The document provides information on wagon tippler systems (car dumpers) produced by Liaoning Mineral & Metallurgy Group Co., Ltd. It discusses the types of systems, including single, dual, and triple wagon systems. It describes the layouts (run-through and back-turning models), components, and unloading processes. Technical parameters and specifications are provided for the various components like dumpers, positioners, wheel clamps, and safety stops. It also discusses adapting the systems to different railway standards in China and India.
This document describes the key components and operations of a coal handling plant. The plant includes systems for unloading, conveying, crushing, feeding, stacking, weighing, sampling, fire suppression and dust control of coal. It conveys coal through conveyors, feeders, vibratory screens and crushers to stockpiles. Safety systems include pull cords, belt sway switches and zero speed switches. The plant is operated according to safety procedures to start and stop equipment sequentially and check for obstructions and proper functioning of protections.
The document provides details about the construction and working of a coal handling plant (CHP). It discusses key components of a CHP including wagon tipplers for unloading coal, conveyor belts for transporting coal, and three stages of crushers to reduce the size of coal pieces. The operational cycles of bunkering, stacking, and reclaiming coal are also summarized. The CHP properly handles and processes coal from receipt to transferring it to bunkers to supply coal to boiler operations.
This document provides an overview of a coal handling plant (CHP). It discusses the key components and processes within a CHP, including:
- Transportation of coal primarily via railways to the plant.
- Analysis of incoming coal to check quality matches agreements.
- The general layout and flow of coal through the plant via wagon tipplers, conveyor belts, crushers, and bunkers.
- The crushing process uses a three stage system to reduce coal size.
- Operational cycles to bunker, stack, or reclaim coal depending on bunker levels and maintenance needs.
- Key equipment used includes wagon tipplers, conveyor belts, double roll crushers, rotary break
This document provides an overview of the coal handling plant (CHP) at the NTPC Ramagundam power station in India. The NTPC is one of the largest power generation companies in India. The Ramagundam station has an installed capacity of 2,600 MW produced across three stages. Coal is a key fuel source and is transported via conveyors from storage to the plant. The CHP uses various safety systems for the conveyors like pull cord switches, belt sway switches, and chute block switches. It also employs technologies like stacker reclaimers and long travel drives to facilitate coal transportation. The summary provides a high-level view of the key details about NTPC, the Ramagundam plant
This document discusses coal handling plants (CHPs) at thermal power stations. It begins with an introduction to coal and its uses. It then discusses the objectives and general layout of a CHP, including receiving coal via various transportation methods, temporary coal storage, crushing equipment, conveying systems, and auxiliary equipment. Specific equipment like wagon tipplers, conveyor belts, crushers, and feeders are explained. The document concludes with discussing coal analysis, maintenance needs of a CHP, and references.
The document describes the processes involved in a typical coal handling plant. The key processes are: [1] Unloading coal via wagon tipplers or bottom-opening wagons; [2] Feeding the coal using various feeders like belt, apron or vibrating feeders; [3] Screening to size the coal using screens or rollers; [4] Crushing oversized coal using impact, attrition or compression crushers; [5] Stacking and reclaiming coal using stacker-reclaimers; [6] Bunkering coal into storage bins using trippers. Magnetic separators are used to remove tramp iron from the coal flow. The diagram shows the typical flow of coal from
Coal is the primary fuel for electricity production in India, accounting for over 60% of installed generation capacity. Coal is transported to power plants by rail, road, or conveyor belt and stored in stockyards to ensure continuous supply to boilers. The Talwandi Sabo Power Limited plant has an installed capacity of 4,620 MW and a coal handling system designed to receive, stockpile, and feed 2500 tons of coal per hour to the boilers. The system includes wagon tipplers, several types of conveyors, transfer towers, crushers, screens, a stacker-reclaimer, samplers, and other components to efficiently transport and store the 10 lakh ton coal capacity needed to power the plant
This document describes the key components and operations of a coal handling plant. The plant includes systems for unloading, conveying, crushing, feeding, stacking, weighing, sampling, fire suppression and dust control of coal. It conveys coal through conveyors, feeders, vibratory screens and crushers to stockpiles. Safety systems include pull cords, belt sway switches and zero speed switches. The plant is operated according to safety procedures to start and stop equipment sequentially and check for obstructions and proper functioning of protections.
The document provides details about the construction and working of a coal handling plant (CHP). It discusses key components of a CHP including wagon tipplers for unloading coal, conveyor belts for transporting coal, and three stages of crushers to reduce the size of coal pieces. The operational cycles of bunkering, stacking, and reclaiming coal are also summarized. The CHP properly handles and processes coal from receipt to transferring it to bunkers to supply coal to boiler operations.
This document provides an overview of a coal handling plant (CHP). It discusses the key components and processes within a CHP, including:
- Transportation of coal primarily via railways to the plant.
- Analysis of incoming coal to check quality matches agreements.
- The general layout and flow of coal through the plant via wagon tipplers, conveyor belts, crushers, and bunkers.
- The crushing process uses a three stage system to reduce coal size.
- Operational cycles to bunker, stack, or reclaim coal depending on bunker levels and maintenance needs.
- Key equipment used includes wagon tipplers, conveyor belts, double roll crushers, rotary break
This document provides an overview of the coal handling plant (CHP) at the NTPC Ramagundam power station in India. The NTPC is one of the largest power generation companies in India. The Ramagundam station has an installed capacity of 2,600 MW produced across three stages. Coal is a key fuel source and is transported via conveyors from storage to the plant. The CHP uses various safety systems for the conveyors like pull cord switches, belt sway switches, and chute block switches. It also employs technologies like stacker reclaimers and long travel drives to facilitate coal transportation. The summary provides a high-level view of the key details about NTPC, the Ramagundam plant
This document discusses coal handling plants (CHPs) at thermal power stations. It begins with an introduction to coal and its uses. It then discusses the objectives and general layout of a CHP, including receiving coal via various transportation methods, temporary coal storage, crushing equipment, conveying systems, and auxiliary equipment. Specific equipment like wagon tipplers, conveyor belts, crushers, and feeders are explained. The document concludes with discussing coal analysis, maintenance needs of a CHP, and references.
The document describes the processes involved in a typical coal handling plant. The key processes are: [1] Unloading coal via wagon tipplers or bottom-opening wagons; [2] Feeding the coal using various feeders like belt, apron or vibrating feeders; [3] Screening to size the coal using screens or rollers; [4] Crushing oversized coal using impact, attrition or compression crushers; [5] Stacking and reclaiming coal using stacker-reclaimers; [6] Bunkering coal into storage bins using trippers. Magnetic separators are used to remove tramp iron from the coal flow. The diagram shows the typical flow of coal from
Coal is the primary fuel for electricity production in India, accounting for over 60% of installed generation capacity. Coal is transported to power plants by rail, road, or conveyor belt and stored in stockyards to ensure continuous supply to boilers. The Talwandi Sabo Power Limited plant has an installed capacity of 4,620 MW and a coal handling system designed to receive, stockpile, and feed 2500 tons of coal per hour to the boilers. The system includes wagon tipplers, several types of conveyors, transfer towers, crushers, screens, a stacker-reclaimer, samplers, and other components to efficiently transport and store the 10 lakh ton coal capacity needed to power the plant
The document summarizes the coal handling plant for a thermal power plant consisting of 4 units of 250MW capacity each. The coal will be brought from nearby captive mines via conveyor system and dumpers. The coal handling plant equipment will operate 24 hours a day and includes coal crushers, conveyor belts, stacker-reclaimers, tripper, samplers, and magnets to transport coal from the mines to the plant bunkers and boilers. Instrumentation and controls are provided to monitor and operate the coal handling system.
The document summarizes the key components and operation of a coal handling plant (CHP) at a thermal power station. The CHP receives raw coal and processes it before transporting it to the boiler. The main components of the CHP include hoppers, conveyor belts, vibrating feeders, crushers, bunkers, and magnetic separators. The coal is crushed into a powder, stored in bunkers, then fed into the boiler to generate steam and power. Safety is also emphasized, including inspecting equipment for damage and implementing various non-destructive testing methods.
This document provides information about a coal handling plant (CHP) at a thermal power station. It discusses the general working of a CHP, including receiving coal via various transportation methods, crushing and sizing the coal, storing it in bunkers, and sending it to coal mills. It also addresses common problems faced at CHPs, such as design issues, rainy season challenges, and equipment failures. Additionally, the document proposes designs for managing dust at different stages of the CHP process, such as adding moisture, using wind breaks, compacting coal piles, and installing a wet dust collector to reduce water consumption and dust levels.
This provides General layout of thermal power plant , Coal Handling Plant and its cycles, Unloading, Conveying ,Crushing and Crushing Mechanism In Coal handling plant
Best ppt on Presentation on Coal handling plantRonak Thakare
This document provides an overview of a coal handling plant (CHP). It discusses what a CHP is, its main components and processes. The key points covered include:
- A CHP receives, processes, stores and feeds coal to boiler bunkers. Its main goal is to supply processed coal to coal mills.
- Main components include wagon tipplers, crushers, conveyor belts, feeders, bunkers. Coal is crushed to different sizes and conveyed to bunkers or storage.
- Coal is transported mainly by railways in wagons and unloaded by rotary or side tipplers. Other transport modes include ropeways and road.
- The document outlines the operating sequence,
The document summarizes a summer training report submitted by Raghwendra K. Pathak at the Uttar Pradesh Rajya Vidhyut Utpadan Nigam Limited thermal power plant in Anpara, Sonebhadra, India. The report provides an overview of the power plant, including its layout, products, production process, and key components like the turbine and coal handling systems. It also includes Pathak's training diary detailing the areas and systems studied over the course of the summer training period from May 7th to June 6th, 2014.
importance of coal handling system, necessity and requirement of coal handling system, various transportation means, methods and equipment's, advantages and disadvantages of various methods, coal unloading videos.
The presentation describes the coal Handling Plant of a Thermal Power Station. The auxiliaries and operational features also described in the slides. It is very useful for the new trainee engineers in the Power Plants
Hydraulic system vertical roller mill operationlinxiaomo
The hydraulic system of vertical mill is an important system, the main function of the hydraulic system is to break the grinding roller, which is when the internal grinding cavity wear parts wear, can stop open on both sides of the grinding roller mill, to replace the inside parts or repair. This type vertical roller mill including the hydraulic station, connected with the grinding roller cylinder and hydraulic pipe and other components.
This document discusses coal handling and combustion in thermal power plants. It begins by describing the different types of coal and methods of coal analysis. It then covers various aspects of coal handling including transportation, unloading, storage, and in-plant transfer systems. Specific equipment for crushing, conveying, and elevating coal are explained. The document concludes with a discussion of coal storage, preparation plants, and solid fuel combustion using different types of stokers.
This document provides an overview of the Kota Super Thermal Power Plant located on the left bank of the Chambal River in India. It has a total generation capacity of 1240MW produced across 6 units. The plant uses coal as its fuel, which is supplied via rail from nearby mines. The coal handling plant is described as the "heart" of the thermal power plant. It unloads coal from trains, crushes it to 20mm size, conveys it using belt conveyors and feeders, and stores it until it is used as fuel in the plant's boilers.
This presentation provides an overview of the Jagadhri railway workshop located in Yamuna Nagar, India. It discusses the workshop's history and expansion over time. It also briefly describes different types of rolling stock used in railways like locomotives, coaches, wagons, and EMU and DMU trains. The presentation then covers important components of rolling stock like bodies, running gear, bogies, wheels, axles, and springs. It discusses maintenance processes like wheel fitting, axle grinding, ultrasonic testing, and repairs to brake cylinders and air brakes. Finally, it lists the main parts of a train trolley.
Thermal power plants generate 75% of India's electricity and have an installed capacity of over 93,000 MW. They work by burning fuel to create steam that spins turbines connected to generators. The main components are the fuel handling unit, boiler, turbine, generator, and cooling system. Fuel is burned in the boiler to create high-pressure steam, which drives the turbine before being condensed into water and recirculated or discharged.
indian railway gorakhpur training report for mechanical engineering 2016 Kishan Bharti
This document is an industrial training report submitted by Kishan Bharti during a 4-week training at the North Eastern Railway workshop in Gorakhpur, India. It includes an introduction to Indian Railways, a description of various shops in the workshop including machine, painting, wheel, spring, heat treatment, and jig and fixture shops. It also summarizes the processes, equipment, and activities carried out in each shop during Kishan's training period at the workshop.
The document discusses the capacity and layout of a coal handling plant (CHP) that transports coal from mines to coal bunkers. The CHP has two stages. Stage 1 has a capacity of 1250 MT/hr and Stage 2 has a capacity of 1500 MT/hr. The CHP uses conveyor belts, coal crushers, bunkers, and stockpiles to receive, transport, store and reclaim coal to maintain the correct size, quality and quantity of coal. It also provides specifications for the conveyor belts, crushers, drives and other equipment used in the CHP.
This document discusses coal handling and storage methods at power plants. It describes dead storage or outdoor storage where coal is piled directly on the ground, which can lead to spontaneous combustion from oxidation. It then discusses live storage in vertical bunkers or silos. The document also covers different types of stoker firing systems used to burn coal, including travelling grate stokers and spreader stokers. Finally, it summarizes pulverized coal firing and the unit and central systems used to grind, dry and feed pulverized coal to boiler furnaces.
This document is an industrial training report submitted by Sumit Kumar from the Institute of Engineering & Management in Kolkata. It describes his 15-day summer training at the Carriage and Wagon Workshop of the Northeast Frontier Railway in New Bongaigaon, Assam. The report provides details about the workshop, including its history and activities. It also describes several shops within the workshop such as the wheel turning shop, roller bearing shop, machine shop, and others. In each shop, it outlines the key machines and operations.
The document provides information about Deepak Singh's summer training at Diesel Locomotive Works (DLW) in Varanasi, India. It discusses:
1) DLW was established in 1956 to manufacture diesel-electric locomotives for Indian Railways. It produces 250 locomotives annually and has supplied locomotives internationally.
2) Deepak Singh was allotted to several workshops including Rotor shop, Welding shop, and Light Machine shop. He learned about welding processes, CNC machines, and turbocharger assembly in these workshops.
3) The Rotor shop manufactures components of the turbocharger which is critical to providing fresh air intake and improving the power and efficiency of locomotive engines.
The document expresses gratitude to various people who helped with a vocational training project at a thermal power plant. It thanks the officials who oversaw the project, the power plant staff who provided assistance, and the author's parents for their support in completing the project successfully.
The document describes Liaoning Mineral & Metallurgy Group Co., Ltd.'s loading station systems for bulk material handling. The company provides several types of precision loading systems including train loading systems, truck loading systems, and loading systems under silos. Key features include high loading capacities up to 5500 tonnes per hour, high loading accuracies of ±0.1% or better, and automation that allows continuous loading with minimal human operation. The systems are suited for loading various bulk materials across industries such as coal, ore, cement, grains and more.
rapid load out station for both train & truck loading application or combination loading of train & truck with high accuracy, high speed, high capacity, fully automatic operation, unique wagon compaction system
The document summarizes the coal handling plant for a thermal power plant consisting of 4 units of 250MW capacity each. The coal will be brought from nearby captive mines via conveyor system and dumpers. The coal handling plant equipment will operate 24 hours a day and includes coal crushers, conveyor belts, stacker-reclaimers, tripper, samplers, and magnets to transport coal from the mines to the plant bunkers and boilers. Instrumentation and controls are provided to monitor and operate the coal handling system.
The document summarizes the key components and operation of a coal handling plant (CHP) at a thermal power station. The CHP receives raw coal and processes it before transporting it to the boiler. The main components of the CHP include hoppers, conveyor belts, vibrating feeders, crushers, bunkers, and magnetic separators. The coal is crushed into a powder, stored in bunkers, then fed into the boiler to generate steam and power. Safety is also emphasized, including inspecting equipment for damage and implementing various non-destructive testing methods.
This document provides information about a coal handling plant (CHP) at a thermal power station. It discusses the general working of a CHP, including receiving coal via various transportation methods, crushing and sizing the coal, storing it in bunkers, and sending it to coal mills. It also addresses common problems faced at CHPs, such as design issues, rainy season challenges, and equipment failures. Additionally, the document proposes designs for managing dust at different stages of the CHP process, such as adding moisture, using wind breaks, compacting coal piles, and installing a wet dust collector to reduce water consumption and dust levels.
This provides General layout of thermal power plant , Coal Handling Plant and its cycles, Unloading, Conveying ,Crushing and Crushing Mechanism In Coal handling plant
Best ppt on Presentation on Coal handling plantRonak Thakare
This document provides an overview of a coal handling plant (CHP). It discusses what a CHP is, its main components and processes. The key points covered include:
- A CHP receives, processes, stores and feeds coal to boiler bunkers. Its main goal is to supply processed coal to coal mills.
- Main components include wagon tipplers, crushers, conveyor belts, feeders, bunkers. Coal is crushed to different sizes and conveyed to bunkers or storage.
- Coal is transported mainly by railways in wagons and unloaded by rotary or side tipplers. Other transport modes include ropeways and road.
- The document outlines the operating sequence,
The document summarizes a summer training report submitted by Raghwendra K. Pathak at the Uttar Pradesh Rajya Vidhyut Utpadan Nigam Limited thermal power plant in Anpara, Sonebhadra, India. The report provides an overview of the power plant, including its layout, products, production process, and key components like the turbine and coal handling systems. It also includes Pathak's training diary detailing the areas and systems studied over the course of the summer training period from May 7th to June 6th, 2014.
importance of coal handling system, necessity and requirement of coal handling system, various transportation means, methods and equipment's, advantages and disadvantages of various methods, coal unloading videos.
The presentation describes the coal Handling Plant of a Thermal Power Station. The auxiliaries and operational features also described in the slides. It is very useful for the new trainee engineers in the Power Plants
Hydraulic system vertical roller mill operationlinxiaomo
The hydraulic system of vertical mill is an important system, the main function of the hydraulic system is to break the grinding roller, which is when the internal grinding cavity wear parts wear, can stop open on both sides of the grinding roller mill, to replace the inside parts or repair. This type vertical roller mill including the hydraulic station, connected with the grinding roller cylinder and hydraulic pipe and other components.
This document discusses coal handling and combustion in thermal power plants. It begins by describing the different types of coal and methods of coal analysis. It then covers various aspects of coal handling including transportation, unloading, storage, and in-plant transfer systems. Specific equipment for crushing, conveying, and elevating coal are explained. The document concludes with a discussion of coal storage, preparation plants, and solid fuel combustion using different types of stokers.
This document provides an overview of the Kota Super Thermal Power Plant located on the left bank of the Chambal River in India. It has a total generation capacity of 1240MW produced across 6 units. The plant uses coal as its fuel, which is supplied via rail from nearby mines. The coal handling plant is described as the "heart" of the thermal power plant. It unloads coal from trains, crushes it to 20mm size, conveys it using belt conveyors and feeders, and stores it until it is used as fuel in the plant's boilers.
This presentation provides an overview of the Jagadhri railway workshop located in Yamuna Nagar, India. It discusses the workshop's history and expansion over time. It also briefly describes different types of rolling stock used in railways like locomotives, coaches, wagons, and EMU and DMU trains. The presentation then covers important components of rolling stock like bodies, running gear, bogies, wheels, axles, and springs. It discusses maintenance processes like wheel fitting, axle grinding, ultrasonic testing, and repairs to brake cylinders and air brakes. Finally, it lists the main parts of a train trolley.
Thermal power plants generate 75% of India's electricity and have an installed capacity of over 93,000 MW. They work by burning fuel to create steam that spins turbines connected to generators. The main components are the fuel handling unit, boiler, turbine, generator, and cooling system. Fuel is burned in the boiler to create high-pressure steam, which drives the turbine before being condensed into water and recirculated or discharged.
indian railway gorakhpur training report for mechanical engineering 2016 Kishan Bharti
This document is an industrial training report submitted by Kishan Bharti during a 4-week training at the North Eastern Railway workshop in Gorakhpur, India. It includes an introduction to Indian Railways, a description of various shops in the workshop including machine, painting, wheel, spring, heat treatment, and jig and fixture shops. It also summarizes the processes, equipment, and activities carried out in each shop during Kishan's training period at the workshop.
The document discusses the capacity and layout of a coal handling plant (CHP) that transports coal from mines to coal bunkers. The CHP has two stages. Stage 1 has a capacity of 1250 MT/hr and Stage 2 has a capacity of 1500 MT/hr. The CHP uses conveyor belts, coal crushers, bunkers, and stockpiles to receive, transport, store and reclaim coal to maintain the correct size, quality and quantity of coal. It also provides specifications for the conveyor belts, crushers, drives and other equipment used in the CHP.
This document discusses coal handling and storage methods at power plants. It describes dead storage or outdoor storage where coal is piled directly on the ground, which can lead to spontaneous combustion from oxidation. It then discusses live storage in vertical bunkers or silos. The document also covers different types of stoker firing systems used to burn coal, including travelling grate stokers and spreader stokers. Finally, it summarizes pulverized coal firing and the unit and central systems used to grind, dry and feed pulverized coal to boiler furnaces.
This document is an industrial training report submitted by Sumit Kumar from the Institute of Engineering & Management in Kolkata. It describes his 15-day summer training at the Carriage and Wagon Workshop of the Northeast Frontier Railway in New Bongaigaon, Assam. The report provides details about the workshop, including its history and activities. It also describes several shops within the workshop such as the wheel turning shop, roller bearing shop, machine shop, and others. In each shop, it outlines the key machines and operations.
The document provides information about Deepak Singh's summer training at Diesel Locomotive Works (DLW) in Varanasi, India. It discusses:
1) DLW was established in 1956 to manufacture diesel-electric locomotives for Indian Railways. It produces 250 locomotives annually and has supplied locomotives internationally.
2) Deepak Singh was allotted to several workshops including Rotor shop, Welding shop, and Light Machine shop. He learned about welding processes, CNC machines, and turbocharger assembly in these workshops.
3) The Rotor shop manufactures components of the turbocharger which is critical to providing fresh air intake and improving the power and efficiency of locomotive engines.
The document expresses gratitude to various people who helped with a vocational training project at a thermal power plant. It thanks the officials who oversaw the project, the power plant staff who provided assistance, and the author's parents for their support in completing the project successfully.
The document describes Liaoning Mineral & Metallurgy Group Co., Ltd.'s loading station systems for bulk material handling. The company provides several types of precision loading systems including train loading systems, truck loading systems, and loading systems under silos. Key features include high loading capacities up to 5500 tonnes per hour, high loading accuracies of ±0.1% or better, and automation that allows continuous loading with minimal human operation. The systems are suited for loading various bulk materials across industries such as coal, ore, cement, grains and more.
rapid load out station for both train & truck loading application or combination loading of train & truck with high accuracy, high speed, high capacity, fully automatic operation, unique wagon compaction system
The document discusses several machine vision and automation systems for counting, sorting, and inspecting steel bars and rods.
The LMM-1000 system uses machine vision to automatically count steel bars moving along a conveyor. The LMM-2000 system guides a steel splitting machine to separate bars based on the LMM-1000 count. The LMM-3000 system allows for recounting bundled bars using static image recognition.
Additional systems perform online inspection of steel rods and wires for defects and dimensions using high-speed cameras, and provide visual monitoring and prevention at key areas using intelligent vision analysis.
Oscar Jamuar Design Report in McNally sayaji Engineering LimitedOscar Jamuar
This document provides a report on the design study of various coal refining equipment conducted by Oscar Jamuar at McNally Sayaji Engineering Limited. It summarizes the key equipment used in coal beneficiation processes including conveyors, feeders, screens, crushers, and mills. Specific equipment discussed include bucket elevators, belt trippers, apron feeders, vibrating grizzly feeders, reciprocating feeders, disc feeders, inclined vibrating screens, linear motion screens, and high particle acceleration screens. The working and design features of each type of equipment are described.
The document provides an overview of the RMHS & Logistics Department at Tata Steel's Kalinganagar Project in Odisha, India. It describes the department's goal of supplying raw materials to production departments while minimizing environmental and social impacts. It outlines the inbound and outbound logistics processes, including receiving iron ore, coal, and limestone by rail and ship and distributing finished steel products. It also includes an overview of the Tata Steel company and details about the Kalinganagar project and layout.
Boiler & co generation presentation finished not yetRohit Meena
This document provides information on boilers and co-generation plants. It discusses the major components of such plants including the DM plant, coal handling plant, co-generation plant, ash handling plant, and boiler. It then goes into details about boilers, describing them as enclosed pressure vessels that use combustion to heat water into steam. It discusses the process of evaporation and how steam volume increases. The document also provides information on co-generation plants, fluidized bed combustion boilers, auxiliary equipment for boilers like fans and heat exchangers, and details on pulverized fuel boilers.
The document discusses the construction and working of a coal handling plant (CHP). It first introduces what a CHP is and its objectives. It then discusses coal availability and transportation in India, with most coal transported via rail. The general layout of a CHP is shown including equipment like wagon tipplers, conveyor belts, crushers, bunkers and the operational cycles of bunkering, stacking and reclaiming. Key aspects of equipment like tipplers, conveyor belts and the three stage crushing system are described.
The Research Designs and Standards Organisation (RDSO) was established in 1952 as the Railway Testing and Research Centre to investigate railway problems and provide design criteria and concepts in India. It was renamed RDSO in 1957. A turbocharger uses a turbine powered by exhaust gases to drive a compressor that increases the pressure and density of air supplied to an internal combustion engine, allowing it to burn more fuel and produce more power. Turbochargers force more air into the engine cylinders than normally aspirated engines through a compressor powered by a turbine on a shared shaft. They provide more efficient air-fuel mixing and allow locomotives to gain power without increasing engine size, but have disadvantages like turbo lag and increased complexity.
The document discusses the key components of a diesel locomotive. It states that the diesel engine powers the locomotive and can rotate at up to 1,000 rpm, turning the alternator's shaft. The alternator then generates electricity which is used by the traction motors to power the wheels of the locomotive. Some of the main components discussed include the diesel engine, alternator, traction motors, electronic controls, batteries, and various cooling and air systems.
The document describes belt conveyors, which are used to transport material horizontally or at an incline. The key components of a belt conveyor are the belt, idlers, pulleys, drive system, and supporting structure. The belt is made of fabric or steel cords encased in rubber and forms the moving surface. Idlers support the belt and come in different types. Pulleys move and control the tension of the belt. The drive system powers the pulleys. Belt conveyors are widely used in mining and processing plants to efficiently transport materials over long distances at high capacities.
Solar energy has proven its wroth of alternative energy.
Freehand available everywhere, the power of the sun can be employed to power Everything like cell phones and mp3 players.
The Diesel Locomotive Works (DLW) in Varanasi, India, is a production unit owned by Indian Railways, that manufactures diesel-electric locomotives and its spare parts. It is the largest diesel-electric locomotive manufacturer in India.
Locally it is called as D L W.
The document provides safety guidelines for operating overhead cranes and hoists. It states that equipment must be inspected daily for wear and damage before use. Operators should warn others to stay clear of lifted loads and never allow anyone to ride the hook or load. Loads should be lifted smoothly and directly below the hoist, and brakes should be tested when lifting near maximum capacity. Cranes should never be left unattended while loads are suspended.
This document provides specifications for top running bridge and gantry type multiple girder electric overhead traveling cranes. It outlines six classes of crane service and discusses factors to consider for crane and building design such as minimum clearances, runway requirements, and load ratings. Formulas are provided for calculating mean effective load based on crane configuration and weight.
This document provides safety guidelines and inspection procedures for operating overhead cranes and hoists. It outlines requirements for crane operators such as inspecting equipment daily, keeping loads clear of personnel, and not exceeding load limits. Detailed procedures are provided for inspecting wire ropes, hooks, blocks, slings and other components for damage or wear. The document stresses following safety practices and not operating cranes that are tagged as unsafe until repairs are made.
Elevators are essential for making tall buildings usable as they transport people between floors. There are two main types of elevators - hydraulic elevators which use fluid pressure to lift the car, and roped elevators which use cables and counterweights. Hydraulic elevators can generate strong lifting force from a relatively weak pump but are large, expensive and inefficient. Roped elevators use an electric motor to wind and unwind cables attached to the car and counterweight, balancing their weights as the car moves. Elevator safety systems like brakes and governors help stop the car in emergencies.
This document discusses different methods of transportation used in underground mines. It describes various systems used for ore transportation including rope haulages, conveyor belts, shuttle cars and locomotives. Rope haulages can be direct, endless or use a main and tail configuration. Conveyor belts include standard belt conveyors as well as scraper and rigid chain variants. The document also covers different means of transporting miners, specifically man riding chair lifts and car systems, providing examples of specifications from mines in India.
This document describes a student's final year project to develop an electric train system using a microcontroller. The project aims to learn about train traction systems, gate control systems, passenger loading processes, and obstacle avoidance operations. The train will move along the track and stop at stations for loading. It will detect obstacles using ultrasonic sensors and gates using IR sensors. When developed, the system will help address Malaysia's lack of expertise in locomotive industries.
This document discusses vertical transportation systems such as elevators and escalators. It provides details on different types of elevator systems including hydraulic, traction, and gearless traction. It describes the key components of these systems such as the pump, cylinder, sheave, and counterweight. The document also covers escalator components like the truss, track system, drive machine, and brakes. Additional topics include dock levelers and the principles of hydraulic and pneumatic systems.
The document discusses elevators and their control systems. Elevators use either hydraulic or cable systems to move between floors of buildings. Hydraulic elevators use a hydraulic ram and piston to lift an elevator car, while cable systems use steel ropes connected to a sheave and counterweight. Elevator control systems are real-time, distributed, and embedded to safely move passengers based on button inputs and current floor. Safety systems like brakes and shock absorbers prevent elevator accidents in case of cable or power failures.
This document discusses railway points and crossings, which are special arrangements used to divert trains from one track to another. It describes the components of points/switches and crossings and their functions. It also summarizes the different types of railway stations including wayside, junction, and terminal stations. Additionally, it outlines the typical layout and facilities provided at stations, yards, and sidings used for sorting trains and cargo.
Contain a brief description of the type of parking with in depth discussion and its logistics on-ramps, stilt parking, and automated parking systems with a case study.
This document discusses various aspects of railway track components and infrastructure. It describes points and crossings which allow trains to divert from one track to another. It then discusses turnouts, their components like stock rails, crossings, and operating mechanisms. The document covers different types of stations like wayside, junction and terminal stations. It also discusses railway yards for passengers, goods, and locomotives along with their key facilities.
Indian Railways operates one of the largest railway networks in the world comprising over 115,000 km of track. It carries over 8 billion passengers annually as of 2014-2015. Electric locomotives draw power from overhead lines or third rails to power traction motors that turn the wheels. They convert the high voltage power collected to usable power for the motors through various components like transformers, rectifiers, and inverters. Electric locomotives do not have a conventional engine but rely on electric power from external sources to power the traction motors.
This document discusses tilting trains, which can travel faster around curves by tilting the passenger cars into the turns, similar to how planes bank during turns. It covers the history of tilting train development starting in the late 1930s, different tilting mechanisms (passive vs. active), how tilting helps passenger comfort, and the relevance for India given its large rail network and need for higher-speed travel. Tilting trains could significantly increase average speeds on India's conventional tracks without requiring costly new dedicated high-speed lines.
This document discusses two types of maglev trains: Transrapid trains which levitate using electromagnets and propel using linear induction motors, and Chuo Shinkansen trains which levitate and propel using superconducting magnets cooled with liquid helium. Transrapid projects in China and potential projects in the US are mentioned. While maglev trains offer benefits like high speed, safety, comfort and minimal environmental impact, their development has faced challenges related to cost.
The document proposes a train design called Nirel that can detach bogies at stations to allow passengers to disembark while the main train continues. This would save energy by avoiding full train stops. The design involves detaching bogies 200m before stations, decelerating them to reach the platform, and using a trailing metro engine to collect the bogies. Significant energy savings are possible at each station along with other benefits like reduced travel time and increased passenger comfort. Specifications of couplers, dampers and valves are provided to enable the braking and bogie attachment/detachment mechanisms.
This document discusses two types of maglev trains - Transrapid trains which use electromagnets on the underside of the train to levitate 1 cm above the track, and Chuo Shinkansen trains which use superconducting magnets cooled with liquid helium or nitrogen to levitate 10 cm above the track. Maglev trains can reach speeds up to 350 mph, experience little friction or noise, and use 20-40% less energy than other modes of transportation. While countries like China are building maglev systems, other governments remain wary of the high costs to implement the technology.
This document discusses two types of maglev trains - Transrapid trains which use electromagnets on the underside of the train to levitate 1 cm above the track, and Chuo Shinkansen trains which use superconducting magnets cooled with liquid helium or nitrogen to levitate 10 cm above the track. Maglev trains can reach speeds up to 350 mph, experience little friction or noise, and use 20-40% less energy than other modes of transportation. While countries like China are building maglev systems, other governments remain wary of the high costs to implement the technology.
This document discusses two types of maglev trains - Transrapid trains which use electromagnets on the underside of the train to levitate 1 cm above the track, and Chuo Shinkansen trains which use superconducting magnets cooled with liquid helium or nitrogen to levitate 10 cm above the track. Maglev trains can reach speeds up to 350 mph, experience little friction or noise, and use 20-40% less energy than other modes of transportation. While countries like China are building maglev systems, other governments remain wary of the high costs to implement the technology.
This document discusses two types of maglev trains - Transrapid trains which use electromagnets on the underside of the train to levitate 1 cm above the track, and Chuo Shinkansen trains which use superconducting magnets cooled with liquid helium or nitrogen to levitate 10 cm above the track. Maglev trains can reach speeds up to 350 mph, experience little friction or noise, and use 20-40% less energy than other modes of transportation. While countries like China are building maglev systems, other governments remain wary of the high costs to implement the technology.
This document discusses two types of maglev trains - Transrapid trains which use electromagnets on the underside of the train to levitate 1 cm above the track, and Chuo Shinkansen trains which use superconducting magnets cooled with liquid helium or nitrogen to levitate 10 cm above the track. Maglev trains can reach speeds up to 350 mph, experience little friction or noise, and use 20-40% less energy than other modes of transportation. While countries like China are building maglev systems, other governments remain wary of the high costs to implement the technology.
The document provides information about the UNIMAT SH MFI tamping machine. It has a split head tamping unit that allows it to tamp points and crossings. It uses a 3-point measuring system for alignment and includes a lifting and lining unit. The machine is powered by a 405HP engine and uses a hydrodynamic transmission with an 8-speed ZF gearbox. It has five axles and can tamp in both forward and reverse directions. Key functions include lifting, aligning, and packing tracks and switches to maintain proper track geometry.
The document provides information about a summer training project conducted from June 11 to July 10, 2015 at the Electric Loco Shed in Kanpur, India. It discusses the history and components of Indian Railways and the Kanpur loco shed. Specifically, it covers the types of locomotives held at the Kanpur shed, the main sections of the shed, locomotive symbols and gauges, bogie and spring components, and analyzes the failure of springs in locomotives.
Similar to wagon tippler with side arm charger - LMM GROUP (20)
Part 2 Deep Dive: Navigating the 2024 Slowdownjeffkluth1
Introduction
The global retail industry has weathered numerous storms, with the financial crisis of 2008 serving as a poignant reminder of the sector's resilience and adaptability. However, as we navigate the complex landscape of 2024, retailers face a unique set of challenges that demand innovative strategies and a fundamental shift in mindset. This white paper contrasts the impact of the 2008 recession on the retail sector with the current headwinds retailers are grappling with, while offering a comprehensive roadmap for success in this new paradigm.
How MJ Global Leads the Packaging Industry.pdfMJ Global
MJ Global's success in staying ahead of the curve in the packaging industry is a testament to its dedication to innovation, sustainability, and customer-centricity. By embracing technological advancements, leading in eco-friendly solutions, collaborating with industry leaders, and adapting to evolving consumer preferences, MJ Global continues to set new standards in the packaging sector.
Zodiac Signs and Food Preferences_ What Your Sign Says About Your Tastemy Pandit
Know what your zodiac sign says about your taste in food! Explore how the 12 zodiac signs influence your culinary preferences with insights from MyPandit. Dive into astrology and flavors!
How are Lilac French Bulldogs Beauty Charming the World and Capturing Hearts....Lacey Max
“After being the most listed dog breed in the United States for 31
years in a row, the Labrador Retriever has dropped to second place
in the American Kennel Club's annual survey of the country's most
popular canines. The French Bulldog is the new top dog in the
United States as of 2022. The stylish puppy has ascended the
rankings in rapid time despite having health concerns and limited
color choices.”
Structural Design Process: Step-by-Step Guide for BuildingsChandresh Chudasama
The structural design process is explained: Follow our step-by-step guide to understand building design intricacies and ensure structural integrity. Learn how to build wonderful buildings with the help of our detailed information. Learn how to create structures with durability and reliability and also gain insights on ways of managing structures.
Unveiling the Dynamic Personalities, Key Dates, and Horoscope Insights: Gemin...my Pandit
Explore the fascinating world of the Gemini Zodiac Sign. Discover the unique personality traits, key dates, and horoscope insights of Gemini individuals. Learn how their sociable, communicative nature and boundless curiosity make them the dynamic explorers of the zodiac. Dive into the duality of the Gemini sign and understand their intellectual and adventurous spirit.
Taurus Zodiac Sign: Unveiling the Traits, Dates, and Horoscope Insights of th...my Pandit
Dive into the steadfast world of the Taurus Zodiac Sign. Discover the grounded, stable, and logical nature of Taurus individuals, and explore their key personality traits, important dates, and horoscope insights. Learn how the determination and patience of the Taurus sign make them the rock-steady achievers and anchors of the zodiac.
Easily Verify Compliance and Security with Binance KYCAny kyc Account
Use our simple KYC verification guide to make sure your Binance account is safe and compliant. Discover the fundamentals, appreciate the significance of KYC, and trade on one of the biggest cryptocurrency exchanges with confidence.
Digital Marketing with a Focus on Sustainabilitysssourabhsharma
Digital Marketing best practices including influencer marketing, content creators, and omnichannel marketing for Sustainable Brands at the Sustainable Cosmetics Summit 2024 in New York
3 Simple Steps To Buy Verified Payoneer Account In 2024SEOSMMEARTH
Buy Verified Payoneer Account: Quick and Secure Way to Receive Payments
Buy Verified Payoneer Account With 100% secure documents, [ USA, UK, CA ]. Are you looking for a reliable and safe way to receive payments online? Then you need buy verified Payoneer account ! Payoneer is a global payment platform that allows businesses and individuals to send and receive money in over 200 countries.
If You Want To More Information just Contact Now:
Skype: SEOSMMEARTH
Telegram: @seosmmearth
Gmail: seosmmearth@gmail.com
Understanding User Needs and Satisfying ThemAggregage
https://www.productmanagementtoday.com/frs/26903918/understanding-user-needs-and-satisfying-them
We know we want to create products which our customers find to be valuable. Whether we label it as customer-centric or product-led depends on how long we've been doing product management. There are three challenges we face when doing this. The obvious challenge is figuring out what our users need; the non-obvious challenges are in creating a shared understanding of those needs and in sensing if what we're doing is meeting those needs.
In this webinar, we won't focus on the research methods for discovering user-needs. We will focus on synthesis of the needs we discover, communication and alignment tools, and how we operationalize addressing those needs.
Industry expert Scott Sehlhorst will:
• Introduce a taxonomy for user goals with real world examples
• Present the Onion Diagram, a tool for contextualizing task-level goals
• Illustrate how customer journey maps capture activity-level and task-level goals
• Demonstrate the best approach to selection and prioritization of user-goals to address
• Highlight the crucial benchmarks, observable changes, in ensuring fulfillment of customer needs
At Techbox Square, in Singapore, we're not just creative web designers and developers, we're the driving force behind your brand identity. Contact us today.
At Techbox Square, in Singapore, we're not just creative web designers and developers, we're the driving force behind your brand identity. Contact us today.
Building Your Employer Brand with Social MediaLuanWise
Presented at The Global HR Summit, 6th June 2024
In this keynote, Luan Wise will provide invaluable insights to elevate your employer brand on social media platforms including LinkedIn, Facebook, Instagram, X (formerly Twitter) and TikTok. You'll learn how compelling content can authentically showcase your company culture, values, and employee experiences to support your talent acquisition and retention objectives. Additionally, you'll understand the power of employee advocacy to amplify reach and engagement – helping to position your organization as an employer of choice in today's competitive talent landscape.
Hamster Kombat' Telegram Game Surpasses 100 Million Players—Token Release Sch...
wagon tippler with side arm charger - LMM GROUP
1. Wagon Tippler System
(Car Dumper)
Liaoning Mineral & Metallurgy Group Co., Ltd.
Address: 1310-1312 Room Textile Building, No.35 Renmin Road,
Tel: +86 411 82580352 82656126 Fax: +86 411 82557586
http://www.lmmgroupcn.com
Zhongshan District, Dalian-116001, China
Email: bill@lmmgroupcn.com
2. 1
1 INFORMATION
Wagon dumper system is a kind of large equipment for unloading bulk goods in
open wagon. It’s preferred alternative in the countries that transport bulk goods by
railway. Compared to other ways, its advantages are as follows:
Wide range of application. Generally, all kinds of bulk goods in all sorts of open
wagons can be well handled.
Efficient and very easy to be automated.
Almost no leftover.
The unloading process is easy to be environment-friendly.
Wagon dumper system's mainly application area includes: port for bulk goods,
power plant's coal-transport system, and raw material feeding system of steel plant,
coke plant and large cement plant.
The main frame of wagon dumper system is car dumper, and be equipped with
various kinds dispatch vehicle arrangement and safeguards equipment to constitute
the unload line.
According to the number of cars that handled every work circle, railway wagon
dumper systems can be divided into single wagon dumper system, dual-wagon
dumper system and tripe-wagon dumper system. In the electric power plants and
steel works that the single wagon dumper system is the most popular one, in the ports
that the dual-wagon dumper system is the most popular one, tripe-wagon dumper
system and larger-sized dumper are the less popular.
2 Wagon dumper system forms of the layout, working performance, equipment
composition and work processes
Wagon dumper system could be run-through model or back-turning model which
depends on the layout of empty and full car's tracks.
Run-through model that is dumper's the layout of empty and full line are the same
railroad line. The outlet of dumper is empties line. Run-through model wagon dumper
system could be divide to unit-train wagon dumper system, mixed unit-train wagon
dumper system and multifunction (can dumping unit-train and mixed unit-train) wagon
dumper system. The run-through model system needs fewer equipments and more
efficient, but needs more field for the tracks.
The back-turning model system is that dumper in the railroad line tip, empty and
full line are parallel arrangement, the outlet of dumper set up the transfer that can be
square transfer motion train, the transfer move train from full line to empty line, train
can be back from empty line. The back-turning model system needs more equipments
and less efficient, but for it at the end of railway, it needs less field and easy to arrange,
so it more widely adopted.
About all kinds of dumper system’s dumping vehicle-type, working performance,
equipment composition as table:
3. 2
System
forms
of the
layout
operating
type
dumping vehicle-type
working performance
(Cycles/h)
System equipment composition
vehicle-type
gross
weight
(t)
load
(t)
single
wagon
dumper
system
Dual
wagon
dumper
system
Triple
wagon
dumper
system
Car Dumper Train Handling
Equipment
Safe
Equipment
Run-
through
model
mix rake
ChinaC61、C62、C63、
C64
84 60
25~33 25~33
23~27
single
vehicle
type
C type Car Dumper
Single/Twin/Triple
Side Arm Charger
Car Pusher
Wheel Clamp
Back Stop
ChinaC70 93.8 70
ChinaC80 100.5 80
China developing
vehicle-typeC100
132 100
India BOXC 81.28 56.28
25~33 25~33
23~27
single
vehicle
type
C type Car Dumper
Single/Twin/Triple
Side Arm Charger
Car Pusher
Wheel Clamp
Back StopIndia BOXN 81.28 58.08
India BOXNHA 88.4 65.23
India BOXNEL 100 76.9
Uniform rake
China C70S 93.8 70
30~45 30~40 27~30
O type Car Dumper
Single/Twin/Triple
One or Two
Positioners
Wheel Clamp or
Stop Arm
Back Stop
China C80 100.5 80
Australia KARARA 84 67
Australia ROY HILL 160 137.5
above
not
applicable
C type Car Dumper
Single/Twin
Positioner
Car Pusher
Wheel Clamp
Back Stop
Back-
turning
model
ChinaC61、C62、C63、
C64、C70、C80、C100 20~25 18~22
not
applicable
C type Car Dumper
Single/Twin
Side Arm Charger
Transfer
Car pusher
Wheel Clamp
Safe Stop
India BOXC、BOXN、
BOXNHA、BOXNEL 20~25 18~22
not
applicable
C type Car Dumper
Single/Twin
Side Arm Charger
Transfer
Car pusher
Wheel Clamp
Safe Stop
LMM GROUP Wagon dumper system
mix rake
mix rake
niform rake
&
U
4. 3
All kinds of wagon dumper system’s work process as follow:
Run-through model random wagon’s wagon dumper system include dumper,
side arm charger, wheel clamp, single acting stopper, spray dust-suppression system
and electric control system, its work procedure is as follows:
Locomotive pulls a load train to the place where side arm charger can fetch and
leave .Then the train is towed by the side arm charger to initial position and be
localized by wheel grippers .The coming moves are automated. The wheel clamp
loosen, and then side arm charger pulls the train through a wagon’s (for dual wagon is
two train ,tripe wagon is three train, same below)length distance and release the
coupler of first wagon manually, after that side arm charger tows the first wagon into
dumper's appointed position. The coupler between side arm charger and wagon will
be released automatically, side arm charger 's arm raises and returns to forepart of the
train in high speed. At the same time, the dumper overturns and back to initial place.
Side arm charger begins the second cycle, pulls the next wagon into position while
pushing the empty wagon in the dumper out and mass into line on the empty line.
Where necessary, to increase of efficiency, for dual or tripe wagon dumper system,
to increase an indexer to pull that unlock-coupler two train (for tripe wagon is three
train) to the dumper location, pushing the empty wagon in the dumper out and mass
into line on the empty line.
Run-through model unit train’s wagon dumper system include dumper,
positioner, wheel clamp, single acting stopper, spray dust-suppression system and
electric control system, its work procedure is as follows:
Locomotive pulls a load train to the place where side arm charger can fetch and
leave .Then the train is towed by the side arm charger to initial position and be
localized by wheel clamp .The coming moves are automated. The wheel clamp
loosen, and then side arm charger pulls the train through a wagon’s (for dual wagon is
two train, trinal wagon is three train, same below) length distance, the wheel clamp
clamps, positioner arm raises and returns to initial position in high speed. At the same
time, the dumper overturns and back to initial place. Side arm charger begins the
second cycle
Unit-train’s couple can be along with itself axis to rotate, dumper’s center of
rotation with couple centre line to coincide,
therefore it can coupling to work. Positioner’s
arm is snap-in two wagons striker, to tow entire
wagon.
Run-through model unit train’s wagon
dumper system is the most working
performance and dumper system. Where
necessary, it can adopt to two positioners to
improve on working performance.
5. 4
Run-through model random wagon and
unit-train’s wagon dumper system is include
dumper, multifunction positioner, car pusher,
wheel clamp, single acting stopper, spray
dust-suppression system and electric control
system. Two work procedure can transform, the
mode of random wagon that multifunction
positioner assume the function of side arm
charger, the mode of unit-wagon that
multifunction positioner assume the function of
positioner, car pusher can work in the last cycle.
This system more function can adapt to various
working condition, but its system is more
complex.
The back-turning model wagon dumper
system can be random wagon, it include the
dumper, side arm charger, wheel gripper, car
transfer, car pusher, single acting stopper, safe
stoppers ,spray dust-suppression system and
electric control system, its work procedure is as
follows:
Locomotive pulls a load train to the place
where side arm charger can fetch and
leave .Then the train is towed by the side arm
charger to initial position and be localized by
wheel clamp .The coming moves are
automated. The wheel clamp loosen, and then
side arm charger s pulls the train for a
wagon’s(for dual wagon is two train length
distance and release the coupler of the first
wagon manually, after that side arm charger
tows the first wagon in to dumper's appointed
position. The coupler between side arm charger
and wagon will be released automatically, side
arm charger’s arm raises and return to forepart
of the train in high speed. At the same time, the
dumper overturns and back to initial place. Side
arm charger begins the second cycle, pull the
next wagon into position while pushing the empty wagon in the dumper out and mass
into line on the empty line.
6. 5
3 Wagon dumper systems various single type’s main technical parameter and
instruction
3.1dumper
Type instruction
F Z C 1 - 1
Type serial number 1,2,3...
Each dumping vehicle 1-single
2-twin
3-tripe
Feature C type or O type
Rotor
Dumper
Type
Material
Handled
Car
Weight
Gross
Tonnes
End Ring
Centres
Metres
description
Customer
Example
FZC1-1 Coal 100 15 Equilibrium force beam clamp
Guigang
power plant
FZC1-2
Coal or
Iron Ore
100 15
Equilibrium force beam clamp
Electronic weigher
Ganjinzi
power plant
FZC1-3
Coal or
Iron Ore
100 15 Joint force beam clamp
Baogang
coking plant
FZC1-4
Coal or
Iron Ore
100 15
Joint force beam clamp
Electronic weigher
Lingwu
power plant
FZC1-5 Coal 85 14 Equilibrium force beam clamp India Bengal
FZC1-6
Coal or
Iron Ore
128 15
Joint force beam clamp
Designing, consider the future
C100 type
Taiyuan
power plant
FZO1-1
Coal or
Coke
100 15.8
Designing for dumping coal and
cock
Nanjing port
FZO1-2 Coal 100 15.8 Magang
FZC2-1 Coal 2*100 17.4(29) Radom wagon
Qingdao
port
FZC2-2 Coal 2*100
Adapting India market to design
Radom wagon
FZC2-3 Coal 2*100 18
Radom wagon C64
Unit-train C70S、C80
Hopper wagon
Shenhua
Tianjin
FZO2-1 Iron Ore 2*90 12 Unit-train KARARA
7. 6
FZC1-1 Type Dumper FZC1-2 Type Dumper(local)
FZC1-3 Type Dumper FZO1-2 Type Dumper
FZC2-1 Type Dumper
FZO2-1 Type Dumper(manufacturing)
8. 7
3.2 Positioner (side arm charger) and car pusher
Type instruction:
D Z C 1 - 5000
Pull weight(t)
Type serial number 1,2,3 ……
Drive type C- rack gear;S- Rope drive
Z-tow heave car K-pull empty car
Positioner, side arm charger, car pusher
Type Name
Train
Weight
Gross
Tonnes
Track
Centres
MilliMetres
description
Customer
Example
DZC1-****
Side arm
Charger
6000 4700
Mating Type FZC1
dumper
Random wagon
Ganjinzi
power
plant
DZC2-****
Multifunctional
Positioner
7200 4000
Mating Type FZC2-3
dumper
Convert random
wagon and unit-train
Shenhua
Tianjin
CD4
DZC3-****
Multifunctional
Positioner
7200 4000
Mating Type FZC2-3
dumper
Convert random
wagon and unit-train
Have two pusher arms
Huanghua
CD2
DZC4-**** Positioner 10000 3200 Unit-train KARARA
DZC5-**** Positioner 32000 3200
Unit-train
Design stage
DZS1-****
Side arm
Charger
3000 2700
Mating Type FZO1
dumper
Magang
coking
plant
DKC1-**** Car Pusher 2000 2800
For back-turning
model wagon dumper
system, pulling the
empty wagon to
transfer
Lingwu
power
plant
DKC2-**** Car Pusher 3600 6250
Mating Type FZC2-3
dumper
Shenhuan
Tianjin
CD4
PS: Tow (pull) weight can be as required to design.
9. 8
DZC1-6000 Type side arm car pusher DZC2-7200 Type multifunction indexer
DZC3-7200Type multifunction
Dual-arms indexer DZS1-3000 Type side arm car pusher
DZC4-10000 Type positioner
DKC1-2000 Type car pusher DKC2-3600 Type car pusher
10. 9
3.3 Car Transfer
Type instruction:
QT C 1- 1
Type serial number 1,2,3 ……
Each dumping vehicle 1-single;2-twin
Drive type:C-pin tooth drive; L-wheel drive
Car Transfer
Type Name
Car Weight
Gross
Tonnes
Length of
Main Beam
Metres
description
Customer
Example
QTC1-1 Car Transfer 100 14.5
For back-turning model
wagon dumper system
Mating Type FZC1
dumper
Ganjinzi
power
plant
QTC2-1 Car Transfer 2*100 29
For back-turning model
wagon dumper system
Mating Type FZC2
dumper
QTC1-1 Type transfer
11. 10
3.4 Wheel clamp
Type instruction:
JL 1- 300
Clamp force(kN)
Type serial number 1,2,3 ……
Wheel clamp
Type Name
Clamp
Force
kN
Length of
Clamp
Beam
Millimetres
description
Customer
Example
JL1-300 Wheel Clamp 300 2*1750
Single wheel clamp
Not allowed
locomotive pass
Ganjinzi
power plant
JL2-600 Wheel Clamp 600 3500
twin wheel clamp
For run-through
model allowed
locomotive pass
Qinhuangdao
port
JL1-300 Type wheel clamp
JL2-600 Type wheel clamp
12. 11
3.5 Safety Stop
Type instruction:
ZA - 1
Type serial number 1,2,3 ……
Safety Stop
Type Name description
Customer
Example
ZA-1 Safety Stop
For back-turning model
Transfer linkage
Ganjinzi
power
plant
ZA-2 Safety Stop
For run-through model,
avoiding empty train
retro gradation
Can motor-driven
remove
Shenhua
Tianjin
CD4
ZA-1 Safety stop and DKC1-2000 Type car pusher
13. 12
4. About dumper system adaptive railway standard
Wagon dumper system must satisfy with user that the country one belongs to
railway standard and requirement.
4.1Dumper system adaptive satisfies with Chinese railway standard and
stipulation
Chinese railway standard and requirement:
GB/T18818 Railway wagon dumper and bulk cargo unfreezing warehouse
detection conditions
TB/T1335 Rail truck strength design and accreditation test
TG/CL259-2010 Railway wagon dumper and bulk cargo unfreezing
warehouse detection rules
4.2 Dumper system adaptive satisfies with India railway standard and stipulation
India railway standard and requirement:
Amendment No.1 of December 2007 applicable to the technical pamphlet for
requirements of wagon tippler installation for approval by RDSO
No.G-33(February 2000)