Spring Manufacturers and Companies

IQS Directory provides a detailed list of spring manufacturers and suppliers. Find spring companies that can design, engineer, and manufacture springs to your specifications. Peruse our website to review and discover top spring manufacturers with roll over ads and complete product descriptions. Connect with the spring companies through our hassle-free and efficient request for quote form. You are provided company profiles, website links, locations, phone numbers, product videos, and product information. Read reviews and stay informed with product new articles. Whether you are looking for manufacturers of return springs, constant force springs, and wire springs of every type, IQS is the premier source for you.

  • Logansport, IN

    Turn to Myers Spring for top of the line springs. We specialize in creating springs for custom sizes. These springs have diameters ranging from .006" to .750" and loads from half a gram to 2.5 tons. We manufacturer compression springs, torsion springs, extension springs, wire forms, spiral wound brush springs, packaging and more. There is no custom project too demanding for our engineers.

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  • El Monte, CA

    Our company is one of the most experienced and best in the business. We work with metals like titanium, stainless steel, nickel, aluminum, brass, and many others. We are both ISO 9001:2008 and NADCAP certified. No matter what springs you need, we can help you find it and deliver it to you fast! Contact us by phone or online today for additional details!

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  • Alsip, IL

    As an ISO 9002-certified business, you can expect quality from Taylor Spring. We produce made-to-order compression springs, torsion springs and extension springs. At Taylor Spring, the customer is our number-one priority! We make it a priority to work with you every step of the process from taking your call to shipping your product you'll know you're working with a trust worthy business.

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  • East Longmeadow, MA

    Established in 1942, Springfield Spring Corporation is ISO Certified to the 9001:2008 standards. We are diversified manufacturer of precision engineered mechanical spring components with over 70 years of experience. Some of these industries served include: firearms, military hardware, medical devices, surgical instruments, elevators, timing devices, lighting, windows, screens and more.

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  • Elk Grove Village, IL

    Jackson Spring is a specialized designer and manufacturer of high-quality steel springs with an emphasis on wave/compression springs, spiral retaining rings and snap rings. Jackson Spring is now a world-wide manufacturer. We have thousands of stock sizes available!

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  • Santa Clara, CA

    Since 1979, our springs & metal parts have been manufactured for the aerospace, electronic instruments, & medical industries. The torsion springs, compression springs, extension springs, flat springs, & leaf springs that American Precision Spring Corporation offers are used by customers worldwide.

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  • More Springs Companies


Myers Spring Manufactures Premium Wire Springs Utilizing Lean Production

Springs Since 1955, Myers Spring has been manufacturing high-quality fine wire precision springs for industrial applications and everyday use. Founded by Walt Myers and Donald Lindley, Myers Spring was built on the foundation of possessing outstanding attention to detail and the ability to meet customer requirements. After 60 years, we continue to be an industry leader that provides high-quality springs and parts at a lower cost to our customers. Our TS 16949, ISO 9001, and ISO 014001 certifications are testaments to our continuing commitment to quality, environmental consciousness, and customer... Read More

All-Rite Spring Company: 68 Years of Greatness

Springs All-Rite Spring Company has been in business since 1947 and we are a leading manufacturer of both wire forms and wire springs. We are dedicated to providing some of the highest quality products to every one of the industries that we serve. We understand the importance of combining premium products with remarkable customer service. Read More...... Read More

Choosing a Spring Manufacturer

Many companies and factories require the use of springs in production processes. Springs are used in nearly all equipment in a factory, including conveyor belts, packaging machines, manufacturing equipment, and more. Because of their prevalent use, the kind of springs that you use in your machines are important, especially if you are manufacturing a product that uses a lot of springs in the design. Spring manufacturers can provide springs for a variety of uses an in a variety of materials. Many spring manufacturers create hundreds of customized spring products each... Read More

Buying a Sofa- Checking the Spring Quality

The kind of coils present in the base of a sofa can be a big indicator for the quality of the furniture. Saggy, loose springs will wear out quickly, causing your sofa to bottom out and become uncomfortable to sit on. On the other hand, too tight springs can cause the sofa to feel irritating and too hard while you sit down. Before choosing any sofa to purchase, it is important to examine the chair for spring quality to ensure that the sofa will last for years and provide the... Read More

Speed through Projects with Quality at Springfield Spring Corporation

For over 70 years, Springfield Spring Corporation, ISO Certified 9001:2008 company, has been bringing total spring manufacturing solutions with excellence, precision, and speed in mind. They know that time is money and they work to get you what you need with an emphasis on punctuality.Springfield is truly dedicated to their customer's needs with their 24 48 hours Request for Quote response time. Their Springfield Spring Experience is a commitment to the creation of a strategic and long-term relationship with all of their customers. This is complemented by their diverse array... Read More

Shaped Springs for Furniture

Many of the springs used in our world are used for our own comfort, such as to support sofas, chairs, and mattresses. Furniture springs have a unique shape, which is shaped somewhat like an hour glass with a larger top and bottom and a narrower middle. This shape is used so that the springs provide enough support and are easy to sew or attach to the furniture in some way. The centers of the springs are smaller so they still retain flexibility and are still easy to compress and expand.... Read More

businessIndustry Information


Springs are elastic components that store mechanical energy when at rest and resist forceful deformation. Spring manufacturers often use tempered steel, but stainless steel springs, made with chromium alloys, are found in food service and medical applications as they are durable, contaminate resistant, and readily sterilized. Other metals, including copper, bronze, and titanium, as well as plastics may be used in the manufacture of custom springs. From the paperclip to complex electronic lock systems, they are found in a wide range of places around the home, in all industries, and in nearly all factors of transportation. A custom spring can be designed to suit any specific purpose, from precision springs in micro-electro-mechanical systems (MEMS), medical devices, and Nano-technology, to industrial springs that provide earthquake-proof foundations for high-rise buildings.

Although springs employ very simple, mechanical principles, their function within equipment and machinery across consumer and manufacturing industries is extensive and nuanced. Springs, such as constant force springs, can provide kinetic energy to other pieces of equipment without any external power source. Compression and leaf springs provide essential shock absorption in suspension transportation applications, while extension and torsion springs provide doors, windows and many types of equipment with necessary resistance. As metalworking and heat-treating technologies have improved, spring manufacturing has improved as well, turning out springs with more durable elasticity and greater load resistance. All springs are defined as devices that store potential energy by using an elastic material. The potential energy is at a minimum when the spring is at its relaxed length. Carefully pairing a spring with its intended application will help to ensure the spring's effectiveness and longevity.

Springs Manufacturers
Springs Manufacturers
Springs Manufacturers
Springs Manufacturers – All-Rite Spring Company
Springs Manufacturers – All-Rite Spring Company
Springs Suppliers – Myers Spring
Springs Suppliers
Springs Manufacturers
Springs Suppliers
Springs Suppliers – Murphy & Read Spring Manufacturing Co.
Springs Manufacturers – Murphy & Read Spring Manufacturing Co.
Springs Suppliers – All-Rite Spring Company

Springing into Action- Spring Types

Springs are manufactured in many shapes and all sizes. While springs can be made from a wide range of metals, cold rolled spring steel is often used to form the wire into springs. Spring steel is a medium carbon steel with high yield strength, known for its excellent elastic properties. It is specifically made for spring fabrication. Flat springs and coil springs are the two basic types of spring.

Flat Springs

    Made from metal that is flattened, curved, and tempered to offer resistance or shock absorbance, are used in many ways. They may be simple securing devices, clips, clamps, or tongs. Flat springs may be used as battery contacts. Layered and bound together as leaf springs, they provide shock absorption for transport vehicles.

Leaf Springs

    Are made from arc shaped lengths of spring steel, typically fitted with a loop or eye on each end for attaching to the chassis of a vehicle. The arcs may be elliptical or parabolic. The spring may be single leaf, but is usually stacked in multiple layers that decrease progressively in length. The layers are secured at the center and at strategic intervals along the length, to provide tension against the compression caused by bouncing on bumpy roads. The axle is located at the center of the arc, providing the maximum absorption of shock.

Coil Springs

    Are formed by helical winding spring wire around a cylinder, barrel, or core. The wire may be flat or square shaped in profile, but is normally round. Wire used in the manufacture of helical springs may be microscopically fine or have a thick diameter to offer stronger compression or torsion resistance. Music wire is high tensile, high carbon steel wire that has been cold drawn through a die and then heat tempered for strength. Music, or piano wire, has no twist and is able to take the stress and strain of repeated heavy loads without losing its consistency. The inherent qualities of the material used for the wire, in conjunction with the type of winding will determine spring rate, the amount of force required to create specified deflection. Coil springs may be categorized as compression springs, extension springs, torsion springs, or constant force springs.

Compression Springs

    Are resistant to compressive forces. They are at rest when extended, so as compression force is applied, they will push back. Coils are counted from tip to tip of the helix. The number of active coils determines the amount of compression that may be deflected. The active coils of a spring are any portion of the spring that stores and releases energy. How the ends of the coil are finished determines whether the ends are fully active coils, half inactive coils, or inactive coils. This is important to know when designing springs to ensure correct compression resistance. Compression springs may be hourglass shaped, barrel shaped, or may be uniformly cylindrical, with or without reduced ends. Industrial stamping presses and spring hammers use compression of a giant spring to increase the power stroke of the hammer head. Firing pins for guns include a tiny compression spring. Compression springs are commonly found in electrical contacts, mattresses, seating, shock absorbers, and ball point pens.

Conical Springs

    Are sometimes referred to as tapered springs because of their shape. The tapered, cone shape provides a nearly constant spring rate under compression. The tapered coils nest inside each other providing a flat profile when under maximum spring compression. They also offer less load deflection providing greater stability. Conical springs are commonly manufactured from stainless steel or copper for heat and corrosion resistance in electrical settings as they are often used as electrical contacts and in push buttons.

Extension Springs

    Are resistant to stretching forces. Initial tension refers to how tightly the wire coils are wound and represents the load necessary to start the spread of coils. They are at rest when retracted. As pulling force is applied, the initial tension is deformed and the spring will attempt to return to its zero-deflection state. Extension springs are normally cylindrical with hooks or loops at each end for interfacing with components. All coils in an extension spring are considered active coils. Spring extension refers to the distance a given spring will stretch under specified pulling force. Examples of extension springs are found in garage doors, door closers, vise grips, trampolines, automotive interiors, and carburetors.

Torsion Springs

    Store rotational energy or torque. They are closely wound helical springs that store and release angular energy and resist torsion, or twisting force. The wire winding may be pitched to reduce friction. Torsion springs may be wound clockwise or counter-clockwise to suit the application. Loads should always be applied in the rotational direction of the winding. Torsion springs are generally used with a center shaft or mandrel for support. The ends are attached to components which rotate around the center point of the spring. As torque is applied, the spring resists creating spring torsion. Some examples of torsion springs are found in clipboards, mouse traps, clothespins, tailgate assemblies, industrial spring hinges, and ratchets. Often torsion springs as also referred to as spring springs or spiral torsion.

Constant Force Springs

    Are actually hybrid springs. They are made by helical winding of a flat strip of spring steel that has been pre-stressed to retain its tension. The strips are wound around the core in constant radius coils. When the strip is extended, it resists the loading force and tries to recoil at a constant rate. Wind-up timers and some actuator dials are made with constant force springs that create double torsion when being wound up and then winding down. Some common examples of a constant force spring can be found in seat belts, thermostats, retractable tape measures, dog leashes, and hose reels.

Springing Back- The History of Springs

For an item that is absolutely indispensable today, there is relatively little recorded history of springs. One of the earliest known uses was the Bronze Age invention of tweezers. They consisted of two strips of metal with a small plate brazed between them. Simple tongs and pincer pliers developed as metal forging techniques improved.

During the Iron Age, tensioned metal became more useful to man. King Tut used leaf springs on his carriages to smooth out the ride and increase their longevity.

Leonardo Da Vinci is credited with design and manufacture of the first hammer spring for a gun in 1493. It allowed for a gun to be shot single handedly.

British physicist, Robert Hooke, discovered a principle of physics, in 1680, which states that the amount of force (F) required to extend or compress a spring by some distance (X) is linearly proportional to the distance, where the constant (k) represents its stiffness. When pressure is applied, the force developed is known as stress. Deformation as a result of the stress is known as strain. F = kX is the formula known as Hooke's Law.

The first coiled spring was invented by R. Tradwell in 1763. It was considered a great improvement over leaf springs because it required less maintenance. It took almost another century to develop steel coil springs, which found their use in chair seats.

In 1943, naval engineer Richard James accidentally discovered Slinky, the world's most famous coil spring. While working on the development of springs that could support ships' sensitive instruments and keep them stable in high seas, James knocked one of the coils off a shelf. He watched, fascinated, as it walked down a stack of books, across a table, onto the floor, then recoiled into a neat upright stack.

His wife, Betty, named it "Slinky" because of its smooth, graceful movement. It has been sold as an inexpensive child's toy for over six decades. Slinkys have been used as musical instruments, radio antennas, and in anti-gravity experiments. They are also used as teaching tools because of their ability to simulate waves.

Springing Up- Designing Springs

Spring manufacture begins with the designing process. Attention must be given to appropriate material with regard to shear modulus and tensile strength of the wire to be used. Working tolerances must be considered when placing springs into components as spring diameters change when loads are applied. Compression springs increase in diameter as compression is applied. Extension springs decrease in diameter when under force. Diameters of torsion springs will increase or decrease under force depending on the direction of winding versus direction of torsion.

Designing springs for manufacture should be based on physical dimension, spring rate, and expected loads of the finished product. Wire used for winding the spring helical should be the appropriate size and substance. The number of active coils must be calculated to achieve adequate load handling capabilities. Thought must also be given to any special tooling that may be necessary to complete the manufacture of the product. Coatings or surface treatments of the wire are options to be considered. They may offer colored outer surfaces, corrosion prevention, wear resistance, or surface hardening qualities to the wire spring metal. Special packaging requirements for long, thin, or slinky springs must be provided so they do not sustain damage in transport.

Springing Forward

Springs have such a vast array of purposes and styles, it is impossible to pinpoint what is the "best" design. The perfect design for the application is only limited by the imagination of the inventor. The benefits and advantages must be determined through consideration of materials and functional demands of the device. Any situation where mechanical forces need to be resisted mechanically can be addressed through the use of springs of some kind.

Concern should be given to issues regarding fatigue and stability, as metal under stress and strain will eventually wear out. Since springs are generally metal pieces designed to exist under stress, be sure to find the best metal or alloy to withstand those forces over time. Because springs are ruled by laws of physics, standardized formulas exist for manufacture of every spring type imaginable.

Good spring manufacturers will have trained design staff available to help design custom springs that meet ASTM, AISI, and SAE working and safety standards. A designer should be able to guide the client through the process to create the appropriate spring device for the intended purpose.

From children's bobble head toys to highly technical watches and clocks, complex systems of simple springs keep things ticking along.

Springs Terms

Active Coils – Coils that are free to deflect under load.

Arbor – Also called a “mandrel,” it is the round, hardened shaft about which springs are wound.

Closed Ends – Ends of compression springs in which the pitch of the coil ends is reduced to the degree that the end coils touch.

Close-Wound – Referring to the coiling of a spring so that its adjacent coils are touching.

Coil – A round shape formed by a series of concentric circles.

Deflection (F) – Motion of spring ends or arms under the application or removal of an external load (P).

Free Angle – Angle between the arms of a torsion spring when the spring is not loaded.

Free Length (L) – The overall length of a spring in the unloaded position.

Frequency – The lowest inherent rate of free vibration of a spring itself, typically expressed in cycles per second, with ends restrained.

Helix – The spiral form (open or closed) of compression, extension and torsion springs.

Hooke's Law – Load is proportional to displacement. Most springs obey this law.

Hooks – Open loops or ends of extension springs.

Hysteresis – The loss of mechanical energy during the cyclic loading and unloading of a spring.

Lathe – A machine that rotates stock against which other tooling is brought to bear. Lathes are used to wind springs.

Load (P) – The force applied to a spring that causes a deflection (F).

Loops – Coil-like wire shapes at the ends of extension springs that provide for attachment and force application.

Pitch (p) – Also referred to as "coils per inch," it is the distance from center to center of the wire in adjacent active coils.

Rate (R) – Change in load per unit deflection, generally given in pounds per inch (N/mm).

Shot Peening – A cold-working process in which a metal surface is impacted with a high-velocity stream of metal shot or glass beads. Shot peening is used for cleaning or improving resistance to stress corrosion by producing a compressive stress.

Spring Index – Ratio of mean coil diameter (D) to wire diameter (d).

Stress Relieve – To heat treat springs under low temperatures in order to relieve residual stresses.

Torque (M) – A twisting action in torsion springs that tends to produce rotation, equal to the load multiplied by the distance (or moment arm) from the load to the axis of the spring body.

Torsion – A twisting force that can result in shear stresses and strains.