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I L Z U F R I has over 25 years of experience working in various roles within the seamless pipe processing industry in Indonesia, including his current role as Heat Treatment Process Engineer at PT Citratubindo Tbk since 2014. He has a background in industrial engineering and has extensive training in areas such as heat treatment processes, statistical process control, and materials characterization. I L Z U F R I aims to improve quality, productivity and implement process improvements at his current organization.
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TEODULO DE VILLA AXALAN -APPLICANT
Teodulo D. Axalan is a 49-year-old Filipino man applying for the position of Piping Foreman. He has over 8 years of experience working on various refinery, power plant, and other industrial piping projects in Saudi Arabia, Algeria, Abu Dhabi, Nigeria, Qatar, and Malaysia. His duties have included pipe fabrication, installation, testing, and maintenance. His most recent role was as a Piping Supervisor for Samsung Saudi Arabia from 2013 to 2015.
DANIEL P
Daniel P. Broussard is seeking a position that allows him to fabricate and weld piping and structural materials safely. He graduated from Jennings High School in 1973 and has over 30 years of experience as a rig welder for Hercules Offshore Drilling and Brought Offshore Drilling, where he performed maintenance, repair, structural work, and piping. His skills include structural and piping fitting and stick welding from his past experience as a fitter and welder in shipyards and offshore rigs.
cecillo CV
Cecilio Deguzman Guinto II is a civil engineer from the Philippines who has worked in quality control and project management roles for construction companies in Saudi Arabia since 2010. He received a bachelor's degree in civil engineering and vocational training in computer programming. Currently he is a QA/QC supervisor for Gulf Co-Operation Symbols Cont. Co., Ltd. overseeing quality inspection for infrastructure projects. Previously he has held roles as a QA/QC inspector and site engineer for other construction firms in Saudi Arabia.
Thomas Adair updated resume- Feb., 2014
Thomas Adair has extensive experience as a pipefitter, millwright, and maintenance technician spanning over 20 years. He has worked on both commercial and industrial projects installing pipe, machinery, and other equipment. Adair takes pride in his work and safety. He is competent in using various tools and operating light construction equipment.
VINCI RESUME' waterfield
Gordon Vinci has over 30 years of experience in the construction industry, including experience as a carpenter, field superintendent, construction project manager, and construction manager. He holds a Bachelor's degree from Montclair State University and various licenses and certifications. Currently, he works as a technical support staff member for the New York City Housing Authority, overseeing construction projects to ensure safety, code, and contract compliance.
resumeCEPDF
This document contains the resume of Jupiter T. Lescano. It summarizes his objective of seeking a civil engineer position and outlines his 10 years of experience in civil construction project design and supervision. It also lists his educational background including a Bachelor of Science in Civil Engineering and various welding and safety certifications. His professional experience includes home renovation contracting work in Canada since 2012 as well as residential building contracting and civil engineering roles in the Philippines.
A Review on Un filling Defect Found In Forging Process
The objective of this paper is to find defects in forging process. Causes for unfilling defects are discussed and remedies for the unfilling defect would help to improve the quality of forging product. It is concluded that proper forging technique, improving die design, proper heating of billet reduce the unfilling defect. Simulation in FEM based software DEFORM 3D helps to detect unfilling defect and using discussed remedies help to reduce rejection rate.
Resume_Gurjeet
Gurjeet Singh is a manager with over 9 years of experience in engineering change management, new product introduction, bill of material validation, design fitment analysis, and value engineering. He currently works for Tata Motors as a manager in their technical services department, where he is responsible for engineering changes, new product implementation, design modifications, and more. Prior to his current role, he worked for Federal Mogul India and Guru Nanak Auto Enterprises in similar technical and engineering roles.
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TEODULO DE VILLA AXALAN -APPLICANT
Teodulo D. Axalan is a 49-year-old Filipino man applying for the position of Piping Foreman. He has over 8 years of experience working on various refinery, power plant, and other industrial piping projects in Saudi Arabia, Algeria, Abu Dhabi, Nigeria, Qatar, and Malaysia. His duties have included pipe fabrication, installation, testing, and maintenance. His most recent role was as a Piping Supervisor for Samsung Saudi Arabia from 2013 to 2015.
DANIEL P
Daniel P. Broussard is seeking a position that allows him to fabricate and weld piping and structural materials safely. He graduated from Jennings High School in 1973 and has over 30 years of experience as a rig welder for Hercules Offshore Drilling and Brought Offshore Drilling, where he performed maintenance, repair, structural work, and piping. His skills include structural and piping fitting and stick welding from his past experience as a fitter and welder in shipyards and offshore rigs.
cecillo CV
Cecilio Deguzman Guinto II is a civil engineer from the Philippines who has worked in quality control and project management roles for construction companies in Saudi Arabia since 2010. He received a bachelor's degree in civil engineering and vocational training in computer programming. Currently he is a QA/QC supervisor for Gulf Co-Operation Symbols Cont. Co., Ltd. overseeing quality inspection for infrastructure projects. Previously he has held roles as a QA/QC inspector and site engineer for other construction firms in Saudi Arabia.
Thomas Adair updated resume- Feb., 2014
Thomas Adair has extensive experience as a pipefitter, millwright, and maintenance technician spanning over 20 years. He has worked on both commercial and industrial projects installing pipe, machinery, and other equipment. Adair takes pride in his work and safety. He is competent in using various tools and operating light construction equipment.
VINCI RESUME' waterfield
Gordon Vinci has over 30 years of experience in the construction industry, including experience as a carpenter, field superintendent, construction project manager, and construction manager. He holds a Bachelor's degree from Montclair State University and various licenses and certifications. Currently, he works as a technical support staff member for the New York City Housing Authority, overseeing construction projects to ensure safety, code, and contract compliance.
resumeCEPDF
This document contains the resume of Jupiter T. Lescano. It summarizes his objective of seeking a civil engineer position and outlines his 10 years of experience in civil construction project design and supervision. It also lists his educational background including a Bachelor of Science in Civil Engineering and various welding and safety certifications. His professional experience includes home renovation contracting work in Canada since 2012 as well as residential building contracting and civil engineering roles in the Philippines.
A Review on Un filling Defect Found In Forging Process
The objective of this paper is to find defects in forging process. Causes for unfilling defects are discussed and remedies for the unfilling defect would help to improve the quality of forging product. It is concluded that proper forging technique, improving die design, proper heating of billet reduce the unfilling defect. Simulation in FEM based software DEFORM 3D helps to detect unfilling defect and using discussed remedies help to reduce rejection rate.
Resume_Gurjeet
Gurjeet Singh is a manager with over 9 years of experience in engineering change management, new product introduction, bill of material validation, design fitment analysis, and value engineering. He currently works for Tata Motors as a manager in their technical services department, where he is responsible for engineering changes, new product implementation, design modifications, and more. Prior to his current role, he worked for Federal Mogul India and Guru Nanak Auto Enterprises in similar technical and engineering roles.
Raju Dass CV-2
Raju Dass has over 4 years of experience in customer service roles. He is currently working as a cashier at Samruda Jevan Multi State Cooperative Society, where he handles cash transactions, maintains financial records, and assists customers. Previously, he worked as a quality analyst for Indiamart Leap Process, where he performed data analysis, reviewed reports, and ensured quality standards were met. He also has experience working in technical support. Raju holds a BA degree from Guru Nanak Dev University and has strong communication, problem-solving, and leadership skills.
Introduction to Forging
This document summarizes the process of forging and provides details on:
- Forging involves working metal under compressive forces like hammering or pressing to obtain a useful shape and improve mechanical properties.
- Hammer forging focuses forces on the surface while press forging uses slower compressive forces that increase pressure before release.
- Factors that determine forgeability include the metal's lattice structure, with FCC being most forgeable, followed by BCC then HCP, and higher temperatures also improve forgeability.
- Common metals suitable for forging include aluminum alloys, magnesium alloys, copper alloys, and carbon steels. Forging temperatures must be above the metal's recrystallization point
Closed Die Forging Report_revisionsEve
The document summarizes the closed die forging process. It discusses the main processes including die impressions, flashing design, and lubrication. It also covers production materials focusing on part shape, die tolerance, and hot vs cold forging. The document examines how forging affects material properties through grain flow orientation and defects that can occur. Key forged products like connecting rods and crankshafts are also highlighted.
06.forging
This document provides an overview of forging processes and techniques. It discusses open die and closed die forging, commonly forged materials like steels and aluminum alloys, hammers and presses used in forging, advantages of forging, potential defects, applications, secondary operations like heat treating and machining, product design considerations, safety measures, and details a site visit to Bharat Forge Ltd where connecting rods and front axles are produced.
Forging process
The document discusses various metal forming techniques including open-die forging, impression-die forging, and flashless forging. It describes how each process works and provides examples of parts made using forging. Defects that can occur during forging like unfilled sections, cold shuts, and scale pits are also reviewed. Different types of forging machines like drop hammers and presses are introduced.
Ch07[1]
The document describes various topics relating to plastic deformation in materials including dislocation motion, slip systems, strengthening mechanisms, and the effects of processing. It defines slip systems for FCC metals as occurring on {111} planes in <110> directions, allowing for 12 total slip systems. Strengthening mechanisms discussed include reducing grain size, solid solution strengthening, precipitation strengthening, and strain hardening. Solid solution strengthening is achieved through lattice strain interactions between solute atoms and dislocations. Strain hardening occurs as dislocation density increases during plastic deformation, causing dislocations to interact and impede further motion. Processing such as cold working was also described as increasing yield strength through dislocation generation and accumulation.
Forging Process
The document summarizes the forging manufacturing process. It describes forging as using compressive forces through dies to shape workpieces. There are different types of forging classified by energy source, die type, applied pressure, and machine. Forged parts have good strength and are used for critical applications. Common forged products include cutting tools, machine parts, and components for appliances, furniture, buildings, and vehicles. Forging provides benefits like grain refinement, minimal machining needs, and higher production rates. Limitations include closer tolerances and difficulty forming some shapes. Specific forging methods like hand forging, impression die forging, drop forging, and upsetting are also outlined.
Dislocations
This document discusses various types of dislocations and deformation mechanisms in crystalline materials. It describes edge dislocations, which involve an extra half-plane of atoms, and screw dislocations, where motion is perpendicular to the stress direction rather than parallel. Most dislocations exhibit both edge and screw characteristics. Dislocations create lattice strains and increase dramatically in number during plastic deformation. Materials deform through slip systems, which depend on crystal structure, involving the motion of dislocations on preferred crystallographic planes in certain directions. Polycrystalline materials require higher stresses than single crystals to deform due to constraints between grains. Twinning is another deformation mechanism that occurs in BCC and HCP crystals under high shear stresses.
Metal forming 2
The document discusses material properties relevant to metal forming processes. It notes that metals must have low yield strength and high ductility to be successfully formed. Temperature affects these properties, with ductility increasing and yield strength decreasing at higher temperatures. It also discusses independent variables like starting material and geometry that engineers control, and dependent variables like forces produced. The material behavior in forming is characterized by stress-strain curves and flow curves, which describe how properties change with deformation. The document provides information on determining and applying flow curves for different forming processes that occur at various temperature ranges, like cold, warm, and hot working.
Forming process forging
The document discusses two main forging processes: open die forging and closed die forging. Open die forging uses simple flat dies and is used for large or low volume parts. Closed die forging uses carefully machined matching dies to produce parts to close tolerances. The process involves preforming billets, rough forging in blocking dies, finishing in final dies, and trimming flash. Closed die forging produces parts with good dimensions and properties but requires high die costs for small volumes.
Lecture 1 metal_forming
The document discusses various fundamentals of metal forming processes including hot working, cold working, and warm working operations. It describes different metal forming techniques like forging, rolling, extrusion, and describes tools used in smithy like anvil, hammers, swages, and forging operations like upsetting, drawing, bending, and punching.
Forging processes
Smith forging, also called flat die or open die forging, uses simple flat-faced dies and stock tooling to produce workpieces with less accuracy than impression or closed die forging. Impression die forging uses cavities in specially prepared dies to produce forged shapes in large quantities through drop, press, or machine forging. Closed die forging places a heated workpiece on a lower die while an upper die forces the metal to fill die contours. Hand forging shapes small forgings through hammering heated metal on anvils while power hammers and presses are used to forge larger parts through blows or squeezing.
Metal forming processes
Metal forming processes are used to shape metals into useful products. Rolling is the most common forming process and accounts for around 90% of metal forming. It involves passing metal between rolls to reduce thickness or change cross-section. Forging uses dies and compression to shape hot or cold metal. Extrusion forces heated metal through a die to create shapes like rods, tubes and structural sections. Drawing pulls metal through a die to make wires, rods and tubes from both hot and cold workpieces. Deep drawing specifically makes cylindrical parts like cups from sheet metal.
Forging Process. [Workshop Practices]
Forging is an ancient metalworking process where a metal is compressed under force into a desired shape. It can be done using a hammer and anvil and produces parts with good strength and toughness. There are different types of forging processes, including open-die forging using flat dies, impression-die forging where the workpiece takes the shape of shaped die cavities, and coining where parts are precisely forged without lubricants between dies. Forged parts often require additional heat treating for optimal properties.
PPT ON FORGING
This document discusses various types of forging processes including hot forging, press forging, swaging, and cold forging. It describes how each process uses compressive forces and dies to shape metal at different temperatures. Examples of specific forging techniques are provided like hammer forging, drop forging, and upset forging. The document also outlines common forging tools, defects that may occur, and applications in small tools and automotive manufacturing.
forging processes
1) Properties of the billet material and how it deforms under different conditions of strain, strain rate, and temperature
2) Geometry and properties of the forging tools and die interface
3) Conditions within the deformation zone such as metal flow, stresses, and temperatures during forming
Forging
Forging processes involve shaping metals by applying compressive forces. There are four main types: hammer/drop forging uses gravity impacts, press forging uses hydraulic or mechanical presses, and open-die and closed-die forging differ in whether dies fully contain the metal. Forging increases strength by working the metal and altering its microstructure. Proper die and process design are needed to control metal flow, fill dies completely, and minimize flash and defects. Die materials must withstand thermal and mechanical stresses, while coatings can extend die life.
Rolling Process
Basic concepts of rolling process are included.Rolling is a very important production process as we know.To learn about rolling,this slides would help you a lot.
Sheet metal-forming-processes
This document provides an overview of sheet metal forming processes. It discusses both cutting (shearing) operations like punching, blanking, and notching as well as forming operations like bending, drawing, squeezing, and hydroforming. The document describes various bending operations including V-bending, roll bending, and tube bending. It also discusses processes for forming parts like deep drawing, ironing, redrawing, and the multi-step metal forming process used to produce aluminum beverage cans.
Sheet metal-operations
Sheet metal is a thin piece of metal between 0.006 and 0.25 inches thick. Sheet metal can be cut, bent, and stretched into various shapes through forming and cutting operations. Common forming operations include bending, deep drawing, and roll forming. Common cutting operations include shearing, blanking, punching, notching, and slitting. Sheet metal workers use tools like dies and presses to perform these operations and shape the metal.
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Raju Dass CV-2
Raju Dass has over 4 years of experience in customer service roles. He is currently working as a cashier at Samruda Jevan Multi State Cooperative Society, where he handles cash transactions, maintains financial records, and assists customers. Previously, he worked as a quality analyst for Indiamart Leap Process, where he performed data analysis, reviewed reports, and ensured quality standards were met. He also has experience working in technical support. Raju holds a BA degree from Guru Nanak Dev University and has strong communication, problem-solving, and leadership skills.
Introduction to Forging
This document summarizes the process of forging and provides details on:
- Forging involves working metal under compressive forces like hammering or pressing to obtain a useful shape and improve mechanical properties.
- Hammer forging focuses forces on the surface while press forging uses slower compressive forces that increase pressure before release.
- Factors that determine forgeability include the metal's lattice structure, with FCC being most forgeable, followed by BCC then HCP, and higher temperatures also improve forgeability.
- Common metals suitable for forging include aluminum alloys, magnesium alloys, copper alloys, and carbon steels. Forging temperatures must be above the metal's recrystallization point
Closed Die Forging Report_revisionsEve
The document summarizes the closed die forging process. It discusses the main processes including die impressions, flashing design, and lubrication. It also covers production materials focusing on part shape, die tolerance, and hot vs cold forging. The document examines how forging affects material properties through grain flow orientation and defects that can occur. Key forged products like connecting rods and crankshafts are also highlighted.
06.forging
This document provides an overview of forging processes and techniques. It discusses open die and closed die forging, commonly forged materials like steels and aluminum alloys, hammers and presses used in forging, advantages of forging, potential defects, applications, secondary operations like heat treating and machining, product design considerations, safety measures, and details a site visit to Bharat Forge Ltd where connecting rods and front axles are produced.
Forging process
The document discusses various metal forming techniques including open-die forging, impression-die forging, and flashless forging. It describes how each process works and provides examples of parts made using forging. Defects that can occur during forging like unfilled sections, cold shuts, and scale pits are also reviewed. Different types of forging machines like drop hammers and presses are introduced.
Ch07[1]
The document describes various topics relating to plastic deformation in materials including dislocation motion, slip systems, strengthening mechanisms, and the effects of processing. It defines slip systems for FCC metals as occurring on {111} planes in <110> directions, allowing for 12 total slip systems. Strengthening mechanisms discussed include reducing grain size, solid solution strengthening, precipitation strengthening, and strain hardening. Solid solution strengthening is achieved through lattice strain interactions between solute atoms and dislocations. Strain hardening occurs as dislocation density increases during plastic deformation, causing dislocations to interact and impede further motion. Processing such as cold working was also described as increasing yield strength through dislocation generation and accumulation.
Forging Process
The document summarizes the forging manufacturing process. It describes forging as using compressive forces through dies to shape workpieces. There are different types of forging classified by energy source, die type, applied pressure, and machine. Forged parts have good strength and are used for critical applications. Common forged products include cutting tools, machine parts, and components for appliances, furniture, buildings, and vehicles. Forging provides benefits like grain refinement, minimal machining needs, and higher production rates. Limitations include closer tolerances and difficulty forming some shapes. Specific forging methods like hand forging, impression die forging, drop forging, and upsetting are also outlined.
Dislocations
This document discusses various types of dislocations and deformation mechanisms in crystalline materials. It describes edge dislocations, which involve an extra half-plane of atoms, and screw dislocations, where motion is perpendicular to the stress direction rather than parallel. Most dislocations exhibit both edge and screw characteristics. Dislocations create lattice strains and increase dramatically in number during plastic deformation. Materials deform through slip systems, which depend on crystal structure, involving the motion of dislocations on preferred crystallographic planes in certain directions. Polycrystalline materials require higher stresses than single crystals to deform due to constraints between grains. Twinning is another deformation mechanism that occurs in BCC and HCP crystals under high shear stresses.
Metal forming 2
The document discusses material properties relevant to metal forming processes. It notes that metals must have low yield strength and high ductility to be successfully formed. Temperature affects these properties, with ductility increasing and yield strength decreasing at higher temperatures. It also discusses independent variables like starting material and geometry that engineers control, and dependent variables like forces produced. The material behavior in forming is characterized by stress-strain curves and flow curves, which describe how properties change with deformation. The document provides information on determining and applying flow curves for different forming processes that occur at various temperature ranges, like cold, warm, and hot working.
Forming process forging
The document discusses two main forging processes: open die forging and closed die forging. Open die forging uses simple flat dies and is used for large or low volume parts. Closed die forging uses carefully machined matching dies to produce parts to close tolerances. The process involves preforming billets, rough forging in blocking dies, finishing in final dies, and trimming flash. Closed die forging produces parts with good dimensions and properties but requires high die costs for small volumes.
Lecture 1 metal_forming
The document discusses various fundamentals of metal forming processes including hot working, cold working, and warm working operations. It describes different metal forming techniques like forging, rolling, extrusion, and describes tools used in smithy like anvil, hammers, swages, and forging operations like upsetting, drawing, bending, and punching.
Forging processes
Smith forging, also called flat die or open die forging, uses simple flat-faced dies and stock tooling to produce workpieces with less accuracy than impression or closed die forging. Impression die forging uses cavities in specially prepared dies to produce forged shapes in large quantities through drop, press, or machine forging. Closed die forging places a heated workpiece on a lower die while an upper die forces the metal to fill die contours. Hand forging shapes small forgings through hammering heated metal on anvils while power hammers and presses are used to forge larger parts through blows or squeezing.
Metal forming processes
Metal forming processes are used to shape metals into useful products. Rolling is the most common forming process and accounts for around 90% of metal forming. It involves passing metal between rolls to reduce thickness or change cross-section. Forging uses dies and compression to shape hot or cold metal. Extrusion forces heated metal through a die to create shapes like rods, tubes and structural sections. Drawing pulls metal through a die to make wires, rods and tubes from both hot and cold workpieces. Deep drawing specifically makes cylindrical parts like cups from sheet metal.
Forging Process. [Workshop Practices]
Forging is an ancient metalworking process where a metal is compressed under force into a desired shape. It can be done using a hammer and anvil and produces parts with good strength and toughness. There are different types of forging processes, including open-die forging using flat dies, impression-die forging where the workpiece takes the shape of shaped die cavities, and coining where parts are precisely forged without lubricants between dies. Forged parts often require additional heat treating for optimal properties.
PPT ON FORGING
This document discusses various types of forging processes including hot forging, press forging, swaging, and cold forging. It describes how each process uses compressive forces and dies to shape metal at different temperatures. Examples of specific forging techniques are provided like hammer forging, drop forging, and upset forging. The document also outlines common forging tools, defects that may occur, and applications in small tools and automotive manufacturing.
forging processes
1) Properties of the billet material and how it deforms under different conditions of strain, strain rate, and temperature
2) Geometry and properties of the forging tools and die interface
3) Conditions within the deformation zone such as metal flow, stresses, and temperatures during forming
Forging
Forging processes involve shaping metals by applying compressive forces. There are four main types: hammer/drop forging uses gravity impacts, press forging uses hydraulic or mechanical presses, and open-die and closed-die forging differ in whether dies fully contain the metal. Forging increases strength by working the metal and altering its microstructure. Proper die and process design are needed to control metal flow, fill dies completely, and minimize flash and defects. Die materials must withstand thermal and mechanical stresses, while coatings can extend die life.
Rolling Process
Basic concepts of rolling process are included.Rolling is a very important production process as we know.To learn about rolling,this slides would help you a lot.
Sheet metal-forming-processes
This document provides an overview of sheet metal forming processes. It discusses both cutting (shearing) operations like punching, blanking, and notching as well as forming operations like bending, drawing, squeezing, and hydroforming. The document describes various bending operations including V-bending, roll bending, and tube bending. It also discusses processes for forming parts like deep drawing, ironing, redrawing, and the multi-step metal forming process used to produce aluminum beverage cans.
Sheet metal-operations
Sheet metal is a thin piece of metal between 0.006 and 0.25 inches thick. Sheet metal can be cut, bent, and stretched into various shapes through forming and cutting operations. Common forming operations include bending, deep drawing, and roll forming. Common cutting operations include shearing, blanking, punching, notching, and slitting. Sheet metal workers use tools like dies and presses to perform these operations and shape the metal.
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cv complite
- 1. I L Z U F R I Batam island, Kepulauan Riau Mobile : +6281 2704 5563 Email : ilzufri@yahoo.com P E R S O N A L I N F O R M A T I O N Good attitude, discipline, honest, and be responsible. Born March 25st, 1970 in Payakumbuh, west sumatra (Indonesia) Citizenship: Indonesia Religion : Moslem Marital status: married, 2 kids W O R K H I S T O R Y OCTOBER 2014 - PRESENT (1 YEAR 8 MONTHS) HEAT TREATMENT PROCESS ENGINEER AT PT CITRATUBINDO TBK, SEAMLESS PIPE PROSSESING PLANT. * FURNACE QUALIFICATION. * HIGH COLLAPSE ANALYZE. * PROCESS CAPABILITY STUDY TO MAKE SURE HEAT TREATMENT AND UP SETTER PROCESSES ARE APPLICABLE WITH CUSTOMERS DEMAND OR REQUIREMENT * DEFECT ANALYSIS AND CORRECTIVE ACTION PROMOTION AND IMPLEMENTATION REVIEW * QUALITY AND PRODUCTIVITY IMPROVEMENT IMPLEMENTATION CONTROL AND REVIEW * NEW STEEL CODE (PRODUCT / SAMPLES) QUALIFICATION AND VALIDATION PROCESS (NEW PARAMETER SET UP) OCTOBER 2012 - OCTOBER 2014 (2 YEARS 1 MONTH) PRODUCTION TRAINING SPESIALIST AT PT CITRATUBINDO TBK, SEAMLESS PIPE PROSSESING PLANT. *PREPARING ALL TRAINING MATERIALS FOR ALL THE MACHINES IN THE HEAT TREATMENT PLANT AND UPSETTER PLANT. JANUARY 2005 - SEPTEMBER 2012 (7 YEARS 9 MONTHS) EQUIPMENT CONTROL AT PT.CITRA TUBINDO TBK *PLANNING REPAIR A MACHINE. *PLANNING THE PURCHASE OF MACHINERY SPARE *PARTS *CONTROL ALL MACHINES *CALIBRATION MACHINE. *UNIFORMITY FURNACE / FURNACE QUALIFICATION *IMPROVE PERFORMACE FOR SEAL PRESSURE HYDROTEST. *RECASTING SLOT FURNACE. JUNE 2003 - DECEMBER 2004 (1 YEAR 7 MONTHS) EQUIPMENT TECHNICIAN AT PT CIITRA TUBINDO TBK *CONTROL ALL EQUIPMENT AT HEAT TREATMENT PLANT APRIL 1999 - MAY 2003 (4 YEARS 2 MONTHS) STRAIGHTENING OPERATOR AT PT. CITRA TUBINDO TBK *OPERATE, SETTING AND CALIBRATION
- 2. JULY 1991 - MARCH 1999 (7 YEARS 9 MONTHS) SIZING MILL OPERATOR AT PT.CITRA TUBINDO TBK *SETTING AND OPERATED P R O J E C T MAY 2010 RECASTING SLOT FURNACE FOR UPSETER PLANT. *REVIEW AND CHANGE SOME DESIGN. *REVIEW MATERIAL AND ORDER. *SUPERVISION. *DRY OUT C O U R S E S INDEPENDENT COURSEWORK ( INDONESIA ) CHARACTERISATION MATERIAL FOR PIPE. ( CENTER OF MATERIAL PROCESSING AND FAILURE ANALYSIS, UNIVERSITY OF INDONESIA ) INTERNAL COURSEWORK ( INDONESIA ) OCTG & VAM SCHOOL EDUCATION ( VALLOUREC ). INTERNAL COURSEWORK ( FRANCE ) HIGH COLLAPSE ANALYZE INDEPENDENT COURSEWORK ( INDONESIA ) TRAIN OF TRAINER INDEPENDENT COURSEWORK ( INDONESIA ) STATISTICAL PROCESS CONTROL (SPC). L A N G U A G E S ENGLISH INDONESIA E D U C A T I O N SEKOLAH TINGGI TEKNIK BATAM INDUSTRIAL ENGINEERING Yours faithfully I L Z U F R I