Applications
Where this spring style fits
Review best-fit uses, assembly constraints and situations where another spring style may be a better choice.
View application guidance →Wave Springs
Custom Interlaced Wave Springs
Interlaced multi-turn wave spring configurations, specified by the constituent wave geometry and the required axial load-height response.
- Specification
- Drawing and working requirement
- Dimensions
- Confirmed for the assembly
- Performance
- Specified at working positions
- Quotation
- Submit dimensions and quantity
About Custom Interlaced Wave Springs
Interlaced wave springs combine wave-spring elements with their turns interwoven. This changes the effective working arrangement compared with a single multi-turn spring. The number and geometry of the constituent elements must be identified; the word interlaced alone is not a force specification. Review the complete assembly against required axial loads, available height and radial clearance.
Key Design Characteristics
- Show how the constituent wave elements are interlaced.
- State element count and the intended end-contact arrangement.
- Compare the full load-height response with a single-body alternative.
Choosing Between Related Designs
Interlaced, nested and single crest-to-crest configurations describe different arrangements. Do not substitute one for another from appearance alone; compare the complete geometry and the required force-height response.
Specification and Inspection Review
Specify assembly identification and orientation along with load-test heights. Acceptance should address the combined spring, including end seating and any constraint imposed by the bore and shaft.
Product Specification
What to Define for This Spring
Use these product-specific inputs to describe your requirement. Final dimensions, material and performance are confirmed against the drawing and operating conditions.
| Specification item | What to define |
|---|---|
| Constituent geometry | Element count, turns, waves and section dimensions. |
| Combined envelope | Assembly outside and inside dimensions and free height. |
| Working heights | Installed height range and compression limit. |
| Axial performance | Required forces and tolerances at stated heights. |
| Assembly conditions | Seat contact, radial guidance, material and cycling requirement. |
Next Design Decisions
Next Steps for Your Spring Design
Once the spring style is selected, confirm how it works in the assembly, which material suits the environment, how it will be manufactured and which dimensions and performance points should be controlled on the drawing.
Materials
Choose the material for the environment
Review section, material condition and contact between the constituent elements against the working duty.
Compare spring materials →Manufacturing
Plan prototype and production
Review forming, heat treatment, secondary operations, inspection and the path from first samples to repeat production.
View manufacturing capabilities →Engineering Data
Use the engineering guide for design support
Use the engineering library to review materials, sizing considerations and applicable standards for the custom design.
Open Spring Engineering Guide →Material Direction
Common Material Families to Review
The links below are selection guides, not a claim that every grade is suitable for every size or load.
Compare Designs
Related Spring Products
Use these alternatives when the available space, connection style, travel or force direction changes.
Wave Springs
Crest-to-Crest Wave Springs
Multi-turn axial wave springs specified by working height, required load, bore clearance and shaft clearance.
Wave Springs
Crest-to-Crest Wave Springs with Shim Ends
Multi-turn wave springs with flat shim-end contact features, specified for the required seat interface and axial load-height range.
Wave Springs
Single-Turn Overlap Wave Springs
Single-turn axial wave springs with overlapping ends, defined by working height, end freedom and radial installation clearance.
Product Questions
Interlaced Wave Springs FAQ
Does interlaced mean any stack of wave washers?
No. It describes an interwoven wave-spring configuration. Show the constituent elements and their arrangement.
Can its load be inferred from element count alone?
No. Section dimensions, wave geometry, height and interaction between elements also matter. State the required load-height points.
RFQ
Send the Working Requirement
A drawing is ideal. If you do not have one yet, provide the dimensions, load or torque, travel, environment and expected quantity that matter in the assembly.
CustomSprings Engineering Catalog
Request This Spring
Send your dimensions, quantity and drawing for engineering review.