Product Description
The feature of electric office desk is the adjustable height of the desktop.
According to the request of the user in the actual using, the office desk can be adjusted into different height.
It has the location memory to the prefer location which the user are used to. If the height is adjusted by other user,
You just need to press 1 memory button and then the height will be back to the original one.
It is very convenient and saves time for the user.
1. Input voltage: 110V/220V AC 50/60Hz;
2. Output voltage: 24V DC;
3. The stroke: 500mm ();
4. Max load capacity: 2000N;
5. No load speed: 23mm/s;
6. Type of duty: 10%.
1. Button “UP1” and Button “DN1” are to control the lifting up and down of the office desk(self lock). Pressing button up1 and loose the finger, the office desk will lift up automatically. Pressing button DN1 at 1 time and loose the finger, the office desk will lift down automatically. It will stop when you press 1 of the button “UP1”, “UP2”, “DN1”, “DN2” in the process of automatically lifting up or down. (as pic 2)
2. Button “UP2”, “DN2” are to control the office desk up and down. Pressing button UP2, the desk will lift up and it will stop when you loose the finger. Pressing button DN2, the desk will lift down and will stop when you loose the finger. (as pic 2). (DN2 has the reset function too at the same time).
3. Reset button DN2 is used when the synchronous work of the office desk has the bigger accumulative tolerance and work abnormally. Pressing DN2 and not moving the finger, the desk will lift down all the time to the bottom. And then do not move your finger and keep pressing for 5 seconds, the office desk will have the rebound action which is up 5mm. It is a successful reset.
4. Memory button S need to work together with location key 1, 2, 3, 4. Firstly you need to set the memory location, for example when the desk lift up to 100mm location, you
Should press Key S and location button 1 at the same time. When the desk lift up to 200mm, press key S and button 2 at the same time. When the desk lift up to 300mm, press S and 3 at the same time. When the desk lift up to 400mm, press S and 4 at the same time. When we set well the location memory, we could use them. For example, when the desk is at any location, press button 1, the desk will be back to 100mm location. Press button 3, it is back to 300mm.
5. Digital display. When the desk lift up and down, the digital display will show the detail location and some code when the desk is in some special situation.
6. Used protection. When the desk work 3 minutes continuously, it will stop work automatically, and back to normal state after 999 seconds. Digital display will show “hot” code and count down 999 seconds.
| Style: | Modern |
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| Material: | Metal |
| Wood Style: | Panel |
| Input Voltage: | 110V/220VAC |
| Frequency: | 50-60Hz |
| Output Voltage: | DC24V |
| Samples: |
US$ 95/Piece
1 Piece(Min.Order) | |
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| Customization: |
Available
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Can motor bases accommodate motors with varying horsepower ratings?
Motor bases are designed to accommodate motors with varying horsepower ratings. Here’s a detailed explanation:
Motor bases are versatile mounting platforms that can accommodate a wide range of motors, including those with different horsepower ratings. The horsepower rating of a motor refers to its power output capability and is an important consideration when selecting a motor for a specific application.
Motor bases are typically designed to support a range of motor sizes and power ratings. They are manufactured with load-bearing capacities that can handle motors with varying horsepower requirements. The specific horsepower ratings that a motor base can accommodate will depend on its design, construction, and intended application.
When selecting a motor base, it’s important to consider the horsepower rating of the motor you intend to mount. Ensure that the motor base’s load-bearing capacity is sufficient to support the weight and dynamic forces generated by the motor during operation. Exceeding the load-bearing capacity of the motor base can lead to instability, increased vibrations, and potential safety hazards.
Motor bases are often labeled or specified with their load ratings, which indicate the maximum weight or horsepower they can support. It’s crucial to verify that the motor base’s load rating aligns with or exceeds the horsepower rating of the motor you plan to install.
Additionally, consider other factors such as the specific application requirements, environmental conditions, installation constraints, and any industry or safety standards. These considerations will help ensure that the motor base is suitable for the motor’s horsepower rating and the demands of the application.
It’s worth noting that while motor bases can accommodate motors with varying horsepower ratings, it’s essential to follow the manufacturer’s recommendations and guidelines for proper motor base selection, installation, and usage. Adhering to these guidelines ensures the motor base’s structural integrity, stability, and overall performance.
In summary, motor bases are designed to accommodate motors with varying horsepower ratings. They are manufactured with load-bearing capacities that can support a range of motor sizes and power requirements. When selecting a motor base, verify that its load rating aligns with or exceeds the horsepower rating of the motor being installed. By considering the specific requirements of the motor and the application, you can ensure a well-matched motor base that provides optimal support, stability, and performance.
Where can individuals find reliable information about choosing and installing motor bases?
Individuals looking for reliable information about choosing and installing motor bases can explore the following sources:
1. Manufacturer’s Documentation: Motor manufacturers often provide detailed documentation, including product catalogs, datasheets, and installation guides. These resources offer valuable information about their motor bases, including specifications, compatibility, installation requirements, and maintenance guidelines. Manufacturers’ websites are a good starting point to access this documentation.
2. Industry Associations and Standards Organizations: Industry associations and standards organizations such as the National Electrical Manufacturers Association (NEMA) and the International Electrotechnical Commission (IEC) publish guidelines, standards, and best practices related to motors and motor bases. Their websites and publications can provide valuable insights into motor base selection, installation, and compliance with industry standards.
3. Technical Literature and Journals: Technical literature and journals focusing on electrical engineering, mechanical engineering, or industrial automation often cover topics related to motors and motor bases. These publications feature articles, research papers, and case studies that can provide in-depth knowledge about motor base technology, advancements, and installation techniques.
4. Online Resources and Forums: Online resources such as websites, forums, and discussion boards dedicated to motors and motor-related topics can be valuable sources of information. Websites of motor manufacturers, industry blogs, and engineering forums often have sections or threads discussing motor base selection, installation tips, and best practices. Participating in these online communities can also allow individuals to ask specific questions and seek advice from industry professionals.
5. Consulting with Experts: Consulting with experts in the field, such as motor manufacturers, suppliers, or experienced engineers, can provide personalized guidance and recommendations. These experts can offer insights based on their industry knowledge, experience, and familiarity with specific motor applications. They can help individuals navigate the selection process, address installation challenges, and ensure proper motor base integration.
It’s important to cross-reference information from multiple sources to ensure accuracy and reliability. Motor bases play a critical role in motor performance and efficiency, and selecting the right base requires careful consideration of factors such as motor type, size, load requirements, environmental conditions, and alignment needs.
By leveraging the information from reliable sources and seeking expert advice when needed, individuals can make informed decisions when choosing and installing motor bases, resulting in optimal motor performance and longevity.
How does a motor base contribute to the stability and alignment of electric motors?
A motor base plays a crucial role in contributing to the stability and alignment of electric motors in industrial applications. Here’s a detailed explanation:
A motor base, also known as a motor mounting base or motor support base, provides essential support and alignment features that help ensure the stable and properly aligned positioning of electric motors. Here’s how a motor base contributes to stability and alignment:
1. Support and Weight Distribution: A motor base serves as a robust platform to support the weight of the electric motor. It helps distribute the motor’s weight evenly across the base, preventing excessive stress or strain on the motor and its mounting points. By providing adequate support, the motor base helps maintain the motor’s structural integrity and prevents any sagging or tilting that could lead to misalignment.
2. Adjustable Mounting Features: Motor bases often include adjustable features such as slotted holes or bolt patterns that allow for precise alignment of the motor. These adjustment options enable technicians to align the motor with connected equipment, such as pumps, fans, conveyors, or gearboxes. Proper alignment is crucial for efficient power transmission, minimizing wear and tear on the motor and connected components, and reducing the risk of mechanical failures.
3. Rigid Construction: Motor bases are typically constructed from sturdy materials like steel or cast iron, which provide rigidity and stability. The robust construction of the motor base helps absorb and dampen vibrations generated during motor operation, minimizing the transmission of vibrations to the surrounding equipment or structure. This vibration control contributes to the overall stability of the motor and its surrounding components.
4. Alignment Verification: Motor bases often include alignment verification features such as laser alignment systems or dial indicators. These tools assist technicians in precisely aligning the motor with connected equipment. By using these verification methods, technicians can ensure that the alignment is within specified tolerances, further enhancing stability and minimizing the risk of misalignment-related issues.
5. Secure Mounting: Motor bases are designed to securely attach the motor to the base, typically using bolts or fasteners. This secure mounting prevents any movement or shifting of the motor during operation, enhancing stability. It also helps maintain the alignment achieved during the installation process.
By providing support, adjustable alignment features, rigidity, alignment verification, and secure mounting, motor bases contribute significantly to the stability and alignment of electric motors in industrial applications. Proper stability and alignment are essential for optimal motor performance, reduced wear and tear, improved energy efficiency, and prolonged motor lifespan.
When installing a motor base, it’s crucial to follow manufacturer guidelines and ensure proper anchoring to the foundation or supporting structure. This helps maintain the integrity of the motor base and ensures the reliable operation of the motor.
In summary, a motor base is a critical component that contributes to the stability and alignment of electric motors by providing support, alignment adjustability, rigidity, alignment verification, and secure mounting, ultimately enhancing motor performance and reliability.
editor by CX 2023-12-11