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The pick body is made of high-quality alloy steel forgings, and the pick palm and tip are inlaid with wear-resistant alloy pieces, which significantly improves wear resistance, reduces the frequency of replacement at the construction site, and can significantly save labour and use costs. |
Various types can meet the operational adaptation needs of different types of tamping locomotives.
The pick body is forged from high-strength alloy steel, while the pick palm (contact surface with ballast) and tip are inlaid with tungsten carbide wear-resistant alloy. This combination extends the pick’s service life by 3x compared to standard carbon steel picks, reducing on-site replacements from once every 2 weeks to once every 2 months.
We offer 5 specialized models (CU30.6820-BE-FRI, CU30.2723-BE, CU30.8820-FR-I, CU30.8820-FR-V, CU30.10840-FR-VII) with varying lengths (505mm–591mm) and pick palm widths (77mm–138mm). This ensures compatibility with all major tamping locomotive brands (e.g., Plasser & Theurer, Harsco) and types (road-rail tampers, production tampers).
The pick’s tapered tip and optimized palm shape allow easy insertion into ballast layers (even compacted ones) and ensure uniform vibration transmission. This results in a 15% higher ballast density compared to poorly designed picks, directly improving track stability.
By reducing replacement frequency, the pick lowers labor costs (no need for frequent tamper downtime) and material costs (fewer picks purchased annually). A single pick can handle up to 500 hours of tamping operations—equivalent to maintaining 10km of track.
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The pick body is made of high-quality alloy steel forgings, and the pick palm and tip are inlaid with wear-resistant alloy pieces, which significantly improves wear resistance, reduces the frequency of replacement at the construction site, and can significantly save labour and use costs. |
Various types can meet the operational adaptation needs of different types of tamping locomotives.
The pick body is forged from high-strength alloy steel, while the pick palm (contact surface with ballast) and tip are inlaid with tungsten carbide wear-resistant alloy. This combination extends the pick’s service life by 3x compared to standard carbon steel picks, reducing on-site replacements from once every 2 weeks to once every 2 months.
We offer 5 specialized models (CU30.6820-BE-FRI, CU30.2723-BE, CU30.8820-FR-I, CU30.8820-FR-V, CU30.10840-FR-VII) with varying lengths (505mm–591mm) and pick palm widths (77mm–138mm). This ensures compatibility with all major tamping locomotive brands (e.g., Plasser & Theurer, Harsco) and types (road-rail tampers, production tampers).
The pick’s tapered tip and optimized palm shape allow easy insertion into ballast layers (even compacted ones) and ensure uniform vibration transmission. This results in a 15% higher ballast density compared to poorly designed picks, directly improving track stability.
By reducing replacement frequency, the pick lowers labor costs (no need for frequent tamper downtime) and material costs (fewer picks purchased annually). A single pick can handle up to 500 hours of tamping operations—equivalent to maintaining 10km of track.
The Tamping Pick is the heart of railway ballast tampers—a critical component that translates mechanical energy into effective ballast compaction. It works by transmitting high-frequency vibration waves and impact force to the ballast layer under sleepers, rearranging ballast particles into a tightly interlocked configuration. This process significantly boosts track lateral resistance and stability, preventing track displacement and reducing long-term settlement. Unlike generic tamping picks, ours stands out for its exceptional durability (high-quality alloy steel forging + wear-resistant alloy inlays) and broad compatibility (multiple models for different tamper types). With a standard quantity of 1 unit, it is a cost-effective solution for railway operators, as it cuts down on replacement frequency and labor costs associated with frequent part swaps.
| Model | Length | Width of pick palm |
| CU30.6820-BE-FRI | 591 | 138 |
| CU30.2723-BE | 533 | 138 |
| CU30.8820-FR-I | 505 | 132 |
| CU30.8820-FR-V | 505 | 98.5 |
| CU30.10840-FR-VII | 505 | 77 |
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The Tamping Pick is the heart of railway ballast tampers—a critical component that translates mechanical energy into effective ballast compaction. It works by transmitting high-frequency vibration waves and impact force to the ballast layer under sleepers, rearranging ballast particles into a tightly interlocked configuration. This process significantly boosts track lateral resistance and stability, preventing track displacement and reducing long-term settlement. Unlike generic tamping picks, ours stands out for its exceptional durability (high-quality alloy steel forging + wear-resistant alloy inlays) and broad compatibility (multiple models for different tamper types). With a standard quantity of 1 unit, it is a cost-effective solution for railway operators, as it cuts down on replacement frequency and labor costs associated with frequent part swaps.
| Model | Length | Width of pick palm |
| CU30.6820-BE-FRI | 591 | 138 |
| CU30.2723-BE | 533 | 138 |
| CU30.8820-FR-I | 505 | 132 |
| CU30.8820-FR-V | 505 | 98.5 |
| CU30.10840-FR-VII | 505 | 77 |
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Cooperate with the tamping machine to adjust the horizontal position of the sleeper and correct the track gauge deviation, Specific usage scenarios:
• New track construction: Compacting ballast layers for newly laid sleepers, ensuring the track bed meets load-bearing standards before train operations.
• Periodic maintenance: Enhancing ballast density during regular track upkeep (e.g., quarterly or annual inspections) to prevent gradual settlement.
• Defect repair: Fixing localized ballast loosening caused by weather (e.g., heavy rain washing out ballast) or train impact, restoring track stability quickly.
• Overhaul projects: Supporting large-scale track overhauls (e.g., sleeper replacement) by recompacting ballast around new components.

Specific usage scenarios:
Tamping operation of new railway track bed.
Specific usage scenarios:
Improve the ballast density during periodic maintenance, defect repair and overhaul of existing lines.
Cooperate with the tamping machine to adjust the horizontal position of the sleeper and correct the track gauge deviation, Specific usage scenarios:
• New track construction: Compacting ballast layers for newly laid sleepers, ensuring the track bed meets load-bearing standards before train operations.
• Periodic maintenance: Enhancing ballast density during regular track upkeep (e.g., quarterly or annual inspections) to prevent gradual settlement.
• Defect repair: Fixing localized ballast loosening caused by weather (e.g., heavy rain washing out ballast) or train impact, restoring track stability quickly.
• Overhaul projects: Supporting large-scale track overhauls (e.g., sleeper replacement) by recompacting ballast around new components.

Specific usage scenarios:
Tamping operation of new railway track bed.
Specific usage scenarios:
Improve the ballast density during periodic maintenance, defect repair and overhaul of existing lines.