The Caterpillar D6 9U series dozer is a popular model that has been used in a variety of heavy construction and earthmoving projects for decades. Due to its durability, power, and reliability, the D6 9U is a favorite among contractors. However, after years of service, some of these dozers may reach the end of their functional life. In such cases, parting out the machine can be a viable option to recover value from components and help others maintain their own machines.
Why Part Out a D6 9U Dozer?
Parting out a heavy piece of machinery like the CAT D6 9U dozer involves disassembling the machine and selling its individual components. This process is often more cost-effective than repairing the entire dozer, especially when the machine has sustained extensive damage or has reached a point where repairs are no longer feasible.
For machines like the D6 9U, parting out can provide several benefits:

1. Maximizing Value: Rather than scrapping the entire machine, valuable parts like the engine, transmission, and hydraulics can be sold individually, often generating more revenue than selling the dozer as a whole.
   
2. Supporting the Market for Replacement Parts: Older equipment models, such as the D6 9U, are still in use today. Many owners of similar machines look for replacement parts from used equipment, and parting out a dozer helps fill this market need.
   
3. Recycling and Sustainability: Parting out equipment helps recycle usable parts, reducing waste and promoting the reuse of valuable materials.
   

1. Engine: The engine is often the most valuable component of the dozer. CAT engines are known for their durability and high performance. Even older models like the 9U’s engine can be refurbished and used in other machines.
   
2. Transmission and Final Drive: The transmission and final drive are critical for the dozer’s movement and operational efficiency. These parts, when in good condition, are often in demand for repairs or replacements in other CAT D6 dozers.
   
3. Hydraulic Components: The hydraulic system of the D6 9U includes pumps, valves, and cylinders that are essential for blade control and other hydraulic functions. These parts are often highly sought after, especially if they are not worn or damaged.
   
4. Tracks and Undercarriage: The undercarriage of a dozer, including tracks, rollers, sprockets, and idlers, often wears down after prolonged use. However, if parts are still in good shape, they can be sold as replacement parts for other machines.
   
5. Blade and Ripper: The blade is another vital component of the dozer, used for pushing earth and clearing land. If the blade or ripper attachment is in good condition, it can be sold as a replacement part for similar models.
   
6. Electrical and Control Systems: The control panel, wiring harnesses, and electrical systems may still have value, especially if they are functioning properly. These parts can be recycled into newer machines, or sold as spares.
   
7. Frame and Structural Components: While not as commonly in demand as the engine or hydraulics, the frame and structural components of the D6 9U can be sold for scrap metal or used in repairs for other dozers.
   

1. Labor-Intensive Process: Disassembling a large piece of heavy equipment takes time and effort. The parts must be carefully removed, cleaned, and inspected to ensure they are functional. This process can take days or even weeks, depending on the condition of the machine.
   
2. Storage Space: Storing the parts until they are sold can be an issue, especially for large components like the engine, tracks, and blade. A well-organized storage system is essential to avoid damage and to keep track of inventory.
   
3. Market Demand: While the D6 9U is a popular model, finding buyers for certain parts may take time. Some components may have a smaller market, especially if they are in lower demand.
   
4. Shipping Costs: Large parts, such as the engine or transmission, can be expensive to ship. Sellers need to factor these costs into their pricing or find local buyers to minimize shipping expenses.
   
5. Environmental Regulations: Some regions have strict environmental regulations regarding the disposal of parts, especially fluids or components that contain hazardous materials. It's important to follow these regulations to avoid fines or legal issues.
   

1. Online Marketplaces: Websites like eBay or specialized equipment parts websites provide a platform to sell individual components to a global audience.
   
2. Equipment Dealers: Many dealers who specialize in used machinery and parts will purchase individual components from sellers looking to part out a machine.
   
3. Scrap Yards and Salvage Operations: If certain parts cannot be sold individually, they can be sold as scrap metal to salvage operations.
   
4. Auction Houses: Some sellers prefer to auction off equipment or parts to the highest bidder. Auctions can help get competitive prices, especially for rare or in-demand parts.
   

The Rounder L600 skid steer loader, produced by Oakes Manufacturing Inc., is a compact and versatile machine designed for operations in confined spaces. Its unique design and capabilities have made it a valuable asset for various industries, including landscaping, agriculture, and construction.
Design and Specifications

• Dimensions: The L600 features a compact design, making it suitable for narrow spaces. Its standard operating length is approximately 13 feet 8 inches, width 5 feet 4 inches, and height 7 feet 0 inches. The operating weight is around 5,600 lbs, depending on the configuration and attachments.
  
• Engine: Early models were equipped with Onan B48 engines, while later versions featured Honda GX160 engines. The engine's horsepower varies, with some models offering up to 24 HP.
  
• Transmission: The L600 utilizes a hydrostatic drive system, providing smooth and responsive control. It features both hand and foot controls for operator convenience.
  
• Tires: Standard tire size is 5.70-12, with options for foam-filled tires to enhance durability.
  

The Caterpillar D7F, a robust track-type tractor introduced in the early 1970s, has been a workhorse in various industries, from construction to military applications. Equipped with the 3306 engine, the D7F's performance heavily relies on its fuel injection system. Among the critical components is the fuel injection pump, which ensures precise fuel delivery to the engine's cylinders. Any malfunction in this system can lead to significant operational challenges.
Common Symptoms of Fuel Injection Pump Failures
Operators and technicians have reported several symptoms indicative of issues with the fuel injection pump:

• Engine Misfire or Rough Running: Uneven fuel delivery can cause one or more cylinders to misfire, leading to a rough engine operation.
  
• Difficulty Starting: Inadequate fuel supply during startup can result in prolonged cranking times or complete failure to start.
  
• Loss of Power: Inconsistent fuel injection can lead to a noticeable drop in engine power, affecting the tractor's performance.
  
• Excessive Smoke: Incomplete combustion due to improper fuel delivery can produce black or white smoke from the exhaust.
  

1. Check Fuel Pressure: Using a fuel pressure gauge, verify that the fuel pressure is within the manufacturer's specified range. Low pressure can indicate issues with the transfer pump or clogged filters.
   
2. Inspect Fuel Lines and Filters: Ensure that fuel lines are free from air leaks and that filters are clean. Contaminants or air in the fuel system can disrupt proper fuel delivery.
   
3. Examine the Injection Pump: Listen for unusual noises from the injection pump, such as knocking or whining, which can signal internal wear or damage.
   
4. Observe Engine Behavior: Monitor the engine's response to throttle changes. Hesitation or stalling can point to issues with the fuel injection system.
   

• Cleaning and Servicing: Regular maintenance, including cleaning fuel filters and inspecting fuel lines, can prevent many common issues.
  
• Component Replacement: If internal components of the injection pump are worn or damaged, replacement may be necessary.
  
• Professional Calibration: After servicing or replacing components, ensure the injection pump is properly calibrated to maintain optimal engine performance.
  

• Use High-Quality Fuel: Contaminated or poor-quality fuel can accelerate wear on the fuel system components.
  
• Regular Maintenance: Adhere to the manufacturer's recommended maintenance schedule for fuel system components.
  
• Monitor Engine Performance: Regularly assess engine performance to detect early signs of fuel system issues.
  

Priming the fuel system in heavy equipment, especially in older machines like the BW 172, is crucial for ensuring that the engine receives the proper fuel supply to run smoothly. Without a proper fuel priming procedure, starting issues can arise, leading to prolonged downtime and inefficient performance. Here's a detailed guide on how to prime the fuel system in a BW 172 and address common fuel-related issues.
Why Fuel Priming is Important
Fuel priming is the process of filling the fuel system with diesel to ensure that air is expelled from the fuel lines and injectors. This is important because air in the fuel system can prevent the engine from starting or cause it to run erratically. Heavy equipment, like the BW 172, often relies on a manual priming pump to get the job done, especially when the fuel tank is emptied or replaced, or when maintenance work causes air to enter the fuel lines.
The BW 172, a reliable model known for its use in road construction and other heavy-duty tasks, requires a specific approach for fuel priming to avoid fuel starvation or engine misfire. A prime system ensures the engine gets a consistent and smooth fuel flow, particularly after fuel changes or repair work.
Step-by-Step Fuel Priming Procedure

1. Ensure Fuel Supply
   First, verify that the fuel tank has adequate fuel. Sometimes, an empty tank or low fuel level can make it difficult to prime the system effectively. Make sure there are no leaks or blockages in the fuel supply lines as well.
   
2. Locate the Fuel Primer Pump
   The BW 172 is equipped with a manual fuel primer pump, usually found near the fuel filter or on the side of the engine. This hand-operated pump is used to force fuel into the system. It is crucial to know where this component is located to ensure proper priming.
   
3. Operate the Primer Pump
   Begin pumping the fuel primer pump slowly and steadily. You should feel resistance in the pump as it begins to push fuel through the system. Continue pumping until the fuel flows freely, and you can feel that all air has been expelled from the lines. This may take several pumps depending on how much air is trapped in the system.
   
4. Check for Fuel Flow at the Bleed Valve
   The BW 172 is often equipped with a bleed valve to ensure that air is completely removed from the fuel system. After priming with the manual pump, open the bleed valve slightly to let any remaining air or air bubbles escape. Once fuel begins to flow steadily without air bubbles, close the valve.
   
5. Crank the Engine
   After the priming process is complete, attempt to start the engine. If the fuel system has been properly primed, the engine should start smoothly. If the engine does not start, repeat the priming process to ensure there is no air left in the lines.
   

1. Failure to Prime the System Properly
   If the manual pump becomes hard to operate or fails to expel air, there may be an issue with the fuel pump itself, or the fuel filter could be clogged. Check the fuel filter for blockages and ensure that the primer pump is functioning correctly.
   
2. Air in the Fuel System
   If air is not completely removed from the fuel system, the engine may fail to start or run erratically. Repeating the priming process and using the bleed valve to remove trapped air is key to solving this issue.
   
3. Fuel Line Leaks
   A fuel line leak could prevent the system from priming properly. Check all fuel lines for signs of leakage or wear. If you find a crack or damaged hose, it’s best to replace it immediately to ensure proper fuel delivery.
   
4. Low Fuel Quality
   Sometimes, fuel issues arise from poor-quality diesel, especially if the fuel has been sitting in the tank for long periods. Contaminated or old fuel can lead to clogs in the fuel system and prevent effective priming. Always use clean, high-quality diesel to avoid these issues.
   

1. Routine Fuel Filter Changes
   Regularly change the fuel filter to ensure optimal fuel flow and avoid clogging. A clogged filter can make it difficult to prime the system and can even damage the engine over time.
   
2. Check the Fuel Tank Vent
   Ensure that the fuel tank vent is not blocked. A blocked vent can cause a vacuum in the fuel system, which can prevent proper priming and affect fuel flow.
   
3. Inspect the Fuel Lines
   Inspect fuel lines for leaks or damage periodically. Fuel lines are essential for the safe and efficient delivery of fuel to the engine, and any issues with them should be addressed immediately.
   
4. Warm Up the Engine
   In cold weather, fuel may thicken or gel, making it difficult to prime the system. Consider using fuel additives or warming the fuel system before priming to ensure smooth operation in low temperatures.
   

Development and Background
The Volvo EC210 is a medium-sized crawler excavator known for its balance of power, efficiency, and versatility. Designed for a wide range of construction, mining, and material handling tasks, the EC210 reflects Volvo Construction Equipment’s commitment to combining advanced technology with robust durability. This model suits applications ranging from urban infrastructure projects to quarry operations.
Volvo's design philosophy focuses on operator comfort, fuel efficiency, and machine uptime, positioning the EC210 as a reliable workhorse with low total cost of ownership. Its engineering incorporates Volvo’s proprietary electro-hydraulic systems and proprietary safety and comfort features.
Technical Specifications

• Operating Weight: Approximately 20,700 to 21,300 kg (about 45,660 to 46,970 lbs)
  
• Engine Power: Roughly 101 kW (around 135 hp) at 2,000 rpm
  
• Bucket Capacity: Between 0.92–1.1 m³ (about 1.2 to 1.4 cubic yards)
  
• Maximum Digging Reach: Approximately 9,605 mm (31.5 feet)
  
• Maximum Digging Depth: Around 6,380 mm (21 feet)
  
• Lifting Capacity Along Undercarriage: Approximately 5,160 kg (11,370 lbs) at 6 m reach and 1.5 m height
  
• Overall Width: Approximately 2,500 mm (8.2 feet)
  
• Tail Swing Radius: About 2,880 mm (9.45 feet)
  
• Breakout Force (SAE J1179 Normal): 113 kN (approximately 25,400 lbs)
  
• Tear Out Force (SAE J1179 Normal): 99 kN (about 22,200 lbs)
  

• Breakout Force: Maximum force the bucket can exert to break through material.
  
• Tear Out Force: Force exerted when lifting material vertically, indicating bucket strength.
  
• Electro-Hydraulic System: A system that electronically adjusts hydraulic flow for efficiency and precision.
  
• ROPS/FOPS: Operator protective structures certified to protect against rollovers (ROPS) and falling objects (FOPS).
  
• Hydraulic Flow Rate: The volume of hydraulic fluid pumped per minute, affecting power and speed of attachments.
  
• Turbocharger and Intercooler: Components that increase engine airflow and cooling for better combustion and efficiency.
  

When it comes to heavy equipment, the right oil choice can significantly impact the longevity and performance of the machinery. Whether it's hydraulic oil, engine oil, or transmission fluid, selecting the correct oil ensures smooth operation and prevents unnecessary wear. Here's a breakdown of the types of oils commonly used in heavy equipment and the factors to consider when making your selection.
Types of Oils for Heavy Equipment

1. Engine Oils
   Engine oils are designed to lubricate the moving parts of the engine, reduce friction, and prevent overheating. For heavy equipment, using the correct engine oil is essential for maintaining optimal engine health, particularly during high-stress operations. There are several grades available, including synthetic oils, semi-synthetic oils, and conventional oils.
   • Synthetic Oils: These oils offer better high-temperature stability and are typically used in high-performance machinery.
     
   • Semi-Synthetic Oils: A blend of synthetic and conventional oils, they offer better performance than conventional oils but are less expensive than full synthetics.
     
   • Conventional Oils: These oils are the standard option and are often sufficient for less demanding machinery or older equipment.
     
   Recommendations: Always refer to the manufacturer’s guidelines for oil type, as different engines have varying requirements. The viscosity grade is particularly important, with most heavy equipment running best on oils rated 15W-40 or 10W-30.
   
2. Hydraulic Oils
   Hydraulic systems in heavy machinery rely on hydraulic oil to transmit power, lubricate components, and prevent corrosion. Hydraulic oils vary in their viscosity, additives, and performance levels.
   • High-Viscosity Oils: These are typically used in colder climates or environments where high pressures are involved.
     
   • Low-Viscosity Oils: These are more suitable for warmer climates and low-pressure systems.
     
   Recommendations: Check for oil with the right additives, such as anti-wear agents, to enhance the protection of hydraulic pumps and motors.
   
3. Transmission Oils
   Transmission oils are used to lubricate the gears and bearings in heavy equipment transmissions. These oils play a crucial role in ensuring smooth shifting, preventing overheating, and reducing wear. Many manufacturers offer specialized transmission oils designed to meet the specific needs of different machines.
   • Gear Oils: Often used in final drive systems, they come in various grades, including EP (extreme pressure) gear oils for more demanding conditions.
     
   Recommendations: Opt for oils with friction modifiers and anti-wear additives to extend the life of your transmission and gears.
   

1. Manufacturer Recommendations: Always adhere to the manufacturer's specifications. They provide crucial information on the type of oil best suited for your machinery.
   
2. Operating Conditions: If you're working in extreme temperatures (either hot or cold), selecting oil with the appropriate viscosity is critical. For instance, in cold weather, you may need an oil that remains fluid at lower temperatures.
   
3. Oil Additives: Additives improve oil performance by enhancing characteristics like anti-wear properties, corrosion resistance, and oxidation stability. Oils with additives designed for heavy equipment ensure your machine runs smoothly even in tough conditions.
   

1. Oil Contamination: Oil can become contaminated with dirt, water, and other debris, leading to engine wear and reduced performance. To avoid this, regularly check oil filters and replace them as needed. Installing quality filtration systems and using oils with higher cleanliness standards can prevent contamination.
   
2. Oil Degradation: Over time, oils break down due to heat and pressure. This can lead to sludge buildup and reduced efficiency. To counteract this, use oils with higher thermal stability or change the oil at recommended intervals.
   
3. Incorrect Oil Viscosity: Using oil with incorrect viscosity can cause poor performance, especially in cold starts or under heavy loads. To avoid this, always ensure you're using the right oil grade for your operating conditions.
   

• Mobil 1: Known for their synthetic oils, Mobil 1 oils are designed to perform under extreme temperatures and heavy-duty conditions.
  
• Shell Rotella: Shell’s Rotella line is one of the most popular oils in the heavy equipment industry, offering exceptional protection against wear and tear.
  
• Chevron Delo: Known for their advanced additive technologies, Chevron Delo oils are designed to extend engine life and reduce downtime.
  
• John Deere Plus-50: Designed specifically for John Deere equipment, these oils help maintain engine performance and meet the rigorous demands of farming and construction.
  

                                       

ID：1825157

The XCMG XE200DA is a 20-ton class hydraulic excavator released in 2021, designed to meet the demanding requirements of mid-scale earthmoving, construction, and infrastructure projects. With 5,705 working hours recorded and currently located in Nanchang, Jiangxi, this machine represents a balance between durability and efficiency, embodying XCMG’s continued efforts to deliver versatile heavy machinery.
XCMG, short for Xuzhou Construction Machinery Group, is one of the world’s largest construction equipment manufacturers, consistently ranking within the top five globally. Founded in 1989, the company has a history of producing excavators, cranes, loaders, and road machinery, exporting to over 190 countries. The XE200 series, including the XE200DA, is among its most widely sold excavators, with thousands of units in operation worldwide, particularly in Asia, Africa, and Latin America.
Powertrain and Engine System
At the heart of the XE200DA is the Cummins QSB7 diesel engine, a six-cylinder, 6.7-liter power unit known for reliability in tough working environments.
Key technical features include:

• Rated power: 135 kW at 2050 rpm
  
• Maximum torque: 740 N·m at 1250 rpm
  
• Cooling system: water-cooled turbocharged configuration
  

• Operating weight: 21,200 kg
  
• Bucket capacity: 0.93 m³
  
• Bucket digging force: 149 kN
  
• Arm digging force: 121 kN
  
• Maximum traction force: 184 kN
  
• Travel speed: 5.3 km/h (high) / 2.9 km/h (low)
  
• Swing speed: 11.6 rpm
  

• Hydraulic oil capacity: 220 L
  
• Fuel tank capacity: 400 L
  
• Engine oil change volume: 24 L
  

• Maximum digging radius: 9790 mm
  
• Maximum digging depth: 6460 mm
  
• Maximum digging height: 9680 mm
  
• Maximum dumping height: 6815 mm
  
• Maximum vertical digging depth: 5590 mm
  
• Transport length: 9625 mm
  
• Width: 2900 mm
  
• Height: 3100 mm
  

• Engine oil replacement every 500 working hours
  
• Hydraulic system checks every 1000 hours
  
• Track tension adjustments for optimal traction and reduced wear
  
• Cooling system inspections, especially in hot climates
  

                               

ID：1825140

In modern infrastructure development, deep and narrow holes are often required for piling, foundations, and utility installations. An excavator fitted with a hydraulic auger attachment is one of the most reliable solutions for this type of work. When paired with a powerful machine such as the LiuGong CLG939E, an auger can achieve remarkable drilling depths while maintaining accuracy and efficiency. Understanding the machine’s technical specifications, the auger’s working principles, and the operational challenges provides valuable insight into why such a setup is increasingly common across large-scale construction sites.
Overview of the LiuGong CLG939E
The LiuGong CLG939E is a heavy-duty 39-ton class crawler excavator, first released in 2019. Built by LiuGong Machinery, one of China’s leading construction equipment manufacturers founded in 1958, the CLG939E reflects decades of design evolution aimed at combining strength, durability, and operator comfort. LiuGong has sold machines to over 170 countries, and its excavators are widely used in Asia, Africa, and South America. The CLG939E, equipped with a Cummins QSL9 engine delivering 214 kW at 2100 rpm, balances raw power with fuel efficiency.
Key performance figures include:

• Operating weight: 35,800 kg
  
• Bucket capacity: 1.9 m³
  
• Boom length: 6400 mm
  
• Stick length: 2600 mm
  
• Maximum digging depth: 6730 mm
  
• Maximum digging radius: 10560 mm
  
• Maximum bucket digging force: 252 kN
  

• Torque: High torque, often exceeding 20,000 ft-lbs, is needed to penetrate compact soil and clay layers.
  
• Hydraulic flow and pressure: The CLG939E provides sufficient flow (over 200 L/min) and pressure (34.3 MPa travel circuit, 26.2 MPa swing circuit) to drive heavy-duty augers.
  
• Extensions: To reach 20 feet, auger extensions are necessary, typically added in 3- to 6-meter sections.
  
• Bit design: Rock augers with reinforced teeth may be required in mixed geology.
  

• Soil stability: In loose soil, casing or slurry stabilization may be needed to prevent collapse.
  
• Drilling speed: Starting slowly helps maintain vertical alignment, then torque can be increased to optimize penetration.
  
• Safety: Falling soil, high-pressure hydraulics, and auger entanglement present risks. Proper training and protective equipment are mandatory.
  

• Regular inspection of auger teeth, gearbox seals, and hydraulic hoses.
  
• Cleaning the auger flight after each use to prevent hardened soil buildup.
  
• Monitoring the excavator’s hydraulic system, especially since high-pressure drilling stresses components.
  

                                       

ID：1825126

The 2009 Sumitomo SH240-5 Excavator is a powerful and efficient piece of machinery designed to perform heavy-duty tasks in construction, mining, and other industrial sectors. With a robust engine and impressive hydraulic capabilities, the SH240-5 is known for its reliability and performance. In this detailed article, we will explore its key specifications, history, and features that make it stand out in the market.
Brand Overview: Sumitomo Construction Machinery
Sumitomo Heavy Industries, a Japanese multinational conglomerate, has a long history of manufacturing heavy equipment for various industrial applications. Founded in 1888, the company is renowned for producing high-quality machinery, including excavators, cranes, and industrial equipment. Over the years, Sumitomo has expanded its presence globally, offering advanced technology and superior engineering in construction and mining equipment.
The SH240-5 excavator is part of Sumitomo's series of hydraulic excavators designed for heavy-duty operations. It combines advanced features with durable performance, making it a preferred choice for demanding construction sites and industrial applications.
Key Specifications and Features
The Sumitomo SH240-5, with its strong performance metrics and sturdy design, is an excellent choice for a wide range of construction projects. Here are its key specifications:
Engine and Power System

• Engine Model: Isuzu AH-4HK1X (Tier 3)
  
• Rated Power: 132.1 kW at 2000 rpm
  
• Displacement: 5.193 L
  
• Cylinder Configuration: 4 cylinders, in-line
  
• Cooling System: Water-cooled, turbocharged with intercooler
  

• Main Pump Flow Rate: 468 L/min
  
• Hydraulic Circuit Pressure: 36.8 MPa
  
• Swing Motor Type: Fixed axial piston motor
  
• Travel Motor Type: Variable axial piston motor
  

• Operating Weight: 24,600 kg
  
• Bucket Capacity: 1.1 - 1.3 m³
  
• Ground Pressure: 48 Kpa
  
• Swing Speed: 10.7 rpm
  
• Travel Speed: 3.5 km/h (low) / 5.5 km/h (high)
  

• Transport Length: 9,930 mm
  
• Transport Width: 3,190 mm
  
• Transport Height: 3,150 mm
  
• Undercarriage Width: 2,590 mm
  
• Ground Clearance: 460 mm
  

• Maximum Digging Radius: 10,280 mm
  
• Maximum Digging Depth: 6,900 mm
  
• Maximum Digging Height: 9,760 mm
  
• Maximum Dumping Height: 6,760 mm
  

                               

ID：1825122

XCMG, one of China’s leading heavy machinery manufacturers, introduced the LW230FM Heavy Duty King Loader in 2022, a robust and efficient loader designed for a range of heavy-duty applications. With its advanced features and powerful engine specifications, this loader is engineered for both industrial and construction uses. Let’s dive into the key features, performance parameters, and the significance of this machine in the context of modern construction equipment.
Engine Specifications
The LW230FM loader is powered by two engine options: the Luoyang Tractor (LuoTuo) engine and the Yunnan Yunnan (Yunnan) engine. These engines are designed to meet the National IV emissions standard, reflecting China's commitment to environmentally friendly technology.

• Engine Power:
  • LuoTuo Engine: 88.3 kW at 2200 rpm
    
  • Yunnan Engine: 88 kW at 2400 rpm
    

• Bucket Capacity: 1.2 m³
  
• Rated Load Capacity: Up to 3 tons
  
• Rated Load Weight: 1800 to 2300 kg
  
• Digging Force: 50 kN
  
• Operating Weight: Between 6490 to 6750 kg
  
• Max Discharge Height: 3035 to 3960 mm
  
• Discharge Distance: 550 to 915 mm
  

• Wheelbase: 2680 mm
  
• Overall Length: Available in variants of 6350, 6450, 6780, and 6890 mm, depending on configuration.
  
• Width: 2170 mm
  
• Height: 2900 mm
  

1. Construction Sites: The loader’s high digging force and reliable engine performance make it perfect for construction sites where material handling and earth-moving tasks are essential.
   
2. Agriculture: With its powerful lifting capacity, the loader is also suitable for agricultural applications like moving soil, fertilizers, and equipment.
   
3. Mining Operations: Its durability and efficient performance in rough conditions make it ideal for use in small-scale mining tasks or material transport in quarries.