Springs for Vibratory Control & Dynamic Equipment
OmniCoil Spring Works Inc. manufactures compression, extension, torsion, double torsion, conical compression, ring, volute, and specialty springs for equipment exposed to vibration, oscillation, dynamic loading, and repeated mechanical movement.
Our springs are manufactured to customer-supplied drawings, CAD files, samples, dimensions, and specifications for applications requiring controlled force, deflection, support, tension, or mechanical movement.
From prototype and short-run requirements to production quantities, OmniCoil provides spring manufacturing for vibratory feeders, screening equipment, vibrating conveyors, industrial shakers, material handling systems, and other dynamic equipment.
✅ ISO 9001: 2015 Certified
✅ Custom Designed Springs
✅ Prototype to Production
✅ Made in Canada
Built for Vibratory & Dynamic Applications
Vibratory equipment operates through continuous movement, dynamic loading, repeated cycling, and mechanical oscillation. Springs used in these systems must be manufactured according to the equipment's required load, deflection, spring rate, operating conditions, and installation configuration.
At OmniCoil Spring Works Inc., we manufacture spring components for vibratory and dynamic equipment based on customer-supplied drawings, specifications, samples, dimensions, and application requirements.
Common Operating Requirements
From continuous vibration to repeated dynamic loading, OmniCoil manufactures springs according to the mechanical requirements of vibratory and dynamic equipment.
Vibratory Equipment Applications
OmniCoil Spring Works Inc. manufactures springs for equipment that relies on controlled vibration, oscillation, screening, conveying, separation, and dynamic movement. The required spring type depends on the equipment configuration, load, movement, and operating conditions.
Vibratory feeders use controlled vibration to move, meter, and distribute bulk materials through production and material-handling systems. Springs can support the feeder structure while allowing the required oscillating movement.
Relevant spring types:
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Compression Springs
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Specialty Springs
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Conical Compression Springs
Typical functions:
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Equipment support
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Controlled deflection
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Vibration movement
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Load support
Vibrating screens use repeated mechanical oscillation to separate and classify materials by size. Springs can support the screening assembly while accommodating its required dynamic movement.
Relevant spring types:
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Compression Springs
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Conical Compression Springs
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Specialty Springs
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Rings
Typical functions:
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Support
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Dynamic loading
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Controlled deflection
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Vibration movement
Bulk material handling and processing equipment can incorporate vibratory mechanisms for feeding, conveying, sorting, screening, and controlled material movement.
OmniCoil manufactures spring components according to the equipment's required dimensions, load, deflection, configuration, and operating conditions.
Relevant spring types:
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Compression Springs
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Extension Springs
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Buffer Springs
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Conical Compression Springs
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Specialty Springs
Vibrating conveyors transport bulk materials through controlled oscillating movement. Spring components can provide support, controlled movement, and restoring force within the conveyor assembly.
Relevant spring types:
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Compression Springs
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Specialty Springs
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Extension Springs
Typical functions:
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Support
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Suspension
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Controlled movement
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Dynamic loading
Industrial shakers and vibrators generate repeated mechanical movement for material processing, compaction, separation, testing, and handling applications. Spring components can contribute to controlled movement and equipment support.
Relevant Spring Types:
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Compression Springs
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Specialty Springs
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Torsion Springs
Typical Functions:
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Vibration support
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Restoring force
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Controlled movement
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Dynamic loading
Specialized machinery may require non-standard spring configurations to accommodate specific loading, movement, installation space, or mechanical requirements.
OmniCoil manufactures ring, volute, conical compression, specialty, and other spring configurations according to customer-supplied requirements.
Relevant Spring Types:
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Ring Springs
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Volute Springs
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Conical Compression Springs
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Specialty Springs
Spring Types for Vibratory Control & Dynamic Equipment
Different vibratory mechanisms require different spring configurations depending on load, deflection, movement, installation space, and operating conditions. OmniCoil Spring Works Inc. manufactures a range of spring types for vibratory feeders, conveyors, screens, shakers, and specialized dynamic equipment.
Vibratory Spring Manufacturing Considerations
Materials for Vibratory Control & Dynamic Applications
Springs used in vibratory equipment can experience continuous movement, repeated loading, and dynamic stress. At OmniCoil Spring Works Inc., spring specifications are determined according to the intended application and the requirements supplied by the customer.
Music Wire
Selected for its high tensile strength, consistency, and cost-effective performance in spring applications where corrosion resistance is not the primary requirement. Music Wire can be used in vibratory equipment operating in controlled or protected environments.
Best suited for:Best suited for:
Vibratory feeders • Conveyors • Screening equipment • Shakers • Protected dynamic assemblies
Consideration:
For equipment exposed to significant moisture, chemicals, or corrosive environments, a more corrosion-resistant material may be appropriate.
Material selection is especially important for springs operating under repeated vibration, dynamic loading, and continuous cycling. The material must provide the mechanical characteristics required by the application while also considering the surrounding environment.
At OmniCoil Spring Works Inc., spring material can be selected according to the component's load, cycling requirements, operating environment, and required mechanical performance.
01
Spring Rate & Deflection
Spring rate and deflection influence how a spring responds to an applied load. These characteristics are important when a spring is being used to support equipment or allow controlled movement.
03
Repeated Cycling
Feeders, screens, conveyors, and shakers may operate continuously, subjecting springs to repeated mechanical cycles.
05
Operating Frequency
The operating characteristics of vibratory equipment can affect how its spring components behave during operation. The frequency and nature of movement should be considered when specifying springs for dynamic applications.
02
Dynamic Loading
Vibratory equipment can expose springs to changing loads rather than a single static load. The expected loading conditions should therefore be considered when determining the spring configuration and material.
04
Fatigue Considerations
Repeated stress can affect spring service life. Factors such as material, wire diameter, operating stress, spring dimensions, and cycling conditions can influence fatigue performance.
06
Installation & Alignment
Spring installation can influence the way loads are transferred through the equipment. Proper consideration should be given to mounting arrangement, alignment, available space, and direction of loading.
For vibratory equipment, material selection should consider not only the environment but also the repeated stress, loading, cycling, and mechanical requirements of the spring.
Vibratory Control & Dynamic Equipment FAQ
Get the Right Springs for Your Vibratory Equipment
Whether you need a replacement spring, prototype, short run, or production quantity, OmniCoil Spring Works Inc. manufactures spring components according to your supplied drawings, CAD files, samples, dimensions, or specifications.
From compression and extension springs to torsion, double torsion, conical, ring, volute, and specialty springs, we manufacture configurations for vibratory feeders, vibrating conveyors, screening equipment, industrial shakers, material-handling systems, and other dynamic equipment.
Our wire forms and flat forms can also be manufactured for retaining, positioning, guiding, supporting, and securing components within vibratory equipment assemblies.