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Ball Lock Ejector Punches Heavy Duty, Inch XCD Coating

Ball Lock Ejector Punches Heavy Duty, Inch XCD Coating

Ball Lock ejector punches Heavy Duty for inch tool systems are engineered with an XCD coating to support stable ejection and reduced wear during high-cycle production. The ball-lock tip geometry improves punch retention and repeatable forming performance.

  • Heavy-duty ball lock retention helps maintain consistent punch engagement
  • XCD coating delivers abrasion resistance for longer service intervals
  • Inch-coded point dimensions support interchangeability in standard tooling
  • Suitable for progressive dies and high-load stamping applications
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Specifications

1950 configurations available

Tip ShapeMaterialD (Shank dia.) (in)Jektole groupStandard Point Length & L (Length) (coded inch)[B] Point Length B & L (Length) (coded inch)[C] Point Length B & L (Length) (coded inch)[D] Point Length B & L (Length) (coded inch)P Dimension (in)W Dimension (in)R Dimension (in)
HM237 (0.3750")J4250 ~ 500---0.062 ~ 0.3740.062 ~ 0.124-
HM237 (0.3750")J4250 ~ 500---0.062 ~ 0.3740.062 ~ 0.374-
HPS437 (0.3750")J4250 ~ 500---0.062 ~ 0.3740.062 ~ 0.124-
HPS437 (0.3750")J4250 ~ 500---0.062 ~ 0.3740.062 ~ 0.374-
HM237 (0.3750")J4-250 ~ 500--0.062 ~ 0.3740.062 ~ 0.124-
HM237 (0.3750")J4-250 ~ 500--0.062 ~ 0.3740.062 ~ 0.374-
HPS437 (0.3750")J4-250 ~ 500--0.062 ~ 0.3740.062 ~ 0.124-
HPS437 (0.3750")J4-250 ~ 500--0.062 ~ 0.3740.062 ~ 0.374-
HM237 (0.3750")J4--250 ~ 500-0.062 ~ 0.3740.062 ~ 0.124-
HM237 (0.3750")J4--250 ~ 500-0.062 ~ 0.3740.062 ~ 0.374-
HPS437 (0.3750")J4--250 ~ 500-0.062 ~ 0.3740.062 ~ 0.124-
HPS437 (0.3750")J4--250 ~ 500-0.062 ~ 0.3740.062 ~ 0.374-
HM250 (0.5000")J6250 ~ 600---0.158 ~ 0.1860.158 ~ 0.186-
HM250 (0.5000")J6250 ~ 600---0.158 ~ 0.1860.187 ~ 0.499-
HM250 (0.5000")J6250 ~ 600---0.187 ~ 0.4990.158 ~ 0.186-
HM250 (0.5000")J6250 ~ 600---0.187 ~ 0.4990.187 ~ 0.499-
HPS450 (0.5000")J6250 ~ 600---0.158 ~ 0.1860.158 ~ 0.186-
HPS450 (0.5000")J6250 ~ 600---0.158 ~ 0.1860.187 ~ 0.499-
HPS450 (0.5000")J6250 ~ 600---0.187 ~ 0.4990.158 ~ 0.186-
HPS450 (0.5000")J6250 ~ 600---0.187 ~ 0.4990.187 ~ 0.499-
HM250 (0.5000")J6-250 ~ 600--0.158 ~ 0.1860.158 ~ 0.186-
HM250 (0.5000")J6-250 ~ 600--0.158 ~ 0.1860.187 ~ 0.499-
HM250 (0.5000")J6-250 ~ 600--0.187 ~ 0.4990.158 ~ 0.186-
HM250 (0.5000")J6-250 ~ 600--0.187 ~ 0.4990.187 ~ 0.499-
HPS450 (0.5000")J6-250 ~ 600--0.158 ~ 0.1860.158 ~ 0.186-
HPS450 (0.5000")J6-250 ~ 600--0.158 ~ 0.1860.187 ~ 0.499-
HPS450 (0.5000")J6-250 ~ 600--0.187 ~ 0.4990.158 ~ 0.186-
HPS450 (0.5000")J6-250 ~ 600--0.187 ~ 0.4990.187 ~ 0.499-
HM250 (0.5000")J6--250 ~ 600-0.158 ~ 0.1860.158 ~ 0.186-
HM250 (0.5000")J6--250 ~ 600-0.158 ~ 0.1860.187 ~ 0.499-
HM250 (0.5000")J6--250 ~ 600-0.187 ~ 0.4990.158 ~ 0.186-
HM250 (0.5000")J6--250 ~ 600-0.187 ~ 0.4990.187 ~ 0.499-
HPS450 (0.5000")J6--250 ~ 600-0.158 ~ 0.1860.158 ~ 0.186-
HPS450 (0.5000")J6--250 ~ 600-0.158 ~ 0.1860.187 ~ 0.499-
HPS450 (0.5000")J6--250 ~ 600-0.187 ~ 0.4990.158 ~ 0.186-
HPS450 (0.5000")J6--250 ~ 600-0.187 ~ 0.4990.187 ~ 0.499-
HM250 (0.5000")J6---250 ~ 6000.158 ~ 0.1860.158 ~ 0.186-
HM250 (0.5000")J6---250 ~ 6000.158 ~ 0.1860.187 ~ 0.499-
HM250 (0.5000")J6---250 ~ 6000.187 ~ 0.4990.158 ~ 0.186-
HM250 (0.5000")J6---250 ~ 6000.187 ~ 0.4990.187 ~ 0.499-
HPS450 (0.5000")J6---250 ~ 6000.158 ~ 0.1860.158 ~ 0.186-
HPS450 (0.5000")J6---250 ~ 6000.158 ~ 0.1860.187 ~ 0.499-
HPS450 (0.5000")J6---250 ~ 6000.187 ~ 0.4990.158 ~ 0.186-
HPS450 (0.5000")J6---250 ~ 6000.187 ~ 0.4990.187 ~ 0.499-
HM262 (0.6250")J6250 ~ 600---0.25 ~ 0.6240.25 ~ 0.624-
HM262 (0.6250")J6250 ~ 600---0.25 ~ 0.6240.158 ~ 0.249-
HM262 (0.6250")J6250 ~ 600---0.158 ~ 0.2490.25 ~ 0.624-
HM262 (0.6250")J6250 ~ 600---0.158 ~ 0.2490.158 ~ 0.249-
HPS462 (0.6250")J6250 ~ 600---0.25 ~ 0.6240.25 ~ 0.624-
HPS462 (0.6250")J6250 ~ 600---0.25 ~ 0.6240.158 ~ 0.249-

Product Guide

🏭Application Scenarios+

Ball-lock ejector punches are used in injection and compression mold tooling where high-cycle part removal demands consistent punch retention and stable ejection forces. The XCD coating variant helps reduce surface wear and abrasion, supporting longer service intervals in demanding production environments.

  • Medical device housings and precision shells: Select inch-coded point lengths (e.g., 250–600 coded inches depending on group) to align with cavity/core stack-up, helping maintain repeatable ejection geometry over continuous runs.
  • Automotive interior/exterior components: Heavy-duty ball-lock engagement supports reliable punch-to-plate contact under higher load, while the XCD coating improves wear resistance against abrasive molded skins and sprue remainders.
  • Electronics enclosures and connector housings: Choose tip shapes (H, J, K, L, N, O, R, V, X, Y, Z) matched to runner gates and ejector layout for repeatable forming and clean part release.

This variant is suited for engineers targeting robust ejection performance with reduced downtime.

🔧Material & Process Details+

This heavy-duty ball-lock ejector punch is available in M2 or PS4 material options, supporting selection based on tool wear needs and toughness requirements.

  • M2: A high-speed steel grade commonly selected for excellent wear resistance under intermittent impact and abrasion. Typical heat treatment is quench and temper to achieve a balanced hardness/toughness condition; final hardness is often specified in the high-HRC range for durability in repeated cycling.
  • PS4: A tool steel option suited for stable performance where a cost-effective wear-toughness balance is needed; heat treatment is commonly provided in a hardened condition appropriate for ejector service.

Hardness trade-off: Higher hardness generally improves abrasion resistance but can reduce toughness under shock. Select the material and heat treatment state to balance HRC level against expected ejection loads, guide wear, and any side-load conditions.

📐Sizing & Selection Guide+

Use the coded inch specifications to match the ejector system geometry to your mold cavity/core requirements. Confirm the shank diameter D first: available in the range 37–125 in (as provided), since this governs fit, alignment, and ball-lock retention engagement in the tool set.

  • Select point tip shape: Choose from H, J, K, L, N, O, R, V, X, Y, Z based on part release contact area and ejection footprint requirements.
  • Match length coding: Standard point length & L are offered in coded inch ranges such as 250–500, 250–600, 275–600, and 300–600 depending on the configuration/group.
  • Verify P, W, and R dimensions: Ensure P is within 0.062–1 in, W within 0.062–0.5 in, and R within 0.007 in range to match the ejector contact profile.

Because these are cataloged with coded inch length ranges, treat lengths as configuration-controlled; verify stack-up clearances to maintain proper tool fit and avoid binding during cycling.

Frequently Asked Questions

Which tip shapes are available for the ball-lock ejector punch, and how do I choose one for ejection contact?+
The punch supports multiple tip shapes: H, J, K, L, N, O, R, V, X, Y, Z. Choose the shape based on the required contact footprint and how you want the ejector to interface with the molded surface during release. For complex part geometries, select the tip shape that best matches your ejector layout and avoids localized stress.
How do I select the correct shank diameter (D) for proper ball-lock retention?+
The shank diameter D is specified in the range 37–125 in. Select a D that matches the corresponding ball-lock tooling bore/holder in your inch tool system so the retention mechanism engages correctly. A mismatch can lead to misalignment, reduced retention, or uneven ejection force.
What length ranges (L / point length) are offered, and how do they map to mold stack-up?+
Standard point length & L are available in coded inch ranges such as 250–500, 250–600, 275–600, and 300–600, depending on the specific configuration. Use these ranges to align the ejector protrusion with cavity/core stack-up and ensure adequate clearance at the end of stroke. Confirm the configuration group (e.g., J4, J6, J9, J12) used in your system.
What is the benefit of the XCD coating on heavy-duty ball-lock ejector punches?+
This variant is specified with an XCD coating to improve abrasion resistance and support stable ejection performance. In production, the coating helps reduce surface wear from repeated cycling and contact with molded residues or abrasive features. It’s particularly useful when targeting longer service intervals under heavy-duty loads.
Can I choose between M2 and PS4 material, and what trade-off should I consider?+
The product is offered in M2 or PS4 materials. M2 is typically selected for strong wear resistance performance in repeated cycling, while PS4 is chosen when a wear-toughness balance is desired for ejector service. For high-impact or side-load conditions, consider the hardness-to-toughness trade-off when specifying the final hardened condition.

Need Custom Specifications?

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