requirements for High Rate Discharge At</li>
<li>Normal Temperature</li>
<li>Charge Acceptance</li>
<li>Requirement</li>
<li>Air Pressure test</li>
<li>Life Cycle Test</li>
<li>Vibration Resistance</li>
<li>Requirement</li>
<li>Overcharge Endurance</li>
<li>Requirement</li>
<li>Strength of Terminal</li>
<li>Requirement</li>
<li>Robustness to Fastening</li>
<li>Requirement</li>
<li>Test for Dry-Charged Battery</li>
<li>Requirement</li>
<li>High Voltage Test</li>
<li>Retention of charge Test</li>
<li>Electrolyte retention Test</li>
<li>Special Tests</li>
<li>Reserve Capacity</li>
<li>Cold Cranking Performance</li>
<li>Water Consumption Test</li>
<li>Environmental Tests (For Special Battery i,e. 12 V 20 AH)</li>
<li>Contamination Test</li>
<li>Dust Test</li>
<li>Dry Heat Test</li>
<li>Impact Strength</li>
<li>Damp Heat Test</li>
<li>Corrosion (Salt) Test</li>
<li>Reliability of soldered areas</li>
<li>Dry Storage Test (1 Year)</li>
<li>Drop Test</li>
<li>Tropical exposure Test</li>
<li>Transit And Storage</li>
<li>Receipt Inspection by the Consignee</li>
<li>Stocking and Issue</li>
<li>Warranty</li>
<li>Control Sample</li>
</ul>
<p><strong>Types of Lead-Acid Batteries</strong></p>
<ul>
<li>Engine Starting</li>
<li>Motive Power</li>
<li>Standby Power</li>
<li>Valve-Regulated Lead-Acid Batteries</li>
<li>Principle of Operation</li>
<li>Absorbed Electrolyte</li>
<li>Gelled Electrolyte</li>
<li>Construction of Valve- Regulated Batteries</li>
<li>The Advantages of Valve- Regulated Batteries</li>
<li>The Limitations of Valve- Regulated Batteries</li>
<li>Applications of Valve- Regulated Batteries</li>
<li>Design</li>
<li>Raw Materials</li>
<li>The Manufacturing</li>
<li>Process</li>
<li>Quality Control</li>
<li>Environmental Issues</li>
<li>The Future</li>
<li>Process of Lead Dioxide</li>
<li>Properties</li>
<li>Chemical</li>
<li>Electrochemical</li>
<li>Production</li>
<li>Applications</li>
<li>Safety</li>
</ul>
<p><strong>Production of Lead Oxide and Pigment</strong></p>
<ul>
<li>General</li>
<li>Process Description</li>
<li>Emission and Control</li>
</ul>
<p><strong>Manufacturing of Lead Crystal</strong></p>
<ul>
<li>Background</li>
<li>History</li>
<li>Raw Materials</li>
<li>Design</li>
<li>The Manufacturing Process</li>
<li>Quality Control</li>
<li>Byproducts/Waste</li>
</ul>
<p>&nbsp;</p>
<p style="text-align: justify;">The book Manufacturing Technology of Non-Ferrous Metal Products covers Introduction to Non-Ferrous Metals, Manufacturing of Aluminium Products, Manufacturing Aluminium Pipe, Manufacturing of Aluminium Foil, Manufacturing of Aluminium Sheet, Manufacturing of Aluminium Kettle, Manufacturing Process of Aluminium Products, Heat Treatment of Aluminium Products, forming and Bending Processes of Aluminium Products, Bending Process of aluminium, Technology Innovation in aluminium Products, Manufacturing of Copper Products, Manufacturing of Copper Foil, Material Characterization Techniques, Forging Process of Copper, Joining Process of Copper, Manufacturing of Lead Products, Manufacturing of Lead Acid Battery, Types of Lead Acid Batteries, Production of Lead Oxide and Pigment, Manufacturing of Lead Crystal</p>
<p>The post <a href="https://projectreports.eiriindia.org/product/manufacturing-technology-non-ferrous-metal-products/">MANUFACTURING TECHNOLOGY OF NON FERROUS METAL PRODUCTS</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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		<title>Aluminium Alloy Ingots</title>
		<link>https://projectreports.eiriindia.org/product/aluminium-alloy-ingots/</link>
		
		<dc:creator><![CDATA[EIRI Team]]></dc:creator>
		<pubDate>Wed, 11 Dec 2013 13:18:35 +0000</pubDate>
				<guid isPermaLink="false">http://projectreports.eiriindia.org/?post_type=product&#038;p=353</guid>

					<description><![CDATA[<p>Building and construction traus postation equipment die-cost auto   parts  electrical  industry (power transmission lines) photoengraving  plates permanent  magnets   eryogenic  technology machinery  and  accessory equipment  containers  for fissionable rector fuels, tubes for ointment tooth paste, shaving cream etc. As powder in paints  and  protective  coating rocket fuel, ingredient of incendiary mixture (thermite) as a caralyst  foamed concrete  vacuum  metallizing and coating. As foil packaging cooking decorative stamping.  As blakes for insulation of  liquid fuels shipping.</p>
<p><strong>Project Report covers:</strong></p>
<ul>
<li>    Introduction</li>
<li>    Uses and Applications</li>
<li>    Properties</li>
<li>    Market Survey with future aspects</li>
<li>    Present Manufacturers</li>
<li>    B.I.S. Specifications</li>
<li>    Manufacturing Process with Formulae</li>
<li>    Cost Economics with Profitability Analysis</li>
<li>    Capacity</li>
<li>    Land &#38; Building Requirements with Rates</li>
<li>    List &#38; Details of Plant and Machinery with their Costs</li>
<li>    Raw Materials</li>
<li>    Details/List and Costs</li>
<li>    Power &#38; Water Requirements</li>
<li>    Labour/Staff Requirements</li>
<li>    Utilities and Overheads</li>
<li>    Total Capital Investment</li>
<li>    Turnover</li>
<li>    Cost of Production</li>
<li>    Break Even Point</li>
<li>    Profitability</li>
<li>    Land Man Ratio</li>
<li>    Suppliers of Plant &#38; Machineries and Raw Materials.</li>
</ul>
<p>The post <a href="https://projectreports.eiriindia.org/product/aluminium-alloy-ingots/">Aluminium Alloy Ingots</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/aluminium-alloy-ingots/">Aluminium Alloy Ingots</a> appeared first on <a href="https://projectreports.eiriindia.org">EIRI - eBooks and Project Reports</a>.</p>
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