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DAYTON XCDP Coated Ball Lock Regular Punches - Light Duty, Metric

DAYTON XCDP Coated Ball Lock Regular Punches - Light Duty, Metric

Ball lock regular punches (DAYTON XCDP coating) are designed for light-duty metric applications, providing stable locating action during press and mold work. The ball-lock profile helps maintain reliable punch position for consistent part release.

  • Ball lock geometry supports secure punch retention for repeatable ejection
  • DAYTON XCDP coating enhances surface wear resistance in production
  • Metric configuration supports compatibility with standard punch tooling systems
  • Ideal for light-duty stamping, forming, and general die work
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Specifications

336 configurations available

Tip ShapeMaterialD (Shank dia.) (mm)L1 (Point Length) (mm)L (Length) (mm)P Dimension (mm)W Dimension (mm)R Dimension (mm)
HM20610 ~ 1363 ~ 1001.4 ~ 5.971.4 ~ 2.09-
HM20610 ~ 1363 ~ 1001.4 ~ 5.972.1 ~ 5.97-
HPS40610 ~ 1363 ~ 1001.4 ~ 5.971.4 ~ 2.09-
HPS40610 ~ 1363 ~ 1001.4 ~ 5.972.1 ~ 5.97-
HM21010 ~ 1963 ~ 1001.5 ~ 9.971.5 ~ 2.09-
HM21010 ~ 1963 ~ 1001.5 ~ 9.972.1 ~ 9.97-
HPS41010 ~ 1963 ~ 1001.5 ~ 9.971.5 ~ 2.09-
HPS41010 ~ 1963 ~ 1001.5 ~ 9.972.1 ~ 9.97-
HM21313 ~ 2563 ~ 1004 ~ 12.974 ~ 4.49-
HM21313 ~ 2563 ~ 1004 ~ 12.974.5 ~ 12.97-
HPS41313 ~ 2563 ~ 1004 ~ 12.974 ~ 4.49-
HPS41313 ~ 2563 ~ 1004 ~ 12.974.5 ~ 12.97-
HM21613 ~ 2563 ~ 1004 ~ 15.974 ~ 5.99-
HM21613 ~ 2563 ~ 1004 ~ 15.976 ~ 15.97-
HPS41613 ~ 2563 ~ 1004 ~ 15.974 ~ 5.99-
HPS41613 ~ 2563 ~ 1004 ~ 15.976 ~ 15.97-
HM22013 ~ 2563 ~ 1006 ~ 19.976 ~ 7.99-
HM22013 ~ 2563 ~ 1006 ~ 19.978 ~ 19.97-
HPS42013 ~ 2563 ~ 1006 ~ 19.976 ~ 7.99-
HPS42013 ~ 2563 ~ 1006 ~ 19.978 ~ 19.97-
HM22513 ~ 2563 ~ 1006 ~ 24.976 ~ 9.99-
HM22513 ~ 2563 ~ 1006 ~ 24.9710 ~ 24.97-
HPS42513 ~ 2563 ~ 1006 ~ 24.976 ~ 9.99-
HPS42513 ~ 2563 ~ 1006 ~ 24.9710 ~ 24.97-
HM23213 ~ 2571 ~ 1007.2 ~ 31.977.2 ~ 12.49-
HM23213 ~ 2571 ~ 1007.2 ~ 31.9712.5 ~ 31.97-
HPS43213 ~ 2571 ~ 1007.2 ~ 31.977.2 ~ 12.49-
HPS43213 ~ 2571 ~ 1007.2 ~ 31.9712.5 ~ 31.97-
HM23819 ~ 3080 ~ 1007.2 ~ 37.977.2 ~ 13.99-
HM23819 ~ 3080 ~ 1007.2 ~ 37.9714 ~ 37.97-
HPS43819 ~ 3080 ~ 1007.2 ~ 37.977.2 ~ 13.99-
HPS43819 ~ 3080 ~ 1007.2 ~ 37.9714 ~ 37.97-
JM20610 ~ 1363 ~ 1001.4 ~ 5.971.4 ~ 2.09-
JM20610 ~ 1363 ~ 1001.4 ~ 5.972.1 ~ 5.97-
JPS40610 ~ 1363 ~ 1001.4 ~ 5.971.4 ~ 2.09-
JPS40610 ~ 1363 ~ 1001.4 ~ 5.972.1 ~ 5.97-
JM21010 ~ 1963 ~ 1001.5 ~ 9.971.5 ~ 2.09-
JM21010 ~ 1963 ~ 1001.5 ~ 9.972.1 ~ 9.97-
JPS41010 ~ 1963 ~ 1001.5 ~ 9.971.5 ~ 2.09-
JPS41010 ~ 1963 ~ 1001.5 ~ 9.972.1 ~ 9.97-
JM21313 ~ 2563 ~ 1004 ~ 12.974 ~ 4.49-
JM21313 ~ 2563 ~ 1004 ~ 12.974.5 ~ 12.97-
JPS41313 ~ 2563 ~ 1004 ~ 12.974 ~ 4.49-
JPS41313 ~ 2563 ~ 1004 ~ 12.974.5 ~ 12.97-
JM21613 ~ 2563 ~ 1004 ~ 15.974 ~ 5.99-
JM21613 ~ 2563 ~ 1004 ~ 15.976 ~ 15.97-
JPS41613 ~ 2563 ~ 1004 ~ 15.974 ~ 5.99-
JPS41613 ~ 2563 ~ 1004 ~ 15.976 ~ 15.97-
JM22013 ~ 2563 ~ 1006 ~ 19.976 ~ 7.99-
JM22013 ~ 2563 ~ 1006 ~ 19.978 ~ 19.97-

Product Guide

🏭Application Scenarios+

These light-duty ball lock regular punches are used in injection mold tooling where repeatable locating and efficient part ejection depend on stable punch retention. The ball-lock profile helps maintain consistent positioning under cyclic press loads, which is especially valuable when ejector stroke and contact force vary across production.

Common scenarios include automotive connector and bracket molds, where metric tooling benefits from quick, reliable punch seating and predictable release for thin-walled parts. They are also suited for consumer and industrial housings that require controlled ejector action to prevent cosmetic marks.

For general die work and light stamping/forming, the combination of the ball-lock geometry and DAYTON XCDP surface coating supports longer service life in wear-prone contact zones. Choose the XCDP-coated variant when abrasion from repeated motion and ejection contact is a primary driver for downtime, while keeping performance aligned with light-duty requirements.

  • Ball-lock geometry for secure retention and repeatable ejection
  • XCDP coating to enhance wear resistance at the punch surface
  • Metric shank diameter compatibility for standard tooling systems
🔧Material & Process Details+

This series is available in two material options: M2 and PS4. M2 is a high-speed steel commonly selected for its balanced hardness and wear resistance in tooling applications, supporting good toughness for repetitive cycles. PS4 is offered as an alternative steel grade when customers prioritize cost/performance for light-duty production.

  • M2: Typically selected for higher wear resistance where repeated sliding/contact is expected.
  • PS4: A practical choice for light-duty work with suitable durability for efficient ejection.

The DAYTON XCDP coating further improves surface wear behavior by reducing abrasion and friction at the working contact area. Exact heat treatment state (e.g., quenched & tempered, nitrided) and measured hardness in HRC are not specified in the provided data, so engineers should confirm hardness targets for their specific tip shape and load conditions.

📐Sizing & Selection Guide+

Select the punch based on the mold ejector/core interface first, then confirm tip geometry and working dimensions. The D (shank diameter) range is 6 ~ 38 mm; match this to the mating hole/guide diameter in your tooling to ensure proper ball-lock seating and stability.

Next, choose the L (length) range that meets your cavity/core stack-up requirements: available options include 63 ~ 100 mm, 71 ~ 100 mm, and 80 ~ 100 mm. The L1 (point length) options are 10 ~ 13 mm, 10 ~ 19 mm, 13 ~ 25 mm, and 19 ~ 30 mm; use L1 to control the effective protrusion and contact timing during ejection.

  • Choose D to fit the punch seat/guide (ball-lock retention depends on correct sizing).
  • Choose L for stack height clearance and safe stroke limits.
  • Choose L1 for the required protrusion/contact length.

Tip shape is configurable (H, J, K, L, N, O, R, V, X, Y, Z), so select the profile that matches part geometry and ejector mark risk. Tolerance values are not provided; verify mating dimensions and fit by referencing your tool’s drawings and acceptable clearance for ball-lock engagement.

Frequently Asked Questions

Which shank diameter (D) range should I select for reliable ball-lock seating in metric tooling?+
Choose the punch D (shank dia.) within 6 ~ 38 mm to match the mating hole/guide diameter in your ejector system. Ball-lock retention depends on correct sizing of the punch seat geometry. If your tooling uses a specific metric standard for guides or lock pockets, align D to that reference before selecting tip shape and length.
How do I match L and L1 to my cavity/core stack-up and ejector timing requirements?+
Use L (available ranges: 63 ~ 100, 71 ~ 100, or 80 ~ 100 mm) to accommodate the mold stack height and safe stroke limits. Then choose L1 (point length) (options: 10 ~ 13, 10 ~ 19, 13 ~ 25, or 19 ~ 30 mm) to control protrusion/contact timing during ejection. Confirm clearance to avoid interference with the cavity/core at full travel.
What steel and coating combination is best for wear resistance in light-duty ejection?+
This series is offered in M2 or PS4 and is built with the DAYTON XCDP coating. M2 is typically selected where higher wear resistance is needed in repetitive contact zones, while PS4 is an alternative option for light-duty requirements. The XCDP coating is designed to improve surface wear behavior, which is beneficial when abrasion at the punch working surface drives maintenance.
Which tip shape options are available, and how should I choose among H/J/K/L/N/O/R/V/X/Y/Z?+
Tip shape is configurable across H, J, K, L, N, O, R, V, X, Y, Z. Select the profile that best matches the part geometry and minimizes ejector mark risk while maintaining required contact area during the ejection stroke. Because the provided data does not link each tip shape to specific loads, validate selection with your part finish requirements and expected cycle conditions.
Are the P, W, and R dimensions fixed, or how do they impact contact geometry?+
The P dimension ranges from 1.4 ~ 12 mm, the W dimension ranges from 1.4 ~ 14 mm, and R is listed as 0.2 mm (R dimension range provided as 0.2 ~ 0.2). These parameters influence contact geometry at the tip, affecting how the punch engages the part surface. Ensure the chosen combination aligns with the required clearance and contact area for consistent release and surface quality.

Need Custom Specifications?

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