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1. Many machining workshops frequently encounter issues with standard motors lacking sufficient power when machining hard materials such as steel, stainless steel, titanium alloys and cemented carbides:

The machining industry is currently undergoing a gradual transition towards automation and intelligent manufacturing. However, the motors fitted to many older machines do not support integration with CNC systems or automated interlinking, making them incompatible with automatic tool changing and batch programmed machining. As a result, enterprises are forced to rely on manual operation, which is labour-intensive and results in low production efficiency. This makes it difficult to achieve standardised and intelligent production, and prevents them from keeping pace with the industry’s pace of modernisation.

The machining industry is currently undergoing a gradual transition towards automation and intelligent manufacturing. However, the motors fitted to many older machines do not support integration with CNC systems or automated interlinking, making them incompatible with automatic tool changing and batch programmed machining. As a result, enterprises are forced to rely on manual operation, which is labour-intensive and results in low production efficiency. This makes it difficult to achieve standardised and intelligent production, and prevents them from keeping pace with the industry’s pace of modernisation.

Industrial processing equipment operates continuously over long periods, with motors being the primary consumers of electricity. Traditional standard motors are characterised by high energy consumption, significant power loss and substantial wasteful power usage; long-term mass production results in high electricity bills, thereby increasing a company’s production and operational costs.

Cutting tools are the core consumables in drilling and milling operations. Traditional motors suffer from unstable cutting power, excessive vibration and uneven feed rates; as a result, cutting tools are subjected to uneven forces during machining, making them highly susceptible to problems such as premature wear, chipping, breakage and deformation. This leads to frequent tool replacement, keeping monthly consumables procurement costs high; moreover, tool damage can directly result in workpieces being scrapped, thereby doubling production costs.

1. Mass industrial production requires equipment to operate continuously for extended periods. Standard spindle cooling systems are rudimentary; under high-load conditions, heat accumulates rapidly, leading to thermal deformation, speed drift and loss of precision. 2. Common faults include: whilst the first workpiece may meet specifications, subsequent production runs result in increased dimensional deviations, misaligned holes and inconsistent engraving depths. This may also trigger overheating shutdown protection, interrupting assembly line production.

1. Standard spindle bearings suffer from low precision and poor dynamic balance. During high-speed operation, they produce severe vibrations and piercing noise. This not only causes workshop noise levels to exceed standards and creates a poor working environment—posing a risk to operators’ health—but also triggers resonance throughout the machine, leading to tool vibration, rough machining surfaces and chipping of workpieces.

Many international customers have reported that manufacturing plants face the long-standing challenge of scattered process equipment: cutting requires dedicated cutting machines, which are numerous, take up a lot of space, and incur high procurement costs. This leads to cramped facilities, extremely high equipment idling rates, and enormous pressure on companies to invest in equipment. Traditional standard motors cannot clamp saw blades and are incapable of high-speed cutting, severely limiting the scope of operations.

Applications: Woodworking machinery, aluminum profile processing equipment, stone processing equipment After cutting, workpieces often have rough cross-sections, raised weld scars, and sharp edges. Traditional handheld grinders suffer from low power, unstable rotational speeds, and low grinding efficiency. Manual operation involves significant vibration, resulting in uneven grinding and an uneven workpiece surface. Furthermore, manual grinding is time-consuming and labor-intensive, with high labor costs, making it impossible to keep pace with production demands for batch processing.