This document provides a method of works for lifting a stator generator using strand jacks and skid rollers at the PLTU KALTIM TELUK BALIKPAPAN 2X110MW power plant project in Teluk Balikpapan, Kalimantan Timur, Indonesia. The summary includes preparing strand jacks and temporary scaffolding, connecting the strand jacks to the stator generator to lift it, moving it horizontally using a gantry crane, lowering it onto its foundation, and disconnecting the strand jacks. Safety precautions and responsibilities of roles like the chief construction and field engineer are outlined. Diagrams show the lifting process and equipment used.
Sfpsg the safe use of telehandlers in construction 110210 aAlan Bassett
This document is intended to provide best practice guidance on the management and
supervision of the use of telehandlers on construction sites including planning,
equipment selection, selection and training of personnel, provision of information,
familiarisation, safe use, maintenance, inspection and thorough examination, together
with monitoring of the whole process. It is essential that in managing the use of
telehandlers, adequate attention is paid to all aspects of the process – selection of the
correct equipment for the application, planning its use by competent people, monitoring
the activity and rectification of issues; if any one aspect is ignored the probability of an
incident will increase significantly, putting both the machine operator and people in the
vicinity at risk.
This document provides a risk assessment for hydro testing and pressure testing of pipe works conducted by Arabian Bemco Contracting Co. It identifies several hazards associated with the work including high pressure leaks, over pressure, slips trips and falls. For each hazard, it lists the persons at risk, initial risk rating, and proposed control measures to reduce the risk. The control measures include training, use of personal protective equipment, safety signage, permitting, and having emergency response measures in place.
Bs 7121 2º INSPECTION, TESTING AND EXAMINATION-CRANESANA ISABEL R.R.
This document provides guidelines for inspection, testing and examination of cranes according to BS 7121-2 Code of Practice for Safe Use of Cranes Part 2. It outlines requirements for pre-use checks, in-service inspections, and thorough examinations to be carried out by competent personnel. Thorough examinations must follow a written examination scheme and are required at least every 6 months for cranes that lift persons and every 12 months for other cranes. The document specifies inspection and testing procedures, responsibilities of different parties, and record keeping requirements.
This document provides a crane lifting plan and risk assessment for a lifting operation. It details the crane and lift information, including load details, lifting tackle, and crane setup procedures. Safety procedures are outlined, such as conducting a site inspection, briefing personnel, establishing communication methods, and following weather restrictions. Personnel qualifications and roles are defined. The plan is intended to ensure the lifting operation is carried out safely in compliance with relevant standards and regulations.
The document provides guidance on safely using lifting equipment according to UK regulations. It summarizes the legal requirements, definitions, and general safety procedures. The key points covered include:
1. Responsibilities of manufacturers, suppliers, employers and employees in ensuring lifting equipment is safe and properly maintained.
2. Definitions of important terms related to lifting equipment and legal requirements.
3. An overview of UK regulations and standards covering the supply and safe use of lifting equipment.
This document is a lifting plan checklist and method statement for mobile crane lifts. It contains sections for pre-planning the lift, checking the crane on site, and authorizing the lifting operation. Section A requires information on the load, crane access, lift details, and hazards. Section B verifies crane qualifications and positioning. Section C outlines the lift task, controls, assigned roles, lift details, and authorizes the operation start and end times. The checklist aims to ensure lifts are properly planned and authorized according to safety standards.
This document provides information on lifting equipment and procedures according to factory safety regulations. It defines key terms like competent person and machinery. It outlines requirements for hoists and lifts under the Factories Act. Various types of lifting equipment and tackles are described, along with their functions. Guidelines are given for planning lifts, conducting the lift, landing loads, and dos and don'ts. Methods for determining safe working loads of various sling configurations based on sling angles are explained. Two case studies describe lifting accidents caused by improper lifting techniques.
Sfpsg the safe use of telehandlers in construction 110210 aAlan Bassett
This document is intended to provide best practice guidance on the management and
supervision of the use of telehandlers on construction sites including planning,
equipment selection, selection and training of personnel, provision of information,
familiarisation, safe use, maintenance, inspection and thorough examination, together
with monitoring of the whole process. It is essential that in managing the use of
telehandlers, adequate attention is paid to all aspects of the process – selection of the
correct equipment for the application, planning its use by competent people, monitoring
the activity and rectification of issues; if any one aspect is ignored the probability of an
incident will increase significantly, putting both the machine operator and people in the
vicinity at risk.
This document provides a risk assessment for hydro testing and pressure testing of pipe works conducted by Arabian Bemco Contracting Co. It identifies several hazards associated with the work including high pressure leaks, over pressure, slips trips and falls. For each hazard, it lists the persons at risk, initial risk rating, and proposed control measures to reduce the risk. The control measures include training, use of personal protective equipment, safety signage, permitting, and having emergency response measures in place.
Bs 7121 2º INSPECTION, TESTING AND EXAMINATION-CRANESANA ISABEL R.R.
This document provides guidelines for inspection, testing and examination of cranes according to BS 7121-2 Code of Practice for Safe Use of Cranes Part 2. It outlines requirements for pre-use checks, in-service inspections, and thorough examinations to be carried out by competent personnel. Thorough examinations must follow a written examination scheme and are required at least every 6 months for cranes that lift persons and every 12 months for other cranes. The document specifies inspection and testing procedures, responsibilities of different parties, and record keeping requirements.
This document provides a crane lifting plan and risk assessment for a lifting operation. It details the crane and lift information, including load details, lifting tackle, and crane setup procedures. Safety procedures are outlined, such as conducting a site inspection, briefing personnel, establishing communication methods, and following weather restrictions. Personnel qualifications and roles are defined. The plan is intended to ensure the lifting operation is carried out safely in compliance with relevant standards and regulations.
The document provides guidance on safely using lifting equipment according to UK regulations. It summarizes the legal requirements, definitions, and general safety procedures. The key points covered include:
1. Responsibilities of manufacturers, suppliers, employers and employees in ensuring lifting equipment is safe and properly maintained.
2. Definitions of important terms related to lifting equipment and legal requirements.
3. An overview of UK regulations and standards covering the supply and safe use of lifting equipment.
This document is a lifting plan checklist and method statement for mobile crane lifts. It contains sections for pre-planning the lift, checking the crane on site, and authorizing the lifting operation. Section A requires information on the load, crane access, lift details, and hazards. Section B verifies crane qualifications and positioning. Section C outlines the lift task, controls, assigned roles, lift details, and authorizes the operation start and end times. The checklist aims to ensure lifts are properly planned and authorized according to safety standards.
This document provides information on lifting equipment and procedures according to factory safety regulations. It defines key terms like competent person and machinery. It outlines requirements for hoists and lifts under the Factories Act. Various types of lifting equipment and tackles are described, along with their functions. Guidelines are given for planning lifts, conducting the lift, landing loads, and dos and don'ts. Methods for determining safe working loads of various sling configurations based on sling angles are explained. Two case studies describe lifting accidents caused by improper lifting techniques.
Badaruddin provides his credentials and experience in engineering and rigging. He outlines key considerations for rigging plans including defining the lifting method, estimating the lifted load, selecting rigging and a crane. As an example, he summarizes installing a gas cooler using a 180-ton crane. Key steps are setting the crane configuration, defining the 34.5-ton lifted weight and center of gravity, verifying the crane capacity of 42.3 tons is not exceeded, selecting wire rope slings rated for 28 and 16 tons, and checking ground bearing pressure does not exceed capacity.
This document provides a method statement for mobilizing and demobilizing office containers and equipment, as well as general unloading and lifting operations of construction materials and equipment for the Evonik Utility Supply project. It outlines the responsibilities of various roles including the project manager, engineers, safety coordinator, foremen, lifting supervisors, crane operators, riggers, and signalmen. It also describes the required qualifications for personnel and provides an organization chart. The methodology section covers preparatory work, equipment and tools needed, and lifting plans and sequences.
Lifting of heavy objects requires proper rigging techniques and equipment to prevent accidents. Correct rigging uses slings, ropes, chains, hooks, shackles and other tools to securely lift and move loads. Regular inspection of all rigging components is important, as wear and defects can compromise safety if not addressed. Proper slinging techniques like choker and basket hitches are necessary to control loads. Calculations must ensure rigging gear is not overloaded.
The document provides a method statement for piping works at the Dabbiya site for new piping installations at five clusters as part of the Al Dabbiya Phase-1 Additional Injection Wells Tie-Ins project. It outlines the scope of work, references, responsibilities, sequence of works including safety setup, field joint welding, pipe support welding, valve installation and quality control requirements. The piping installations will include welding field joints and assembling prefabricated pipe spools delivered from the workshop.
This document provides an overview of a training course on rigging fundamentals. It discusses the importance of moving heavy loads safely in construction and manufacturing. It also covers definitions of key rigging terms, OSHA regulations, and the operating limitations of cranes and rigging equipment to ensure safety. Safety is the primary focus of the training to prevent injuries and fatalities for workers.
The document provides a method statement for piping installation works at the Dabbiya site for the Al Dabbiya Phase-1 Additional Injection Wells Tie-Ins project. It outlines the scope of works, sequence of activities, resources, HSE requirements, and emergency contacts. Piping works will involve transporting prefabricated spools to site, lifting them into position, welding field joints, installing valves, and testing. Welding will follow approved procedures and NDT testing. HSE precautions like PPE and fire safety will be enforced during the medium risk work.
This document provides an overview of important factors related to safe lifting operations, including common accidents, legislative requirements, roles of personnel, machinery considerations, and types of lifting gears. It discusses cranes like mobile cranes and tower cranes and safe operation points. It also covers various lifting gears such as wire rope slings, chain slings, hooks, and their inspection and proper use. The document emphasizes the importance of following safety procedures and using qualified personnel and properly inspected equipment to reduce lifting accidents.
Use multiple single leg slings to wrap around off-center loads for better stability. Secure all loose equipment before lifting. When using eye bolts or slings, be aware that their capacity decreases significantly at angled loads. Use proper padding and hitches to control loads and prevent damage.
This document outlines regulations and guidelines for safe lifting operations and the use of lifting appliances. It discusses requirements for equipment strength and stability, prevention of injuries, thorough inspections and examinations. Various types of cranes and their safety devices are described. Factors to consider when selecting cranes include load size, lift heights and durations. Proper planning, supervision and safe practices are required for all lifting operations.
Mobile crane inspector training student manualSaul Ramirez
This document discusses how to properly read and apply OSHA and ASME standards when performing mobile crane inspections. It explains that OSHA promulgates minimum safety standards under Title 29 of the CFR and outlines some key OSHA standards for mobile cranes. It also introduces ASME/ANSI B30.5 as an industry consensus standard. Tables 2 and 3 then provide examples of applying these standards by listing inspection items for specific cranes and their corresponding OSHA and ASME references. Reading manufacturer manuals and understanding these regulatory standards is important for inspectors to determine inspection requirements and criteria.
This document discusses crane safety and proper rigging procedures. It outlines some of the major causes of crane accidents such as electrocution, tipping over, and rigging failures. It emphasizes the importance of proper outrigger setup to stabilize cranes, using barricades and tag lines during lifts, inspecting all rigging equipment, and balancing loads. Following proper procedures can help prevent accidents and injuries when operating cranes and performing lifts.
This presentation provides general information about the requirements of the Lifting Operations and Lifting Equipment Regulations 1998 (LOLER):
What employers need to do to protect your employees
Also useful to employees and their representatives
More information : http://worlifts.co.uk/
Lifting plans for non-crane lifts on small construction sitesSimon Faulkner-Duke
This document discusses lifting plans for non-crane lifts on small construction sites. It outlines the types of equipment used such as lorry loaders, excavators, telescopic handlers, and forklifts. It discusses the legal requirements to properly plan lifting operations involving lifting equipment. A basic lifting plan must include a risk assessment, method statement, and lifting team consisting of a competent person, slinger/signaller, and operator. For more complex lifts, separate roles are required such as a crane supervisor, additional slinger/signaller, and traffic management operative. Main issues that can occur during lifts include lack of planning, not accounting for all weights, using excavators improperly as cranes, wind speed, and not
This document outlines procedures for safe lifting operations. It describes the objectives of lifting operation training which are to list major crane accident causes, describe pre-lift planning, state precautions around power lines, and explain ways to eliminate hazards. It details roles and responsibilities of managers, supervisors, riggers and others to ensure lifts are planned and executed safely. The procedures section specifies requirements for lift planning, equipment inspection, communication, and restrictions during high winds or near power lines.
The centre of gravity (CG) is the point where the entire weight of a body or system of bodies is concentrated so that if supported at this point the body or system would remain in static equilibrium in any position. It is important to position the crane hook directly over the CG of a load for stability during lifting operations. Lifting a load with an offset CG can cause the load to shift until balance is restored with the CG below the hook. When lifting loads with an offset CG, one sling leg will take more of the load weight than the other, so the sling SWL should be based on the full load weight on one leg. Careful lifting is required as loads with an offset CG could kick in an unexpected manner once lifted
The document discusses ASME B30.5, the safety standard for mobile and locomotive cranes. It provides definitions for key terms, the scope of equipment covered, and requirements for load ratings, construction, and characteristics. The standard requires load rating charts showing the full range of rated capacities based on factors like boom length, outrigger position, and radius. The charts must be clearly displayed and include warnings or limitations. Requirements are provided for load ratings determined by stability or structural competence, and diagrams must be supplied by the manufacturer.
16 Scaffolding (Temporary Works) Risk Assessment Templates
Access to work areas by personnel and plant.
Scaffold Material delivery to work area;
Scaffold design and erection standards
(Classified as Temporary Structure)
Scaffold erection
(Classified as Temporary Structure)
Dismantling of scaffold
Maintenance of Scaffold
Worker exposure to direct sun whist working on scaffold
(as applicable)
The document provides guidance on hoist and crane operations including inspection, rigging, chain rigging, and overhead crane operation. Key points include inspecting equipment daily for loose or missing parts and proper function of controls and limit switches. When rigging, take up slack slowly, avoid knots in chains, and distribute loads evenly. For overhead crane operation, loads should not be suspended over personnel and movements should be smooth and deliberate without exceeding rated capacities.
This document outlines safety precautions and procedures for crane operations. It establishes requirements for organizing a crane and rigging group with defined roles and responsibilities. It requires crane operators and signalmen to be qualified and trained. It specifies guidelines for crane set up and operation including following approved lift plans, permit requirements, and stopping work if unsafe conditions arise. It defines critical lifts and provides examples. It lists safety precautions for crane and rigging equipment inspections, defects, capacity markings, and color coding for monthly inspections.
This document provides a rigging plan for lifting a 72 ton steam drum at a power plant. It details the preparation work, safety responsibilities, lifting procedures, and erection sequence. The drum will be lifted by winch between grid supports that are 18,000mm apart, eliminating the need to tilt the drum. Temporary supports will be installed to guide the strands and provide access platforms for operators during the lift. The electric winch will lift a load of 7 tons on the drum, but exert 35 tons of force on the pulley during the lift.
The document provides guidelines for erecting steel structures, including:
- Unloading materials using cranes and manually arranging them near installation locations.
- Erecting columns by lifting them into place with cranes, setting them on anchor bolts, and securing with temporary cables until bolts are tightened.
- Assembling rafter members on the ground, installing bracing, and then lifting into place and connecting to erected columns.
- Repeating column and rafter erection to complete frames, ensuring connections are bolted before releasing lifting equipment.
Badaruddin provides his credentials and experience in engineering and rigging. He outlines key considerations for rigging plans including defining the lifting method, estimating the lifted load, selecting rigging and a crane. As an example, he summarizes installing a gas cooler using a 180-ton crane. Key steps are setting the crane configuration, defining the 34.5-ton lifted weight and center of gravity, verifying the crane capacity of 42.3 tons is not exceeded, selecting wire rope slings rated for 28 and 16 tons, and checking ground bearing pressure does not exceed capacity.
This document provides a method statement for mobilizing and demobilizing office containers and equipment, as well as general unloading and lifting operations of construction materials and equipment for the Evonik Utility Supply project. It outlines the responsibilities of various roles including the project manager, engineers, safety coordinator, foremen, lifting supervisors, crane operators, riggers, and signalmen. It also describes the required qualifications for personnel and provides an organization chart. The methodology section covers preparatory work, equipment and tools needed, and lifting plans and sequences.
Lifting of heavy objects requires proper rigging techniques and equipment to prevent accidents. Correct rigging uses slings, ropes, chains, hooks, shackles and other tools to securely lift and move loads. Regular inspection of all rigging components is important, as wear and defects can compromise safety if not addressed. Proper slinging techniques like choker and basket hitches are necessary to control loads. Calculations must ensure rigging gear is not overloaded.
The document provides a method statement for piping works at the Dabbiya site for new piping installations at five clusters as part of the Al Dabbiya Phase-1 Additional Injection Wells Tie-Ins project. It outlines the scope of work, references, responsibilities, sequence of works including safety setup, field joint welding, pipe support welding, valve installation and quality control requirements. The piping installations will include welding field joints and assembling prefabricated pipe spools delivered from the workshop.
This document provides an overview of a training course on rigging fundamentals. It discusses the importance of moving heavy loads safely in construction and manufacturing. It also covers definitions of key rigging terms, OSHA regulations, and the operating limitations of cranes and rigging equipment to ensure safety. Safety is the primary focus of the training to prevent injuries and fatalities for workers.
The document provides a method statement for piping installation works at the Dabbiya site for the Al Dabbiya Phase-1 Additional Injection Wells Tie-Ins project. It outlines the scope of works, sequence of activities, resources, HSE requirements, and emergency contacts. Piping works will involve transporting prefabricated spools to site, lifting them into position, welding field joints, installing valves, and testing. Welding will follow approved procedures and NDT testing. HSE precautions like PPE and fire safety will be enforced during the medium risk work.
This document provides an overview of important factors related to safe lifting operations, including common accidents, legislative requirements, roles of personnel, machinery considerations, and types of lifting gears. It discusses cranes like mobile cranes and tower cranes and safe operation points. It also covers various lifting gears such as wire rope slings, chain slings, hooks, and their inspection and proper use. The document emphasizes the importance of following safety procedures and using qualified personnel and properly inspected equipment to reduce lifting accidents.
Use multiple single leg slings to wrap around off-center loads for better stability. Secure all loose equipment before lifting. When using eye bolts or slings, be aware that their capacity decreases significantly at angled loads. Use proper padding and hitches to control loads and prevent damage.
This document outlines regulations and guidelines for safe lifting operations and the use of lifting appliances. It discusses requirements for equipment strength and stability, prevention of injuries, thorough inspections and examinations. Various types of cranes and their safety devices are described. Factors to consider when selecting cranes include load size, lift heights and durations. Proper planning, supervision and safe practices are required for all lifting operations.
Mobile crane inspector training student manualSaul Ramirez
This document discusses how to properly read and apply OSHA and ASME standards when performing mobile crane inspections. It explains that OSHA promulgates minimum safety standards under Title 29 of the CFR and outlines some key OSHA standards for mobile cranes. It also introduces ASME/ANSI B30.5 as an industry consensus standard. Tables 2 and 3 then provide examples of applying these standards by listing inspection items for specific cranes and their corresponding OSHA and ASME references. Reading manufacturer manuals and understanding these regulatory standards is important for inspectors to determine inspection requirements and criteria.
This document discusses crane safety and proper rigging procedures. It outlines some of the major causes of crane accidents such as electrocution, tipping over, and rigging failures. It emphasizes the importance of proper outrigger setup to stabilize cranes, using barricades and tag lines during lifts, inspecting all rigging equipment, and balancing loads. Following proper procedures can help prevent accidents and injuries when operating cranes and performing lifts.
This presentation provides general information about the requirements of the Lifting Operations and Lifting Equipment Regulations 1998 (LOLER):
What employers need to do to protect your employees
Also useful to employees and their representatives
More information : http://worlifts.co.uk/
Lifting plans for non-crane lifts on small construction sitesSimon Faulkner-Duke
This document discusses lifting plans for non-crane lifts on small construction sites. It outlines the types of equipment used such as lorry loaders, excavators, telescopic handlers, and forklifts. It discusses the legal requirements to properly plan lifting operations involving lifting equipment. A basic lifting plan must include a risk assessment, method statement, and lifting team consisting of a competent person, slinger/signaller, and operator. For more complex lifts, separate roles are required such as a crane supervisor, additional slinger/signaller, and traffic management operative. Main issues that can occur during lifts include lack of planning, not accounting for all weights, using excavators improperly as cranes, wind speed, and not
This document outlines procedures for safe lifting operations. It describes the objectives of lifting operation training which are to list major crane accident causes, describe pre-lift planning, state precautions around power lines, and explain ways to eliminate hazards. It details roles and responsibilities of managers, supervisors, riggers and others to ensure lifts are planned and executed safely. The procedures section specifies requirements for lift planning, equipment inspection, communication, and restrictions during high winds or near power lines.
The centre of gravity (CG) is the point where the entire weight of a body or system of bodies is concentrated so that if supported at this point the body or system would remain in static equilibrium in any position. It is important to position the crane hook directly over the CG of a load for stability during lifting operations. Lifting a load with an offset CG can cause the load to shift until balance is restored with the CG below the hook. When lifting loads with an offset CG, one sling leg will take more of the load weight than the other, so the sling SWL should be based on the full load weight on one leg. Careful lifting is required as loads with an offset CG could kick in an unexpected manner once lifted
The document discusses ASME B30.5, the safety standard for mobile and locomotive cranes. It provides definitions for key terms, the scope of equipment covered, and requirements for load ratings, construction, and characteristics. The standard requires load rating charts showing the full range of rated capacities based on factors like boom length, outrigger position, and radius. The charts must be clearly displayed and include warnings or limitations. Requirements are provided for load ratings determined by stability or structural competence, and diagrams must be supplied by the manufacturer.
16 Scaffolding (Temporary Works) Risk Assessment Templates
Access to work areas by personnel and plant.
Scaffold Material delivery to work area;
Scaffold design and erection standards
(Classified as Temporary Structure)
Scaffold erection
(Classified as Temporary Structure)
Dismantling of scaffold
Maintenance of Scaffold
Worker exposure to direct sun whist working on scaffold
(as applicable)
The document provides guidance on hoist and crane operations including inspection, rigging, chain rigging, and overhead crane operation. Key points include inspecting equipment daily for loose or missing parts and proper function of controls and limit switches. When rigging, take up slack slowly, avoid knots in chains, and distribute loads evenly. For overhead crane operation, loads should not be suspended over personnel and movements should be smooth and deliberate without exceeding rated capacities.
This document outlines safety precautions and procedures for crane operations. It establishes requirements for organizing a crane and rigging group with defined roles and responsibilities. It requires crane operators and signalmen to be qualified and trained. It specifies guidelines for crane set up and operation including following approved lift plans, permit requirements, and stopping work if unsafe conditions arise. It defines critical lifts and provides examples. It lists safety precautions for crane and rigging equipment inspections, defects, capacity markings, and color coding for monthly inspections.
This document provides a rigging plan for lifting a 72 ton steam drum at a power plant. It details the preparation work, safety responsibilities, lifting procedures, and erection sequence. The drum will be lifted by winch between grid supports that are 18,000mm apart, eliminating the need to tilt the drum. Temporary supports will be installed to guide the strands and provide access platforms for operators during the lift. The electric winch will lift a load of 7 tons on the drum, but exert 35 tons of force on the pulley during the lift.
The document provides guidelines for erecting steel structures, including:
- Unloading materials using cranes and manually arranging them near installation locations.
- Erecting columns by lifting them into place with cranes, setting them on anchor bolts, and securing with temporary cables until bolts are tightened.
- Assembling rafter members on the ground, installing bracing, and then lifting into place and connecting to erected columns.
- Repeating column and rafter erection to complete frames, ensuring connections are bolted before releasing lifting equipment.
The document provides guidelines for erecting steel structures, including:
- Unloading materials using cranes and manually arranging them near installation locations.
- Erecting columns by lifting them into place with cranes, setting them on anchor bolts, and securing with temporary cables until bolts are tightened.
- Assembling rafter members on the ground, installing bracing, and then lifting into place and connecting to erected columns.
- Repeating column and rafter erection to complete frames, ensuring connections are bolted before releasing lifting equipment.
2 cm-ms-bld-012 - roof fan & natural ventilatorMinh Bui Si
The document provides a method statement for installing roof fans and natural ventilators at the Cai Mep International Container Terminal building project. It outlines the preparation work, survey of fan locations, installation procedures including supporting structure installation and fan mounting, testing plans, safety and environmental protection measures, and management roles and responsibilities. Appendices include work schedules, inspection and testing plans, forms, checklists, and a test report template.
0-GG010-MZ711-00020 Scaffolding Procedure rev.1 .docxKaty A. Beitia G.
The document outlines scaffolding procedures for the Gatun CCGT Project. It details responsibilities for scaffolding work, including requiring the site manager to comply with Panamanian regulations. It also requires training for scaffold users and erectors, and mandates that scaffolds be designed and constructed to support at least four times the planned load. Scaffolds over 15 meters must be engineered and inspected by a competent person. The procedures are intended to ensure the safe erection, use, inspection and dismantling of all scaffolding used on the project.
MS.CPS3 Carport to be designed and installed Rev0.pdfNajiRaheem2
This document outlines the work method statement for designing and installing a carport at CPS3. It includes a 15-step work sequence involving preparing documents, removing an old sunshield, civil works, prefabrication, installation, and handover. Personnel such as engineers, supervisors, riggers, welders, and helpers are identified. Equipment like cranes, manlifts, tools, and PPE are also listed. The methodology states that all personnel will undergo induction and toolbox talks before any work begins under permit.
The document outlines plans for temporary site facilities for the Dasherkandi Sewage Treatment Plant Project. It details the scope of work, organization structure, construction methodology, safety plans, and site layout. Temporary facilities will include site offices, dormitories, workshops, warehouses, and batching plants. The project aims to treat wastewater from several areas of Dhaka to reduce pollution in the Balu River.
Kolligar Situmorang is an electrical and instrumentation technician with over 15 years of experience in engineering, construction, inspection, and commissioning of oil and gas platforms and vessels. He has worked on numerous projects in Indonesia and other countries. His roles have included preparing drawings, inspecting construction progress, testing equipment and systems, and ensuring work is completed per specifications. He is proficient in English and experienced working on international projects.
This method statement outlines the safe procedure for removing sharp edges from internal pipe welds using abrasive tools prior to applying a fusion bond epoxy coating. It details the roles and responsibilities of the site engineer, worksite supervisor, and HSE engineer in overseeing the work. The process involves an individual manually entering the pipe using a crawler trolley with rubber wheels to grind away sharp edges and spatters within 12 meters of the pipe end using a pneumatic grinder. Personal protective equipment and ventilation will be used, and inspections will verify completion. Safety measures such as training, permitting, and emergency planning are also described.
This document is a curriculum vitae for T. Nedumaran, an instrument engineer with over 30 years of experience in instrumentation for oil, gas, petrochemical, and other process industries. It lists his qualifications and certifications, current position as a lead instrument engineer for SNC Lavalin in Saudi Arabia, and previous experience in similar roles for various companies in locations like Singapore, India, and China.
IJRET : International Journal of Research in Engineering and Technology is an international peer reviewed, online journal published by eSAT Publishing House for the enhancement of research in various disciplines of Engineering and Technology. The aim and scope of the journal is to provide an academic medium and an important reference for the advancement and dissemination of research results that support high-level learning, teaching and research in the fields of Engineering and Technology. We bring together Scientists, Academician, Field Engineers, Scholars and Students of related fields of Engineering and Technology
This 3 sentence summary provides an overview of the key information from the document:
The document is a training report submitted by Jasvinder Singh that describes their 60 day training at KEC International Limited in Jaipur. It outlines the various departments at KEC including personnel, time office, project planning, security, pre-production, model assembly, raw material storage, fabrication shops, quality assurance, galvanizing, and tower testing. The report also provides details on the company profile, processes, equipment used, and raw materials for the different manufacturing stages.
This document outlines the project management process for furniture procurement and installation projects. It involves initial scoping of the project, site inspections, budgeting and scheduling. Key steps include design consulting, product specification, ordering, delivery coordination, installation, training and punchlist completion. The project management services are intended to control costs and align the furniture installation with the client's occupancy schedule.
This document provides a summary of experience and qualifications for Khalid Ali Saad Eldin. It details over 26 years of experience in rotating equipment, projects, and inspection of static equipment. It also lists his education in mechanical engineering and various certifications in piping inspection, pressure vessel inspection, storage tank inspection, and welding inspection. Currently he works as a Poly Olefin Inspection Engineer at Qatar Petrochemical Company, where he manages inspection activities and ensures equipment integrity. Previously he worked as a Vibration Engineer and acted as Head of Engineering Department at Gulf Of Suez Petroleum Co.
The document provides a technical specification for plumbing and drainage installation as part of a proposed residential development project. It includes specifications for general requirements, materials and workmanship, testing and commissioning, equipment, and drawings/review procedures. The specification covers 5 parts and includes appendices with drawing lists, spare part lists, demarcation details, and a schedule of rates.
This CV summarizes the applicant's objective of seeking upward mobility in a manufacturing company as a mechanical engineer. It provides personal details and employment history working in supervisory roles in cement production in Saudi Arabia and the Philippines from 1989 to present. Educational background includes a bachelor's degree in mechanical engineering and professional engineer license. Numerous seminars and trainings are listed relating to production, safety, and management. References are also provided.
This document summarizes the requirements for type and production testing of mechanical equipment as outlined in Naval Engineering Standard 362 Issue 3 (Reformatted). It provides details on general requirements, type tests, production tests, and ancillary drives for auxiliary equipment. The standard establishes procedures for testing equipment prior to installation to demonstrate suitability, establish performance characteristics, and set baseline values for production testing. Requirements addressed include test sites, facilities, instrumentation, and documentation of test plans, procedures, and results.
This document provides a project execution plan for a district cooling plant project in Rihan Heights, UAE. Key details include:
- The project involves design, construction, and operation of a 4,000 ton district cooling plant, reticulation network, and energy transfer stations.
- The fast track project is to be completed by May 13, 2011 on a fixed price contract.
- Execution will involve in-house engineering, procurement through central procedures, and subcontracting of packages while ensuring quality and safety standards.
This document provides instructions for creating soil bearing capacity graphs in Microsoft Excel 2007. It introduces the benefits of using the program, which are that soil bearing capacity graphs will appear automatically and data organization will be easier. It then goes through 42 steps with accompanying images to demonstrate how to insert a chart, select and input data, format axes and labels, and customize the overall graph. The goal is to provide a visual guide for analyzing soil test data from probe tests to determine foundation bearing capacity.
Dokumen tersebut merupakan buku panduan penggunaan fitur X-ref pada AutoCAD 2007. Buku ini menjelaskan cara membuat file input dan output, kemudian menggunakan fitur X-ref untuk menghubungkan file-file tersebut. Selain itu, buku ini juga menjelaskan cara menggambar berbagai objek dua dimensi seperti garis, lingkaran, teks, dan dimensi menggunakan AutoCAD 2007.
Ha gun treatment plant + pnup makassar+makalahHaGun Gunawan
Dokumen tersebut membahas tentang HaGun Treatment Plant, suatu sistem pembersih udara yang dirancang untuk menangkap debu dan membersihkan udara hasil pembakaran batubara di industri sebelum dibuang ke lingkungan menggunakan prinsip hujan buatan. Sistem ini diharapkan dapat menanggulangi keterbatasan sistem pembersih udara konvensional.
This document outlines the process for lifting and transporting heavy loads. It discusses gathering dimensional and weight data on the load, reviewing rigging manuals and standards, conducting stress and frame analyses, and developing a lifting plan. It also addresses analyzing risks and costs, agreeing on safe lifting procedures, and monitoring the lifting process. Site conditions like the surface and foundation are assessed along with material delivery and the erection of any needed gantries or cranes. Work plans are made for tasks like cutting, mechanics, civil works, and quality control to ensure safe lifting of the heavy loads.
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The document is a rigging study and lifting plan for a stator generator. It was prepared by HaGun and approved by Susanto. The plan provides dimensions in millimeters and details how to safely lift and transport the stator generator.
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The document describes the HaGun Treatment Plant, which is designed to capture dust and clean air from coal combustion. It works by arresting waste dust from furnaces using low-pressure wet steam in a steam room. The air is then further cleaned in a "raining room" that mimics the cleaning effects of rain. This results in clean air that can be safely released into the environment. The HaGun Treatment Plant aims to solve issues with previous electrostatic precipitator and wet scrubber methods that still left microdust and waste gases contaminating the air. It provides a more effective solution inspired by the air-cleaning effects of natural rain.
The document is a rigging study and lifting plan for a stator generator. It was prepared by HaGun and approved by Susanto. The plan provides dimensions in millimeters and details how to safely lift and transport the stator generator.
The document appears to be a technical drawing or engineering plan titled "Stator Generator Rigging Study and Lifting Plan". It includes details for lifting and moving a large object called a stator generator. The drawing was prepared by HaGun and approved by Susanto as part of the rigging department. It provides dimensions in millimeters for the lifting and rigging study.
Catalyst coo ler north section 18march2014HaGun Gunawan
The document is a rigging study and lifting plan for a catalyst cooler. It was prepared by HaGun and provides dimensions in millimeters. The plan is intended to guide the approved, safe lifting and rigging of the catalyst cooler by the rigging department.
Casing catalyst coo ler north section 18march2014HaGun Gunawan
This document outlines an 11-step plan for lifting a catalyst cooler. It involves using a multi-axle vehicle to position the object on site, lifting it with hydraulic jacks, installing skidding and accessories to move it, tailing it vertically with strand jacks and skidding, and finally lifting the casing into place. The plan provides instructions and a process for safely lifting and installing the catalyst cooler.
The document is a rigging study and lifting plan for a catalyst cooler. It was prepared by HaGun and provides dimensions in millimeters. The plan is intended to guide the approved, checked, designed, and prepared rigging of the catalyst cooler.
Literature Review Basics and Understanding Reference Management.pptxDr Ramhari Poudyal
Three-day training on academic research focuses on analytical tools at United Technical College, supported by the University Grant Commission, Nepal. 24-26 May 2024
Redefining brain tumor segmentation: a cutting-edge convolutional neural netw...IJECEIAES
Medical image analysis has witnessed significant advancements with deep learning techniques. In the domain of brain tumor segmentation, the ability to
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Car accident rates have increased in recent years, resulting in losses in human lives, properties, and other financial costs. An embedded machine learning-based system is developed to address this critical issue. The system can monitor road conditions, detect driving patterns, and identify aggressive driving behaviors. The system is based on neural networks trained on a comprehensive dataset of driving events, driving styles, and road conditions. The system effectively detects potential risks and helps mitigate the frequency and impact of accidents. The primary goal is to ensure the safety of drivers and vehicles. Collecting data involved gathering information on three key road events: normal street and normal drive, speed bumps, circular yellow speed bumps, and three aggressive driving actions: sudden start, sudden stop, and sudden entry. The gathered data is processed and analyzed using a machine learning system designed for limited power and memory devices. The developed system resulted in 91.9% accuracy, 93.6% precision, and 92% recall. The achieved inference time on an Arduino Nano 33 BLE Sense with a 32-bit CPU running at 64 MHz is 34 ms and requires 2.6 kB peak RAM and 139.9 kB program flash memory, making it suitable for resource-constrained embedded systems.
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Method of works install stator generator+strand jack + 07 july2015
1. PT. Escorindo Jasa Prima
METHOD OF WORKS FOR LIFTING
Stator Generator
By Stand Jack and Skid Roller
PLTU KALTIM TELUK BALIKPAPAN 2X110MW
Teluk Balikpapan Kalimantan Timur
Prepared by Review by Approved by Distribution
…
Rigging Engineer
…
…
…
SITE MANAGER
Master : Rigging
Origin : Client
Copies : CONST. DEPT
Rev. No. - BRIEF OF REVISION
Effective Date:
07 July 2015
√
√
√
2. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
2 of 22
REVISI:
-
TABLE OF CONTENT
TABLE OF CONTENT .......................................................................................................... 2
1. GENERAL...................................................................................................................... 3
2. PURPOSE ..................................................................................................................... 3
3. GENERAL NOTE........................................................................................................... 3
4. RESPONSIBILITY ......................................................................................................... 4
5. BASIC REQUIREMENT................................................................................................. 4
6. PREPARATION WORK ................................................................................................. 5
7. ORGANIZATION CHART .............................................................................................. 6
8. STATOR GENERATOR ERECTION SEQUENCE......................................................... 6
9. METHOD OF ERECTION OF STATOR GENERATOR.................................................. 7
10. FLOW CHART STATOR GENERATOR ON BASED.................................................. 8
11. PREPARATION WORKS: .......................................................................................... 9
12. LIFTING TOOLS ........................................................................................................ 9
13. RIGGING VIEW.......................................................................................................... 9
14. RIGGING EQUIPMENT............................................................................................ 19
3. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
3 of 22
REVISI:
-
1. GENERAL
This procedure provides information for the erection of Stator Generator PLTU
KALTIM TELUK BALIKPAPAN 2X110MW Teluk Balikpapan Kalimantan Timur
Project.
2. PURPOSE
This Procedure is to make sure that all people involve in the erection, assembly
and welding of Stator Generator activity understand and familiar to do the work
with quality control system for getting quality result as per client specification
and requirement, drawing, standard and code.
3. GENERAL NOTE
3.1.Inspection
As per the works required inspection, carry out inspection under attendance
of Superintendent / Engineer and as surreally record is result.
3.2.Safety
3.2.1. A safety officer presents all times Safety Briefing.
3.2.2. Job Safety Analysis (JSA) must be carried out for all crane lifts and all
other tasks that have potential risk to personnel of equipment.
3.2.3. Install scaffolding where necessary to install bolt in each beam and
member connection.
3.2.4. Pre lift study before any lifting activity.
3.2.5. Lift briefing and Safety briefing before any lift; assign responsibility to
all personnel involved. (Signalman, Rigger to crane driver, etc.)
3.2.6. Ensure all equipment required for installation is on hand and in
position before lift i.e. Chain blocks, Lever blocks, Podgy, Drifts,
Hammer, and Spanners. Etc.
3.2.7. Tag lines must be used to control lift.
3.2.8. Ground conditions must be ready before activities.
3.2.9. Set up safety rope around lifting area of Stator Generator area and
put notice board entered “KEEP OFF EXCEPT PERSONEL
CONCERNED”.
3.2.10. Lifting equipment should be in certification and tagged.
3.2.11. Crane and other machinery shall be inspected and certified.
3.3.Lifting
All conditions adapted to the Method of Works Install. Prior to
commencement of lifting works, assuredly carry out check of lifting
equipment.
4. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
4 of 22
REVISI:
-
3.4.Assembly and erection
Erection Stator Generator of accordance with the manuals and drawings.
4. RESPONSIBILITY
4.1.Chief Construction
Responsible for the overall planning, coordination and control of erection
work.
4.2.Field Engineer
Responsible for field erection work implementation and maintaining
acceptable quality standard.
4.3.Field Superintendent and Supervisor
Responsible for the actual performance of the erection crew and examine
the actual progress of work to ensure that it fit the drawing, specifications
and standards.
4.4.Quality Control Engineer
Responsible for monitor and inspect the erection activities to ensure it is
being done in compliance with procedure, ITP (Inspection and Test Plant),
drawing, Project specification and other reference standard document and
procedures.
4.5.Supporter Activities
These activities will support by Material Control, Quality Control, Welding
Section, and others section related with these activities.
5. BASIC REQUIREMENT
5.1.Schedule and Planning
Master schedule is usually provided by PT Adhi Karya. The detailed
schedule is prepared by Escorindo Jasa Prima according to his planning
which is based on PT Adhi Karya’s master schedule. The milestone and the
critical path can be identified which require proper planning. The sequence
of erection activities and the resources required is included in the planning.
5.2.Erection Drawing and Erection Manual
Erection drawing and manual usually provided by Vendor. The Field
Engineer and Superintendent shall check all drawings intended for Stator
Generator Erection. All the information required is completed and all
drawings shall be of latest revision.
5.3.Packing List
Packing List shall be provided by Vendor. This included all the listing of
materials, equipment and parts that are supplied.
5. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
5 of 22
REVISI:
-
The Packing List should indicate the quantity of the material and equipment
supplied and its specification as described in the erection drawing. This will
also indicate the size and the total weight of the component and the method
of storage. Also the packing number and material coding is very essential.
5.4.Storage Area and Warehouse
Upon a thorough check on the drawing and the packing list, the quantity of
materials and equipment is already known, including the method of storing,
the size of the storage area and the warehouse can be identifies.
5.5.Resources
Identification of resources is integral part of planning and scheduling is the
most essential part of the basic requirement in undertaking Structure Turbine
House in particular and in all jobs in general. Resources means, the
materials, labor and equipment needed to perform Structure Turbine House
Project.
6. PREPARATION WORK
6.1.Checking of Stator Generator Erection Drawings
This has to be done by the Chief Construction, Field Engineer,
Superintendent and Supervisor to determine the correct resources needed to
perform the job.
6.2.Checking of Client Supplied Material and Equipment
Checking and inspection of the materials and equipment including the spare
parts is to be done by the material control. He will make sure that all
materials, equipment and spare parts received from PT Adhi Karya, conform
to the quantity and the specifications started in the packing list or shipping.
6.3.Checking of Erection Materials, Equipment, Tools and Machinery
In the early stage of planning, these resources had been already identified.
The schedule of mobilization as on planned schedule made by the Chief
Construction and Engineer.
Checking of Labor
Labor requirement for every stage of erection job is prepared by the Chief
Engineer and his erection team, which is in accordance to their planning.
6. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
6 of 22
REVISI:
-
7. ORGANIZATION CHART
8. STATOR GENERATOR ERECTION SEQUENCE
It is assumed in this procedure that before starting the erection of the Stator
Generator, the supporting structure were already erected and checked by others
and clearance to proceed with the Stator Generator System erection had been
obtained.
The following sequences are for reference only. During actual field assembly,
refer to Method of Works Install and erection drawing (Rigging plan).
1. Install HaGun Gantry Crane, according to engineering drawing.
2. Install strand jack on position, according to engineering drawing.
3. Connects strand jack to stator generator by using recommended connector.
4. Lift by slowly stator generator until elevation 11000 mm top of level.
5. Moving horizontal HaGun Gantry Crane from start position to near of
foundation.
6. Replacing long foot to be short foot.
7. Move objet to foundation.
8. Degrading object until true position on the foundation.
9. Disconnect strand jack from stator generator.
10.Finishing works.
ORGANIZATION CHART
Stator Generator
By Stand Jack and Skidding Roller
PLTU KALTIM TELUK BALIKPAPAN 2X110MW
Teluk Balikpapan Kalimantan Timur
7. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
7 of 22
REVISI:
-
9. METHOD OF ERECTION OF STATOR GENERATOR
SRART
Control Position of Stator Generator
to be Lifted by Rigging Supervisor
Cleaning Stator Generator
Inspection Quality
by QC & Safety
NO
Connected all Sling for Lifting
YES
Lifting Stator Generator
by HaGun Gantry Crane
* From ELev. ±0.000
* To ELev. Target
Connected Stator Generator to Foundation
FINISH
METHOD OF
STATEMENT
PREPARINGACTIVITYINSITEERECTIONACTIVITY
8. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
8 of 22
REVISI:
-
10.FLOW CHART STATOR GENERATOR ON BASED
SRART
Control Position of Stator Generator
to be Lifted by Rigging Supervisor
Gantry Load Test, by using
Generator Lifting to elevation 250 mm up to ground floor
Inspection Quality
by QC & Safety
Repair
Lifting Stator Generator
by HaGun Gantry Crane
* From ELev. ±0.000
* To ELev. Target
Sliding Stator Generator
by HaGun Gantry Crane
to the proper position
Stator Generator Base on
Permanent Foundation
FINISH
Move Generator from Temporary
Laydown to Lifting area by Skidding
Stator Generator is Opening Cover
and Visual Check
Quality Inspection
by QC
Vendor Aproval
Connecting Sling to Stator Generator
9. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
9 of 22
REVISI:
-
11.PREPARATION WORKS:
Preparatory works such as strand guides and temporary scaffold access plat
form at top deck steel for jack operators and erectors and other levels access for
watchman at various elevations must be prepared in advance.
12.LIFTING TOOLS
1. Strand Jack capacities 200 ton : 4 unit
2. Skidding capacities 125 ton : 4 unit
3. Gantry capacities 200 ton : 1 unit
13.RIGGING VIEW
Figure 1
10. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
10 of 22
REVISI:
-
Figure 2
11. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
11 of 22
REVISI:
-
Figure 3
12. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
12 of 22
REVISI:
-
Figure 4
13. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
13 of 22
REVISI:
-
Figure 5
14. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
14 of 22
REVISI:
-
Figure 6
15. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
15 of 22
REVISI:
-
Figure 7
16. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
16 of 22
REVISI:
-
Figure 8
17. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
17 of 22
REVISI:
-
Figure 9
18. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
18 of 22
REVISI:
-
Figure 10
19. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
19 of 22
REVISI:
-
14.RIGGING EQUIPMENT
1. Strand Jack
Figure 11
20. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
20 of 22
REVISI:
-
Figure 12
21. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
21 of 22
REVISI:
-
Figure 13
22. PT. Escorindo Jasa Prima
Method of Works for Lifting
Stator Generator By Strand Jack
Document No:
Esco-RIG-HG-001
Date:
07 July 2015
PREPARED BY:
Rigging Department
APPROVED BY:
SITE MANAGER
Pages:
22 of 22
REVISI:
-
2. Skidding
Figure 14