7Y0204
YASSIAN or Your's
Caterpillar
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Product Description
Construction Machinery Components
As vital components of construction machinery, the quality of these parts directly impacts the overall performance and reliability of equipment. With the rapid development of the construction machinery industry, demand in the components market continues to grow, and technical standards are constantly rising. Modern construction machinery components must not only meet fundamental requirements such as high strength and wear resistance but also adapt to the trends toward intelligent and green development. Currently, the engineering machinery parts industry is undergoing a critical transition from traditional manufacturing to precision and specialization, where technological innovation and quality management have become core competitive factors. Simultaneously, with the advancement of international cooperation initiatives like the Belt and Road Initiative, the scale of engineering machinery parts exports continues to expand, placing higher demands on international standardization and adaptability. The processing quality of engineering machinery parts directly impacts equipment operational efficiency and service life, with its quality control system encompassing multiple critical stages. First, raw material selection serves as the foundation, requiring rigorous testing of metal properties such as hardness and toughness to prevent premature failure due to material defects. Second, manufacturing process control is paramount, encompassing optimized heat treatment parameters and tolerance precision assurance—for instance, achieving micron-level machining accuracy through CNC programming. Furthermore, error-proofing technologies in assembly effectively reduce human error, such as employing smart torque wrenches to ensure reliable bolt connections. Modern quality control integrates digital tools, using IoT sensors to monitor real-time parameters like vibration and temperature during processing, combined with big data analytics to predict potential defects. Notably, quality control must span the entire component lifecycle—from FMEA analysis in R&D to fault tracing in after-sales service—forming a closed-loop management system. Optimizing the management system for construction machinery components is central to enhancing equipment reliability and operational efficiency. The industry currently faces widespread issues like low inventory turnover rates and insufficient digitalization, urgently requiring refined management through standardized processes and digital tools. First, establish a parts classification and coding system, implementing ABC classification management based on usage frequency, procurement cycles, and other dimensions, while setting safety stock thresholds for critical components. Second, integrate supply chain data through ERP systems to achieve end-to-end visibility from procurement demand forecasting to disposal, such as using RFID technology for real-time tracking of parts flow. Furthermore, establishing a supplier evaluation mechanism is crucial. This requires comprehensively assessing metrics like on-time delivery rates and quality compliance rates, while implementing strategic partnerships with core suppliers. In warehousing, adopting smart shelving and AGV transport robots can enhance space utilization. Simultaneously, data analysis should optimize part layout to reduce retrieval times. Notably, the management system must dynamically adapt to equipment renewal cycles, regularly evaluating part consumption patterns to adjust management strategies. Engineering plastics are progressively reshaping the technical landscape of mechanical components. In exhaust hood components, for instance, polyetheretherketone (PEEK) materials have successfully replaced metal gearbox assemblies due to their high-temperature resistance and self-lubricating properties. This substitution reduces operational noise by over 15% while achieving a 30% weight reduction. In construction machinery, ultra-high molecular weight polyethylene (UHMWPE) liners applied to excavator buckets exhibit wear resistance 4-7 times that of manganese steel, significantly extending replacement cycles. Notably, glass fiber-reinforced nylon composites achieve tensile strength approaching that of low-carbon steel, enabling their widespread use in load-bearing components like hydraulic valve blocks. These innovations not only reduce equipment energy consumption but also facilitate integrated manufacturing of complex structures through injection molding, minimizing assembly errors associated with traditional machining processes.
Part No. | Description |
4 HOLES SIDE CUTTER | 61EE-01260 |
61EE-01261 | |
3 HOLES SIDE CUTTER | CLZ-01 I D |
4 HOLES SIDE CUTTER | 61E3-3033 |
61E3-3034 | |
5 HOLES SIDE CUTTER | 61E3LR |
5 HOLES SIDE CUTTER | 63E1-3533/61E3-3533 |
63E1-3534/61E3-3534 | |
HL17/740/750 | 61L3-0169 |
HL17/740/750 | 61L3-0171 |
HL17/740/750 | 61L3-0170 |
HL25/35/760/770 | 61L1-3022 |
HL25/35/760/770 | 61L1-3028 |
HL25/35/760/770 | 61L1-3029 |
DH290 DH330 SIDE CUTTER | 2713-6034 |
2713-6035 | |
DH55 3HOLES | 2713-6050 2713-6051 |
DH150 4HOLES | 2713-1228 2713-1229 |
DH220 5HOLES | DH220LR 2713-1059/2713-1060 |
DH280 6HOLES | DH280LR 2713-1047/2713-1048 |
DH420 6HOLES | 2713-1241 2713-1242 |
DH80-110 | 2713-1232 2713-1233 |
SK75 | SK75 1133 LR |
SK100 SIDE CUTTER ( 4HOLES) | SK100LR 2412N278D1/2412N278D2 |
SK200 SIDE CUTTER (4 HOLES) | SK200LR 2412J351D1/2412J351D2 |
SK200 SIDE CUTTER (5 HOLES) | 2412N289D1/2412N289D2 |
SK230 SIDE CUTTER (5HOLES) | SK230LR |
SK350-8 5 | SG350BC |