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Point Larger than Shank Ball Lock Punches Heavy Duty, Inch

Point Larger than Shank Ball Lock Punches Heavy Duty, Inch

Point Larger than Shank Ball Lock Punches Heavy Duty, Inch are designed for stable ball-lock retention and reliable ejection in high-load die sets. The larger point improves engagement and performance in demanding production cycles.

  • Ball-lock punch geometry supports consistent ejection in tooling
  • XNA coating for reduced friction and wear resistance
  • Inch heavy-duty construction suited for robust die applications
  • Ideal for progressive stamping and press tooling requiring secure retention
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Specifications

133 configurations available

Tip ShapeD (Shank dia.) (in)L (Length) (coded inch)P Dimension (in)W Dimension (in)R Dimension (in)
H37 (0.3750")250 ~ 4500.376 ~ 0.8750.062 ~ 0.124-
H37 (0.3750")250 ~ 4500.376 ~ 0.8750.125 ~ 0.875-
H50 (0.5000")250 ~ 4500.501 ~ 1.250.158 ~ 0.187-
H50 (0.5000")250 ~ 4500.501 ~ 1.250.188 ~ 1.25-
H62 (0.6250")250 ~ 4500.626 ~ 1.50.25 ~ 1.5-
H62 (0.6250")250 ~ 4500.626 ~ 1.50.158 ~ 0.249-
H75 (0.7500")250 ~ 4500.751 ~ 1.50.235 ~ 0.311-
H75 (0.7500")250 ~ 4500.751 ~ 1.50.312 ~ 1.5-
H87 (0.8750")250 ~ 4500.876 ~ 1.750.235 ~ 0.374-
H87 (0.8750")250 ~ 4500.876 ~ 1.750.375 ~ 1.75-
H100 (1.0000")250 ~ 4501.001 ~ 1.750.235 ~ 0.436-
H100 (1.0000")250 ~ 4501.001 ~ 1.750.437 ~ 1.75-
H125 (1.2500")275 ~ 4501.251 ~ 20.5 ~ 2-
H125 (1.2500")275 ~ 4501.251 ~ 20.281 ~ 0.499-
J37 (0.3750")250 ~ 4500.376 ~ 0.8750.062 ~ 0.124-
J37 (0.3750")250 ~ 4500.376 ~ 0.8750.125 ~ 0.875-
J50 (0.5000")250 ~ 4500.501 ~ 1.250.158 ~ 0.187-
J50 (0.5000")250 ~ 4500.501 ~ 1.250.188 ~ 1.25-
J62 (0.6250")250 ~ 4500.626 ~ 1.50.25 ~ 1.5-
J62 (0.6250")250 ~ 4500.626 ~ 1.50.158 ~ 0.249-
J75 (0.7500")250 ~ 4500.751 ~ 1.50.235 ~ 0.311-
J75 (0.7500")250 ~ 4500.751 ~ 1.50.312 ~ 1.5-
J87 (0.8750")250 ~ 4500.876 ~ 1.750.235 ~ 0.374-
J87 (0.8750")250 ~ 4500.876 ~ 1.750.375 ~ 1.75-
J100 (1.0000")250 ~ 4501.001 ~ 1.750.235 ~ 0.436-
J100 (1.0000")250 ~ 4501.001 ~ 1.750.437 ~ 1.75-
J125 (1.2500")275 ~ 4501.251 ~ 20.5 ~ 2-
J125 (1.2500")275 ~ 4501.251 ~ 20.281 ~ 0.499-
K37 (0.3750")250 ~ 4500.376 ~ 0.8750.062 ~ 0.1240.007 ~ 0.4375
K37 (0.3750")250 ~ 4500.376 ~ 0.8750.125 ~ 0.8750.007 ~ 0.4375
K50 (0.5000")250 ~ 4500.501 ~ 1.250.158 ~ 0.1870.007 ~ 0.625
K50 (0.5000")250 ~ 4500.501 ~ 1.250.188 ~ 1.250.007 ~ 0.625
K62 (0.6250")250 ~ 4500.626 ~ 1.50.25 ~ 1.50.007 ~ 0.75
K62 (0.6250")250 ~ 4500.626 ~ 1.50.158 ~ 0.2490.007 ~ 0.75
K75 (0.7500")250 ~ 4500.751 ~ 1.50.235 ~ 0.3110.007 ~ 0.75
K75 (0.7500")250 ~ 4500.751 ~ 1.50.312 ~ 1.50.007 ~ 0.75
K87 (0.8750")250 ~ 4500.876 ~ 1.750.235 ~ 0.3740.007 ~ 0.875
K87 (0.8750")250 ~ 4500.876 ~ 1.750.375 ~ 1.750.007 ~ 0.875
K100 (1.0000")250 ~ 4501.001 ~ 1.750.235 ~ 0.4360.007 ~ 0.875
K100 (1.0000")250 ~ 4501.001 ~ 1.750.437 ~ 1.750.007 ~ 0.875
K125 (1.2500")275 ~ 4501.251 ~ 20.5 ~ 20.007 ~ 1
K125 (1.2500")275 ~ 4501.251 ~ 20.281 ~ 0.4990.007 ~ 1
L37 (0.3750")250 ~ 4500.376 ~ 0.8750.062 ~ 0.124-
L37 (0.3750")250 ~ 4500.376 ~ 0.8750.125 ~ 0.875-
L50 (0.5000")250 ~ 4500.501 ~ 1.250.158 ~ 0.187-
L50 (0.5000")250 ~ 4500.501 ~ 1.250.188 ~ 1.25-
L62 (0.6250")250 ~ 4500.626 ~ 1.50.25 ~ 1.5-
L62 (0.6250")250 ~ 4500.626 ~ 1.50.158 ~ 0.249-
L75 (0.7500")250 ~ 4500.751 ~ 1.50.235 ~ 0.311-
L75 (0.7500")250 ~ 4500.751 ~ 1.50.312 ~ 1.5-

Product Guide

🏭Application Scenarios+

This heavy-duty ball-lock punch variant is used in injection and stamping tooling where repeatable ejection and secure retention are critical, especially under high cycle loads. The larger point improves engagement with mating components, helping maintain stable ball-lock fit during frequent actuation.

  • Automotive and appliance stamping dies: Suitable for progressive stamping operations that experience abrasive wear and misalignment risk, where the XNA coating helps reduce friction and wear at the point interface.
  • High-load die sets and multi-station tooling: The ball-lock geometry supports consistent retention and reliable ejection, reducing the chance of point-side galling that can lead to sticking.
  • Thick-gauge or wear-prone production runs: The inch heavy-duty construction is selected when robust ejection performance is required across demanding production cycles.

Choose the point shape (H, J, K, L, N, O, R, V, X, Y, Z) that matches your cavity/core contact profile to ensure consistent clearance and contact area.

🔧Material & Process Details+

The provided specifications for this product focus on geometry and coating rather than a named steel grade, so the material selection should be based on your tooling supplier’s corresponding punch steel family for DAYTON heavy-duty ball-lock punches. For this variant, the key functional surface feature is the XNA coating, which is intended to lower friction and mitigate point wear during ejection.

  • XNA coating: Helps reduce wear and friction at the sliding/contact zone, improving stability in high-frequency production.
  • Wear vs. toughness trade-off: In ball-lock punch systems, the point region typically benefits from a wear-resistant surface while the shank relies on bulk toughness to tolerate impact loads during cycling.

If you need heat treatment details (e.g., pre-hardened vs. quenched & tempered, nitrided), confirm with your internal standard or request the corresponding material/heat-treatment datasheet from Axiom Molds for series 250300512627.

📐Sizing & Selection Guide+

Select dimensions by matching your mold/die cavity geometry and the required ejection contact profile. This product supports multiple tip shapes (H, J, K, L, N, O, R, V, X, Y, Z) and must be chosen to match the mating feature on the part or stripper.

  • Shank diameter D: Choose within 37 ~ 125 in range (per your series listing).
  • P dimension: Select 0.376 ~ 1.251 in based on the point/step engagement geometry you need.
  • W dimension: Select 0.062 ~ 1.083 in to match the localized contact width/land requirements.
  • Length L (coded inch): Available ranges include 250 ~ 450 and 275 ~ 450; ensure the punch length supports correct guide reach and travel without bottoming.

For ball-lock retention, verify that your mating block pocket and ball seat dimensions align with the selected D and point geometry; follow your tooling’s clearance and fit practice to prevent binding while maintaining secure retention.

Frequently Asked Questions

Which tip shape options (H–Z) should be selected for a ball-lock punch point that needs stable engagement?+
This series supports multiple Tip Shape codes: H, J, K, L, N, O, R, V, X, Y, Z. Select the tip shape that matches your mating feature’s contact profile so the larger point maintains consistent engagement during ejection. If you have strict clearance requirements, confirm the chosen P and W dimensions also fit your cavity/core interface.
How do I size the ball-lock punch for correct retention—what should I check first?+
Start with the shank diameter D (listed range 37 ~ 125 in) because it must match the retention pocket/guide bore in your tooling. Then confirm overall Length L using either 250 ~ 450 or 275 ~ 450 ranges to ensure proper travel without bottoming. Finally, verify point geometry via P (0.376 ~ 1.251 in) and W (0.062 ~ 1.083 in) against the part release interface.
What is the benefit of the XNA coating for high-load ejection cycles?+
The product description specifies an XNA coating intended to reduce friction and wear at the point contact zone. In high-load or high-frequency production, reduced friction helps maintain smoother movement and lowers the risk of sticking or accelerated wear. Use this coating when your die/punch interface experiences abrasive contact or elevated cycling.
Can I substitute another ball-lock punch with different geometry—what dimensions are most critical?+
Substitution should be limited unless the critical interface dimensions match your tooling. At minimum, confirm D (shank diameter) and overall L so retention and travel geometry remain correct. Also match the point region dimensions P and W, and ensure the chosen Tip Shape aligns with the mating feature.
How should I use the R dimension range when verifying contact radius and clearance?+
The series provides an R dimension range with multiple options: 0.007 ~ 0.4375, 0.007 ~ 0.625, 0.007 ~ 0.75, 0.007 ~ 0.875, and 0.007 ~ 1. Choose the R value that supports your desired contact radius at the point interface. Verify that the radius does not violate clearance in your cavity/core or stripper design to prevent interference during ejection.

Need Custom Specifications?

Our engineering team can help with custom configurations, material selection, and volume pricing.