English

What is the lead time for tooling and prototyping lock components?

Table of Contents
What Is the Lead Time for Tooling and Prototyping Lock Components?
Overview of Lock Component Development
Typical Lead Time for Lock Component Tooling
Prototyping Lead Time for Lock Parts
Factors That Influence Lead Time
Neway’s Tooling and Prototyping Capabilities for Locking Mechanisms

What Is the Lead Time for Tooling and Prototyping Lock Components?

Overview of Lock Component Development

Locking mechanisms—such as latch bodies, actuator cores, cams, and locking housings—require precise geometries, tight tolerances, and high mechanical durability. These components are often manufactured using zinc die casting with alloys like Zamak 2 for strength and wear resistance. Tooling and prototyping lead time is a key factor in accelerating development cycles for automotive, industrial, and consumer security systems.

Typical Lead Time for Lock Component Tooling

Neway’s standard lead time for full-production lock component tooling includes:

  • Simple single-cavity tooling: 20–25 working days

  • Multi-cavity, slide-core, or insert tooling: 30–40 working days

  • High-precision locking parts with moving features: 35–45 working days, including mold flow analysis and thermal simulation

This timeline covers:

  • CAD review and DFM optimization: 2–3 days

  • 3D mold design and approval: 3–4 days

  • Mold base and cavity steel machining: 10–15 days

  • Tool fitting, polishing, and assembly: 5–7 days

  • T1 sample trials and adjustments: 3–5 days

Prototyping Lead Time for Lock Parts

For fast functional testing and early-stage validation, Neway offers:

  • CNC machined prototypes: 5–7 working days using aluminum or zinc billets

  • Silicone or urethane casting (non-functional models): 5–8 working days

  • Soft tool die cast prototypes: 10–15 working days for low-volume batches

Rapid prototyping is ideal for evaluating fit, assembly, or wear performance before investing in mass-production tooling.

Factors That Influence Lead Time

  • Complexity of locking geometry and internal features

  • Parting line design and number of moving inserts

  • Tolerance requirements and post-machining needs

  • Surface finish or plating readiness

  • Mold size and cavity configuration

Neway uses mold flow simulation, gating optimization, and thermal analysis to shorten debugging and ensure reliable production startup.

Neway’s Tooling and Prototyping Capabilities for Locking Mechanisms

Neway supports complete lock component development with:

Copyright © 2025 Diecast Precision Works Ltd.All Rights Reserved.