• Concrete Pump Rubber End Hose DN64 System 1
  • Concrete Pump Rubber End Hose DN64 System 2
Concrete Pump Rubber End Hose DN64

Concrete Pump Rubber End Hose DN64

Ref Price:
get latest price
Loading Port:
China Main Port
Payment Terms:
TT OR LC
Min Order Qty:
-
Supply Capability:
-

Add to My Favorites

Follow us:


OKorder Service Pledge

Quality Product, Order Online Tracking, Timely Delivery

OKorder Financial Service

Credit Rating, Credit Services, Credit Purchasing

Specifications

Dn64 concrete pump rubber hose
1.Size:2.5 inch
2.Steel hose
3.2 or 4 piles of steel wires for your choose.

DN64 CONCRETE PUMP RUBBER HOSE

1.Work Pressure:85~1250(BAR/PSI)

2.Burst Pressure:200 to 2940(BAR/PSI)

3.Working life:20000m³

4.The inside of hose is high abrasion resistant.

5.Integrated hose end and inner wall harden,prolong work life.

Relevant Information:

Name

Concrete rubber hose; Delivery hose; End hose; Concrete pump hose; Boom hose

Size

2"/2.5"/3"/3.5"/4"/4.5"/5"/6"or according to client’s requirement

Length

3M,5 or Any length

Reinforcement

Steel wire, tire cord or fabric

Hose End

Galvanized, inner wall harden

Application

Schwing, Putzmeister, Sany, Zoomlion, etc


Q: What are the signs of a malfunctioning hydraulic oil cooler?
Some signs of a malfunctioning hydraulic oil cooler include overheating of the hydraulic system, decreased performance and efficiency of the equipment, increased hydraulic fluid leakage, abnormal noises or vibrations, and visible signs of coolant or oil leakage around the oil cooler.
Q: How does a hydraulic oil cooler maintain optimal temperature in a concrete pump?
A hydraulic oil cooler plays a crucial role in maintaining optimal temperature in a concrete pump by effectively dissipating heat generated during the hydraulic system's operation. As the hydraulic system of a concrete pump is continuously subjected to high pressure and heavy loads, the oil within the system tends to heat up rapidly. If the oil temperature exceeds the recommended range, it can lead to a decrease in overall system efficiency, increased wear and tear of components, and potential system failure. To prevent these issues, a hydraulic oil cooler is installed in the concrete pump. It works by utilizing a heat exchanger that transfers the excessive heat from the hydraulic oil to the surrounding air or another cooling medium, such as water or a refrigerant. This heat exchange process helps to lower the temperature of the hydraulic oil, maintaining it within the optimal operating range. The hydraulic oil cooler typically consists of a series of fins or tubes through which the hot oil flows. These fins or tubes increase the surface area of contact between the oil and the cooling medium, allowing for efficient heat transfer. Additionally, a fan or a pump may be used to enhance the airflow or flow of the cooling medium, further improving the cooling process. By maintaining the hydraulic oil at an optimal temperature, the hydraulic oil cooler ensures that the concrete pump operates at its peak performance. This not only increases the overall efficiency and productivity of the pump but also prolongs the lifespan of critical components. Moreover, by preventing overheating, the hydraulic oil cooler helps to minimize the risk of costly and unexpected downtime due to system failure. In conclusion, a hydraulic oil cooler is an essential component in a concrete pump that maintains optimal temperature by dissipating excessive heat from the hydraulic oil. By effectively cooling the oil, it ensures the smooth operation, efficiency, and longevity of the hydraulic system, ultimately contributing to the overall productivity and reliability of the concrete pump.
Q: What are the most commonly replaced spare parts for concrete pumps?
The most commonly replaced spare parts for concrete pumps are typically wear parts such as concrete delivery pipes, rubber hoses, and wear plates. Other commonly replaced parts include seals, gaskets, pistons, and hydraulic components.
Q: What are the skills of concrete pump?
) need vertical piping, along with the increase of height is the potential increase of concrete circumfluence trend, therefore should be the level of pipeline laying length between the concrete pump and vertical pipe, to ensure that there is sufficient to prevent backflow resistance of concrete
Q: How can a damaged concrete pump hopper affect the pumping process?
A damaged concrete pump hopper can have several negative impacts on the pumping process. Firstly, a damaged hopper can lead to a decrease in efficiency and productivity. The hopper is responsible for holding and feeding the concrete mixture into the pump, and any damage to it can result in a disruption of the continuous flow of concrete. This can lead to frequent interruptions in the pumping process, causing delays and reducing the overall output of the pump. Secondly, a damaged hopper can affect the quality of the concrete being pumped. The hopper is designed to ensure proper mixing and consistency of the concrete mixture before it is pumped. If the hopper is damaged, it may not be able to effectively mix the concrete, leading to inconsistencies in the mixture. This can result in poor-quality concrete being pumped, which can compromise the structural integrity and durability of the final product. Moreover, a damaged hopper can pose safety risks for the workers involved in the pumping process. A damaged hopper may have sharp edges or loose parts that can cause injury if not properly addressed. Additionally, if the hopper is not functioning properly, it may lead to clogs or blockages in the pump, which can cause pressure build-up and potential accidents. Lastly, a damaged hopper can increase maintenance and repair costs. A hopper that is not in optimal condition may require frequent repairs or even replacement, which can be costly in terms of time and money. Regular maintenance and inspection of the hopper is crucial to identify any damages early on and prevent them from escalating into more significant issues. In conclusion, a damaged concrete pump hopper can significantly affect the pumping process by reducing efficiency, compromising the quality of the concrete, posing safety risks, and increasing maintenance costs. Regular inspection, maintenance, and timely repairs are essential to ensure the smooth operation of the pump and the delivery of high-quality concrete.
Q: How do concrete pump spare parts help in the pumping process?
The smooth and efficient operation of a concrete pump relies heavily on spare parts. These parts are crucial for enhancing performance, extending the pump's lifespan, and ultimately saving costs. The use of concrete pump spare parts offers several advantages, one of which is improved pumping efficiency. These parts are meticulously manufactured to ensure the optimal flow of concrete through the pump. For example, the wear plate, wear ring, and S valve all play a crucial role in reducing friction and enhancing pumping performance. By minimizing friction and maintaining a consistent flow, these spare parts prevent blockages and allow for the smooth and efficient pumping of concrete. In addition, concrete pump spare parts are vital for minimizing downtime and reducing maintenance costs. Since the pump operates continuously, wear and tear are inevitable. However, replacing worn-out parts with high-quality spare parts on a regular basis can significantly prolong the pump's lifespan and decrease the need for frequent repairs. Investing in durable and reliable spare parts helps operators avoid unexpected breakdowns and costly repairs, ensuring uninterrupted and efficient pumping operations. Furthermore, concrete pump spare parts contribute to the safety of the pumping process. Components such as the safety valve, hopper grate, and control system all play critical roles in preventing accidents and ensuring the well-being of operators. These spare parts are designed to facilitate the safe and controlled pumping of concrete, reducing the risk of equipment failure and potential hazards. In conclusion, concrete pump spare parts are indispensable in the pumping process as they improve efficiency, minimize downtime and maintenance costs, and enhance safety. By investing in high-quality spare parts, operators can optimize the pump's performance, increase productivity, and achieve long-term cost savings.
Q: How can one determine the correct size and dimensions of concrete pump spare parts?
In order to determine the correct size and dimensions of spare parts for your concrete pump, it is essential to follow several important steps: 1. Make sure to identify the specific make and model of your concrete pump. Each pump has its own unique requirements for spare parts, so knowing this information is crucial before placing an order. 2. Consult the manufacturer's documentation, which often provides detailed information about the size and dimensions of the required spare parts. This documentation may include technical drawings, diagrams, and part numbers that can assist you in finding the right size. 3. Take measurements of any existing spare parts that need to be replaced. You can use precision tools like calipers or a measuring tape to accurately measure dimensions such as length, width, height, and any other relevant specifications. 4. If you are unsure about the correct size and dimensions, seek professional assistance from a qualified expert or an authorized dealer. They have extensive knowledge and experience with concrete pumps and can help guide you in selecting the appropriate spare parts based on your pump's specifications. 5. When purchasing spare parts, consider both compatibility and quality. It is important to ensure that the parts you buy are compatible with your concrete pump's make and model. Additionally, prioritize high-quality parts to ensure long-lasting performance and minimize the risk of downtime. Buying from reputable suppliers or directly from the manufacturer can help ensure that the spare parts meet the necessary size, dimensions, and quality standards. By following these steps, you can accurately determine the correct size and dimensions of spare parts for your concrete pump, ensuring smooth operation and minimizing any potential disruptions.
Q: What are some common issues with concrete pump pipes and how can they be prevented?
Some common issues with concrete pump pipes include clogging, wear and tear, and leakage. These issues can be prevented by regularly cleaning the pipes to avoid clogging, using high-quality pipes that are resistant to wear and tear, and ensuring proper installation and maintenance to prevent leakage. Additionally, using the correct concrete mix and adjusting the pump pressure appropriately can also help prevent these issues.
Q: What is the function of a concrete pump control valve?
The purpose of a concrete pump control valve is to regulate the concrete flow from the pump to the desired location. By controlling the speed and direction of the concrete, it ensures precise placement. Furthermore, the control valve aids in preventing blockages in the pumping system by enabling the operator to adjust the pressure and flow rate of the concrete. Moreover, it contributes to the safety of the operation as the operator can stop or start the concrete flow as required. In conclusion, the concrete pump control valve is essential for the efficient and effective transfer of concrete from the pump to the desired location.
Q: How can a faulty oil cooler affect the pump's hydraulic system?
A faulty oil cooler can affect the pump's hydraulic system in several ways. Firstly, the oil cooler is responsible for maintaining the optimal temperature of the hydraulic oil. If the oil cooler is faulty and fails to cool the oil effectively, the hydraulic oil may overheat. This can lead to a decrease in the oil's viscosity, causing it to lose its lubricating properties. As a result, the pump's moving parts may experience increased friction and wear, leading to reduced efficiency and potentially causing damage to the pump itself. Secondly, a faulty oil cooler may result in inadequate cooling of the hydraulic oil, leading to elevated temperatures within the system. High temperatures can cause the oil to oxidize, resulting in the formation of sludge and varnish deposits. These deposits can clog the hydraulic system, including the pump, valves, and other components, impeding their smooth operation and potentially causing them to malfunction. Additionally, a faulty oil cooler may also lead to a decrease in oil flow rate. If the oil cooler is not functioning properly, it may restrict the flow of hydraulic oil, reducing the amount of oil available for the pump's operation. This can result in decreased hydraulic pressure, affecting the pump's performance and potentially leading to issues such as reduced power output or inadequate operation of hydraulic actuators. Overall, a faulty oil cooler can negatively impact the pump's hydraulic system by causing overheating, increased friction and wear, the formation of deposits, and reduced oil flow rate. It is crucial to regularly inspect and maintain the oil cooler to ensure its proper functioning and prevent any potential damage to the hydraulic system.

Send your message to us

This is not what you are looking for? Post Buying Request

Similar products

Hot products


Hot Searches

Related keywords