Flexible Electrical Insulation Wire Pipe Parts Motor Tubes Oil Transformer Crepe Paper Tube
benefits of Using flexible Electrical insulation Wire Pipe Parts Flexible electrical insulation wire pipe parts are essential components in various electrical systems, providing protection and insulation to prevent electrical failures and ensure the safety of the equipment and personnel. These parts are commonly used in motors, transformers, and other electrical devices to shield against electrical…
benefits of Using flexible Electrical insulation Wire Pipe Parts
Flexible electrical insulation wire pipe parts are essential components in various electrical systems, providing protection and insulation to prevent electrical failures and ensure the safety of the equipment and personnel. These parts are commonly used in motors, transformers, and other electrical devices to shield against electrical currents and prevent short circuits. One popular material used for flexible electrical insulation wire pipe parts is crepe paper tube, known for its flexibility, durability, and excellent insulating properties. One of the key benefits of using flexible electrical insulation wire pipe parts is their ability to withstand high temperatures. Crepe paper tubes are designed to resist heat and can withstand temperatures up to 130 degrees Celsius, making them ideal for use in high-temperature environments such as motors and transformers. This heat resistance helps prevent the insulation from melting or degrading, ensuring the safety and reliability of the electrical system. In addition to their heat resistance, flexible electrical insulation wire pipe parts also offer excellent electrical insulation properties. Crepe paper tubes are made from high-quality insulating materials that effectively block electrical currents, preventing short circuits and electrical failures. This insulation helps maintain the integrity of the electrical system and ensures smooth operation without the risk of electrical hazards. Furthermore, flexible electrical insulation wire pipe parts are lightweight and easy to install, making them a convenient and cost-effective solution for electrical insulation needs. Crepe paper tubes are flexible and can be easily bent or shaped to fit the specific requirements of the electrical system, allowing for easy installation in tight spaces or complex configurations. This flexibility also makes Maintenance and Repairs more manageable, as the parts can be easily removed and replaced as needed. Another advantage of using flexible electrical insulation wire pipe parts is their resistance to moisture and chemicals. Crepe paper tubes are designed to repel water and resist corrosion, making them suitable for use in damp or corrosive environments. This moisture resistance helps prevent the insulation from deteriorating over time, ensuring long-lasting protection for the electrical system. Overall, flexible electrical insulation wire pipe parts offer a range of benefits that make them an essential component in electrical systems. From their heat resistance and electrical insulation properties to their lightweight design and moisture resistance, crepe paper tubes provide reliable protection and ensure the safety and efficiency of electrical equipment. Whether used in motors, transformers, or other electrical devices, these flexible insulation parts play a crucial role in maintaining the integrity and performance of the electrical system.How to Properly Maintain and Extend the Lifespan of Crepe Paper Tubes in Transformers
Crepe paper tubes are commonly used in transformers as electrical insulation to protect the components from damage and ensure the smooth operation of the equipment. These tubes are made from high-quality crepe paper that is specially treated to provide excellent insulation properties. However, like any other component in a transformer, crepe paper tubes require proper maintenance to ensure their longevity and effectiveness.Labels a | Calculated Mass c | ||||||||||
Nominal linear Mass T& C b,c | Wall thick– ness | em, Mass Gain or Loss Due to End Finishing d | |||||||||
Outside diameter | Inside Diameter | Drift Diameter | Plain- end | kg | |||||||
Round thread | Buttress Thread | ||||||||||
wpe | |||||||||||
D | kg/m | t | D | mm | kg/m | Short | Long | RC | SCC | ||
mm | mm | mm | |||||||||
1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 | 12 |
13 3/8 | 48 | 339.72 | 71.43 | 8.38 | 322.96 | 318.99 | 68.48 | 15.04 | — | — 17.91 | — |
13 3/8 | 54.5 | 339.72 | 81.1 | 9.65 | 320.42 | 316.45 | 78.55 | 13.88 | — | 16.44 | — |
13 3/8 | 61 | 339.72 | 90.78 | 10.92 | 317.88 | 313.91 | 88.55 | 12.74 | — | 14.97 | — |
13 3/8 | 68 | 339.72 | 101.19 | 12.19 | 315.34 | 311.37 | 98.46 | 11.61 | — | 14.97 | — |
13 3/8 | 68 | 339.72 | 101.19 | 12.19 | 315.34 | 311.37 | 98.46 | 11.67 f | — | 14.33 | — |
13 3/8 | 72 | 339.72 | 107.15 | 13.06 | 313.6 | 311.15 e | 105.21 | 10.98 | — | 13.98 | — |
13 3/8 | 72 | 339.72 | 107.15 | 13.06 | 313.6 | 311.15 e 309.63 309.63 | 105.21 | 10.91 f | — | 14.33 | — |
13 3/8 | 72 | 339.72 | 107.15 | 13.06 | 313.6 | 105.21 | 10.98 | — | 13.98 | — | |
13 3/8 | 72 | 339.72 | 107.15 | 13.06 | 313.6 | 105.21 | 10.91 e | — | — | ||
16 | 65 | 406.4 | 96.73 | 9.53 | 387.4 | 382.57 | 96.73 | 18.59 | — | — 20.13 | — |
16 | 75 | 406.4 | 111.61 | 11.13 | 384.1 | 379.37 | 108.49 | 16.66 | — | 18.11 | — |
16 | 84 | 406.4 | 125.01 | 12.57 | 381.3 | 376.48 | 122.09 | 14.92 | — | — | — |
16 | 109 | 406.4 | 162.21 | 16.66 | 373.1 | 368.3 | 160.13 | — | — | — | |
18 5/8 | 87.5 | 473.08 | 130.21 | 11.05 | 450.98 | 446.22 | 125.91 | 33.6 | — | 39.25 | — |
20 | 94 | 508 | 139.89 | 11.13 | 485.7 | 480.97 | 136.38 | 20.5 | 27.11 | 24.78 | — |
20 | 94 | 508 | 139.89 | 11.13 | 485.7 | 480.97 | 136.38 | 20.61 | 27.26 g 24.27 17.84 | 24.78 | — |
20 | 106.5 | 508 | 158.49 | 12.7 | 482.6 | 477.82 | 155.13 | 18.22 | 22 | — | |
20 | 133 | 508 | 197.93 | 16.13 | 475.7 | 470.97 | 195.66 | 13.03 | 16.02 | — | |
NOTE See also Figures D.1, D.2, and D.3. | |||||||||||
a Labels are for information and assistance in ordering. | |||||||||||
b Nominal linear masses, threaded and coupled (Column 4) are shown for information only. | |||||||||||
c The densities of martensitic chromium steels (L80 Types 9Cr and 13Cr) are less than those of carbon steels; The masses shown are therefore not accurate for martensitic chromium steels; A mass correction factor of 0.989 shall be used. | |||||||||||
d Mass gain or loss due to end finishing; See 8.5. | |||||||||||
e Drift diameter for most common bit size; This drift diameter shall be specified in the purchase agreement and marked on the pipe; See 8.10 for drift requirements. | |||||||||||
f based on 758 mPa minimum yield strength or greater. | |||||||||||
g Based on 379 mPa minimum yield strength. |
