Graphite Electrodes Size/Weight Chart
| Name | Pole diameter | Pole length | Pole weight (reference value) | |||
|---|---|---|---|---|---|---|
| Diameter x length | Maximum | Minimum | Maximum | Minimum | Pole product weight (excluding nipple) | |
| inch | mm | mm | mm | mm | mm | kg |
| 14×60 | 350×1500 | 357 | 352 | 1550 | 1400 | 253 |
| 14×72 | 350×1800 | 1875 | 1700; | 304 | ||
| 14×96 | 350×2400 | 2475 | 2275 | 406 | ||
| 16×60 | 400×1500 | 409 | 403 | 1550 | 1400 | 334 |
| 16×72 | 400×1800 | 1875 | 1700 | 395 | ||
| 16×96 | 400×2400 | 2475 | 2275 | 532 | ||
| 18×72 | 450×1800 | 460 | 454 | 1875 | 1700 | 496 |
| 18×96 | 450×2400 | 2475 | 2275 | 665 | ||
| 18×110 | 450×2700 | 2850 | 2550 | 766 | ||
| 20×72 | 500×1800 | 511 | 505 | 1875 | 1700 | 614 |
| 20×84 | 500×2100 | 2175 | 1975 | 715 | ||
| 20×96 | 500×2400 | 2475 | 2275 | 824 | ||
| 20×110 | 500×2700 | 2850 | 2550 | 927 | ||
| 22×84 | 550×2100 | 562 | 556 | 2175 | 1975 | 873 |
| 22×96 | 550×2400 | 2475 | 2275 | 995 | ||
| 24×84 | 600×2100 | 613 | 607 | 2175 | 1975 | 1040 |
| 24×96 | 600×2400 | 2475 | 2275 | 1190 | ||
| 24×110 | 600×2700 | 2850 | 2550 | 1340 | ||
| 26×110 | 650×2700 | 663 | 657 | 2850 | 2550 | 1580 |
| 28×110 | 700×2700 | 714 | 708 | 2850 | 2550 | 1830 |
| 30×110 | 750×2700 | 765 | 759 | 2850 | 2550 | 2060 |
| 32×110 | 800×2700 | 816 | 810 | 2850 | 2550 | 2450 |
How do graphite electrodes contribute to the efficiency and reliability of industrial operations?
Graphite electrodes play a pivotal role in enhancing the efficiency and reliability of industrial operations, particularly in sectors that rely on high-temperature and high-energy processes such as steelmaking, metal refining, and specialty material production. Their unique combination of electrical conductivity, thermal resistance, and mechanical durability makes them indispensable in applications where consistent performance is critical.
In electric arc furnaces, for example, graphite electrodes conduct high currents to generate the intense heat necessary for melting scrap metal and other raw materials. The efficiency of this process is directly influenced by the quality and performance of the electrodes. High-performance graphite electrodes reduce energy loss, maintain stable arcs, and minimize electrode consumption, all of which contribute to lower operational costs and higher output quality. Reliability is another critical factor. Industrial processes often run continuously, and any failure in components like electrodes can lead to significant downtime, safety risks, and financial losses. Graphite electrodes, especially those of premium or UHP grades, are engineered to withstand extreme conditions without cracking, degrading, or failing prematurely. Their ability to maintain consistent performance over long operational periods ensures uninterrupted production and enhances overall process reliability.
Furthermore, the versatility of graphite electrodes allows them to be customized for specific industrial needs, ensuring optimal fit and function in diverse applications. Whether in large-scale metallurgical plants or precision manufacturing setups, graphite electrodes contribute to smoother operations, improved product consistency, and greater energy efficiency. By investing in high-quality graphite electrodes, industries can achieve a balance between performance, cost-efficiency, and reliability, driving sustainable growth and competitive advantage.
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