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Mechanical springs are present in every area of our lives, and it is easy to take these practical components for granted. A humble spring may seem simple, but manufacturing high-quality springs involves implementing a surprising number of complicated processes.

What Is Spring Winding?

The first step, spring winding, is the generalised term used to cover the many different ways springs are physically manufactured. This name is related to the winding nature of most spring designs but with slight changes for each type.

Spring wire is fed into one of our advanced CNC (computer numerical control) machines, which will be straightened into a default, flat shape before being manipulated into the desired result.

Coiling Machines

Spring coilers will feed the wire into rollers that draw it through guides that culminate in a coiling point. The wire is coiled backward at this point to form the intended spring shape. This is used to create many custom spring designs, such as tension, torsion and compression springs.

Forming Machines

We use forming machines to create tension, torsion springs and varied wire forms. A spring-forming CNC machine will have six to eight tooling slides on the face which help it perform several bends and hoops in addition to the standard spring coil. As a result, this machine has more adaptability than a coiling machine.

Bending Machines

Computers control our CNC bending machines as they use a variety of uniquely placed rollers. These rollers will form the inserted flat wire into bespoke wire form designs. Then, rollers moving tool heads, and guides push and pull the metal into the final design. This machine is usually chosen for high-quality wire forms but can be used for bespoke spring designs.

Heat Treating Springs

The second step, heat treatment, is a beneficial process that helps improve the quality of the material of the spring. The heated processes will modify the crystalline structure of the metal alloys through repeated heating and cooling. This will be conducted at different intensities and durations, with the effect on the material being:

Increase durability
Higher temperature resistance
Increased ductility

Spring manufacturers provide this service as part of the metal fabrication process because it has dramatically improved physical properties without altering the dimensions. Common heat treatments are hardening, annealing, quenching and tempering.

Hardening

Metal hardening is where the alloys are heated above the critical temperature for the material and then cooled again rapidly. There are various ways of quickly cooling the materials, including the quenching process. Few metals are only hardened; most will have additional treatments such as tempering or stress relieving to improve their workability and toughness.

Quenching

This cooling process has a significant effect on metals. Quenching can be done minimally with air cooling or dramatically with water or oil. The rapid cooling of quenching essentially freezes the microstructure of the metal and creates stress. This unintended side-effect can be fixed with tempering.

Tempering

The cooling process puts metal under strain, but that can be relieved with tempering. Tempering further develops the material’s properties and balances them out after the hardening and quenching process. The specifics will vary depending on the desired result and the material.

Generally, tempering involves reheating the cooled metal at a relatively low temperature. The material’s microstructure creates chemical precipitation and spheroidzation of the internal elements. Spheroidzation is particularly relevant to compression springs as it assists with rolling the coils.

Annealing

This process aims to increase ductility, specifically, making the material more malleable without fracturing. This reduced hardness is because the annealing process reduces the dislocations inside the metal’s crystalline structure.

Dislocations are defects inherent within metals. These irregularities strongly influence the properties of the metal, with an excess number increasing the metal’s corrosion susceptibility. Therefore, annealing is usually performed on materials that have been cold-worked or hardening to prevent the metal from becoming brittle.

Coating and Finishing

The final phase of spring manufacturing involves applying coating, plating or other finishing processes. If heat treatment is about the internal quality of the metal, then this stage addresses the external surface.

Spring manufacturers ensure their springs have the most extended longevity by applying effective coatings that prevent corrosion and improve visual aesthetics.

Shot Peening

Shot peening is where the finished springs are attacked with spherical shots. This effect applies compression stress, which can be seen as compression dimples on the surface. In addition, shot peening strengthens the material against fatigue, corrosion and cracking.

Plating

A thin layer of metal is applied to the surface of the spring during an electroplating process – a mixture of chemicals and electrical currents attach the plating to the metal. This process improves corrosion resistance as a fresh layer protects the spring below. Plating is also used to improve a spring’s aesthetics or electrical conductivity.

European Springs has a long history of manufacturing the highest quality springs for companies globally. Leaving handmade manufacturing behind, we use advanced CNC machines to produce large batches of bespoke springs, usually using the many varied steps outlined above.

Industry 4.0, also known as the fourth industrial revolution, represents a remarkable technological shift in the way manufacturing companies operate.

The term covers a broad collection of new operational methods and systems connected to digital systems or those entirely online. This digital industrial revolution is set to change many elements of manufacturing for the better, improving productivity, control and costs sector industry wide.

What Is a Digital Industrial Revolution

There have been many industrial revolutions, each creating permanent change in the manufacturing industry. Starting with the first industrial revolution, steam power and mechanisation were introduced. This replaced hand labour and significantly increased a manufacturer’s productivity.

The second revolution involved replacing steam power with electricity. This encouraged a more global industry that could accommodate vastly larger production lines and more cost-effective creation of components. The third revolution is one we’ve been enjoying for many years. Computerised numerical control (CNC) machinery and robotics increased the potential for automation in manufacturing.

The fourth and most recent revolution stands out from the rest because it is a digital industrial revolution. Whereas the previous ones primarily involved developing machinery or computers, this one improves those with cloud-based analytics and AI.

The Goal of Industry 4.0

The first industrial revolution evolved from a German initiative (Industrie 4.0) into a worldwide term for digital improvement across manufacturing. Comprised of many smaller parts, the term covers many changing processes depending on the company, but some aspects are universal.

Here are some of the main goals of Industry 4.0:

Increased automation
Interconnectivity between physical and digital manufacturing (Industrial IoT)
More closed-loop data systems
Increase productivity and efficiency
Increase in the use of smart products instead of a central control system
More customisation and personalisation of products

Many of these goals are focused on automation through digitising processes to make manufacturing systems more efficient and run smoothly.

What Are the Elements of Industry 4.0?

Many new components exist within Industry 4.0, which collaborate to create a robust set of manufacturing tools.

Using Cyber-Physical Systems

This is one of the goals mentioned above of Industry 4.0 and aims to combine the use of physical and digital systems. So, for example, computer systems could be set up to monitor the progress of biological processes, such as custom springs production. It could alert those that need to be altered if anything is wrong, such as the dimensions.

Smart Factory

Industry 4.0 will see the implementation of smart factories in manufacturing companies worldwide. A smart factory is an automated cyber-physical system that uses innovative technology to learn and develop as it works.

The Internet of Things

The Internet of Things is another cyber-physical system that communicates with machinery and operates equipment while simultaneously allowing humans to be proactive and work. It works through a network of connected devices that exchange data with each other to improve communications and productivity in the workplace.

The Internet of Services

This process is linked to the Internet of Things. Still, instead of focusing on the communication aspect, it focuses on the cyber-physical connections and the best ways of integrating these systems seamlessly for an efficient and productive workplace.

The Benefits of Industry 4.0 for Manufacturing Companies

A new industrial revolution will always bring many benefits to manufacturing companies. Let’s take a look at some of the benefits of Industry 4.0 for those in the sector:

Less machine downtime. As fewer physical machines are used, there will be much less downtime. When devices are out of action, processes can come to a halt, which seriously impacts productivity. As spring manufacturers ourselves, we understand the importance of the smooth runnings of machinery
Increased knowledge of digitisation. In this digitally evolving world, an understanding of digital practices is essential. Industry 4.0 allows manufacturers to learn on the job and practice their digital skills.
Better supply chain management. Industry 4.0 allows better supply chain management by improving communications between every stage of the supply process.

Are There Any Downsides to Industry 4.0?

Of course, as with any change to the manufacturing sector, there are downsides as well as overwhelming positive factors. Let’s take a look:

It increases cybersecurity risks. When moving onto Industry 4.0, digitisation increases, so it’s essential to ensure your cybersecurity systems are set up and prepared for the changes to protect your business.
Digital inequality. An increase in digitisation will require more money and time put into preparation to guarantee that the transition is smooth. Unfortunately, some companies do not have the facilities for this, creating some industry inequality.

Despite the drawbacks, here at European Springs, we are always ready to embrace change and excited about these changes to the manufacturing industry. Keep up to date with industry news by heading to our blog, and feel free to contact us, as expert bespoke spring manufacturers, for enquires or anything else you believe we could help with.

The manufacturing industry is an industry of growth and innovation that has adapted to many unforeseen events. For example, the pandemic lockdowns should have damaged the UK manufacturing industry, but these challenges have been overcome, and the industry has grown stronger. Now, with these challenges behind us, the manufacturing industry can look forward to setting new targets and achieving more goals in 2023.

Increased Sustainability

Sustainability is a crucial focus of the manufacturing industry and will continue to be so for the foreseeable future. The future of manufacturing is green, but there are many ways to achieve this. This is due to an increased awareness of the industry’s effect on the environment and the UK government’s plans to create a Net Zero Economy by 2050. Whilst the eventual target is to create a carbon-neutral economy by 2050, manufacturers are aware of the impending milestone in 2030 to reduce total carbon emissions to 45%.

Lean Manufacturing

Many commercial and industrial sectors have dedicated themselves to discovering new ways of maintaining their current operations, but with a reduced environmental impact. In-house waste management and energy usage are the main focuses of many companies as ways of optimising their production. This will improve their environmental impact but also has the side effect of creating a more financially efficient operation that wastes fewer materials. This can be achieved by managers exploring their in-house operations and the elements of their supply chain that proceed with it.

Supply chains are still feeling significant disruptions from the pandemic lockdown. However, as part of the manufacturing industry’s attempts to create a more stable supply chain, many are using the opportunity to explore more sustainable ways of acquiring the vital resources they need. Examples of these environmentally positive efforts are manufacturers eliminating unnecessary transportation, only sourcing what they need with no excess and reducing overproduction methods to their efficient minimums. Other efforts include investment in renewables and paying a ‘carbon debt’ that acts as a counterbalance to their operations and creates a balanced relationship with nature.

Automated Factories

Smart factories and automation have been the focus of significant investment this year and are predicted to continue into 2023. Automation within manufacturing is an existing method that is already highly embraced. For example, as tension spring manufacturers, we use high-quality CNC machines that have proven the increased efficiency and accuracy of automating complex manufacturing processes. This concept has grown into companies investing in robotics and other ways of automating more complex operations, further connecting to the increased development of smart facilities.

Smart Manufacturing Facilities

Smart manufacturing facilities result from companies developing their combinations of CNC machines connected via a system of hyperflexible, self-adapting manufacturing processes. This interconnectivity stretches across the entire facility. Sensors monitoring the progress and results of various operations can be remotely relayed to on-site personnel for review, allowing one person to monitor several activities simultaneously efficiently. The concept is to create a web of connected information sharing that lets a site manager know precisely what is happening during their daily operations.

This level of accessible data is not limited to the physical manufacturing operations either. For example, many manufacturers are increasing the automation of their facilities through the wireless tracking of assets as they travel. This operation covers the entire stream of functions within the facility, from recording the arrival of materials, the various manufacturing processes they undergo and the time and place of their export. Doing so eliminates the need for personnel to log these activities and creates a constant stream of accurate data for the manager to monitor.

Digital Manufacturing Techniques

Digital integration is a method that is being embraced by the manufacturing industry. In 1952 when the first CNC milling machine was invented, the industry saw the potential of computer-aided operations, and many innovations were created to build on this. However, the sector’s current aspirations are more focused on managing more comprehensive data on your specific company’s operations and their associated chains.

Big Data

Big data is an integral part of our work as a spring manufacturer, and it’s predicted to be a vital part of other companies’ plans thanks to the increases in interconnectivity throughout a manufacturer’s entire supply chain. However, supply chain management is still a critical issue as many chains continue to struggle to return to stable normality after the pandemic lockdowns. The response to the erratic behaviour is to optimise your chain, improving its efficiency and predictability. Big data technology involves digital systems with an increased variety, volume and velocity of data. In the context of manufacturing, big data collects together all the disparate elements from up and downstream on your supply chain, creating a far more efficient means of data management and analysis to find new ways of optimising your processes.

Digital Twins

Digital twin software is popular amongst many manufacturers and is predicted to become an essential part of future manufacturing methods. The concept of a digital twin is to create a digital simulation of a physical process or product. CAD (computer-aided design) is an example of this widely used idea, but further advancements are being developed for more intricate twins. This is achieved with various software designed to create digital objects within a computer that an engineer can analyse. These can be considered advanced prototypes, produced cost-effectively, so their manufacture or specifications can be assessed before committing to a physical twin. This is particularly useful when creating bespoke products requiring unique production methods; by testing them in a digital space, you can finalise your concept and prevent your investment from going to waste. It’s predicted that 70% of manufacturers will have a system that uses big data during 2023. Additionally, with investment in IoT (Internet of things) growing, the growth of digital twin technology could rise to 89% as soon as 2025.

It’s clear that digital integration is a permanent part of manufacturing’s future. Moreover, these systems’ effectiveness is increasing alongside the demand for new ideas. With digital integration becoming more achievable each year, it’s conceivable that all manufacturers will need to adopt these effective digital systems to remain a competitive business within the industry.

The manufacturing industry is taking many different approaches toward becoming more eco-friendly. The impressive shift to increased sustainability is inspired by government initiatives toward creating a green economy and drastically reducing the environmental impact of manufacturing. As well as optimising work processes and embracing recycling, many manufacturers have replaced their existing heating plans with air source heat pumps (ASHP).

How COP26 Affected the Manufacturing Industry

The UN Climate Change Conference (COP26) took place in Glasgow in November 2021, and the results of this impressive conference have had a significant effect on the manufacturing industry. Globally, the sector contributes roughly 23% of emissions, second only to energy generation systems and on par with transport.

Many areas were addressed, and plans were implemented to resolve them. Elements such as sourcing raw materials, supply chain vehicles and encouraging a paperless work environment were all highlighted as areas that the industry could improve upon with new green technologies.

Benefits of ASHP

Air source heat pumps are a sustainable way to heat a building, and the technology has become widely popular in commercial and domestic environments. Air source heat pumps are capable of heating large spaces without using conventional fossil fuel sources. They achieve this by extracting warmth from the ambient air outside and drawing it inside to heat radiators or water tanks. This extracted air is funnelled through a compressor, also known as a heat exchange. The amount of heat generated will depend on the size of the unit installed. For example, an average ASHP delivers roughly 4kwh (kilowatt per hour) of energy for every 1kwh used to power it, resulting in a 300% heating bonus for the owner.

Despite the name, they can adapt to either heating or cooling depending on the temperature of the air outside. This has the immediate benefit of replacing the need to purchase a separate heater and air-conditioner with a single alternative, an air source heat pump.

These eco-friendly alternatives to conventional heating have already been adopted in office and school environments, with many more sectors gaining from the benefits. This current progress is estimated to reduce 40-50% of CO2 emissions from these sectors. Manufacturing previously contributed the most emissions, but thanks to ASHPs, this can be drastically reduced.

Costs of ASHP

Spring manufacturers, like any business, are constantly looking for new ways to optimise their expenses. Unfortunately, the unpredictable costs of most conventional fossil-fuel heating systems make planning these costs difficult. In addition, the manufacturing industry’s long-term reliance on fossil fuel-powered heating systems has made reducing heating expenses difficult, especially with rising costs in that area. This makes the development of efficient, eco-friendly ASHP units an attractive prospect as your costs will be reduced to the electricity required to run it. Additionally, these units need little maintenance and can last between 10-25 years, making them a sound investment.

Air source heat pumps are far more efficient than conventional heating systems. They have been rated at 300% increased efficiency in both domestic and industrial environments. The idea of generating three heating units worth of heat for one cost is a gain any manager can’t afford to ignore. A study of the savings produced showed that businesses can save as much as 51% a year with commercial ASHP units while significantly helping the environment.

Supporting Renewable Energy Sources

One of the most prominent benefits of investing in air source heat pumps is their minimal carbon footprint; they’re rated for zero-carbon emissions, enabling you to benefit from green electricity tariffs. Many energy suppliers will provide you with the choice of a green tariff to support renewable energy sources. Choosing a green tariff sends a clear statement that your company endorses renewable sources.

They accomplish this by matching the electricity used for your ASHP units with verified renewable sources rather than taking it from fossil or nuclear sources. This can happen in one of two ways, either your electricity is sourced from renewables, or the energy company purchases a matching amount of electricity from renewables on your behalf. In either case, your supplier should inform you where they source their electricity.

ASHP units also help with industrial plans for carbon offsetting. Carbon offsetting is a significant first step and a successful tool allowing manufacturers to support a sustainable industry more efficiently. A purchased carbon offset represents a reduction of 1 metric ton of CO2 emissions; these purchases financially support the development of renewable energies such as solar, wind and wave.

For example, The more compression spring manufacturers invest in ASHP, the lower the harmful emissions will be, and support for renewable energy will grow. Expanding this example to the whole industry would remarkably improve eco-friendly sustainability across the sector. The green tariffs and carbon offsets simultaneously still support the development of green, renewable energy sources for a brighter future.

At European Springs, we constantly look for new ways to optimise our workflows. Still, we are also conscious of the industry’s environmental impact and are striving to meet these positive challenges of becoming more sustainable.

Browse our complete stock catalogue here, including torsion springs and other high-quality springs, wireforms and pressings.

Manufacturing is a constantly changing industry. Adapting to changes in customer demand, product requirements, and production economics across the supply chain demands that the industry adapts and evolves to thrive.

There are many factors that the industry needs to take into account to meet shifting changes. For example, as the UK moves towards a more eco-friendly attitude toward manufacturing, companies must improve their supply chains and create a new level of sustainable manufacturing. New technologies also affect the industry, demanding companies optimise their processes and teams to remain competitive. Adapting to emerging trends is essential for any business; here are a few that the manufacturing industry is currently facing.

Consumer Lead Manufacturing

The more you see the ways manufacturing is evolving over these recent years, the more obvious it is that an enormous change is coming. One significant contribution to these changes is because computer designs are operating in an increasing number of manufacturing processes. Knicknamed the 4^th industrial revolution, innovations are creating a new industry that will significantly change the ways products are designed, produced and distributed by doubling productivity whilst halving the cost.

This enhanced freedom of choice provided by these computerised manufacturing processes has significantly increased the manufacturing of bespoke components. This desire was initially addressed with the implementation of CNC machinery that allowed for easier customisation of designs tied with an increase in production speed and accuracy. At European Springs, we have a fully equipped toolroom that includes the latest WEDM machines connected to our in-house 3D CAD software, providing significant adaptability for producing bespoke products for our clients.

CNC machines are a typical example of how computerised manufacturing has changed the industry, but the emergence of 3D printing has the potential for more changes in the future.

3D Printings Relationship With Manufacturing

The increased demand for bespoke components has propelled 3D printing technology into the manufacturing industry. 3D printing is a manufacturing process that enables the creation of objects from a 3D digital model created by a computer. These popular printing machines can use either plastic or metal to build the desired object, layer by layer, creating complex designs that would be far more costly than older manufacturing methods. The smaller printing units have grown in popularity amongst amateurs and hobbyists, creating an impression that 3D printing is just for small objects, but 3D printing is also being embraced for industrial applications.

Industrial 3D printing has been successfully used for various applications, including aerospace, automotive and medical sectors. This is due to the adaptability and reliability of the technology. It can decrease production costs and lower carbon footprint but also provide the benefits of fast prototyping and simplified manufacturing processes.

This trend of consumer lead manufacturing is enabled by 3D printers’ ability to create unique components such as bespoke springs out of durable metal easily. Of course, this will lead to sizable changes regarding machinery and processes. Still, it seems that 3D printing is an emerging presence within the industry and could potentially be for a long time.

Digital Supply Chains

As experienced compression spring manufacturers, we understand the importance of effective supply chain management for conducting smooth operations. Several supply chain management trends aim to ensure the durability and predictability of these vital resources.

One of the most common trends in controlling shifting supply chains is redesigning them with digital management. A digitised supply chain network brings a wealth of data that, when properly managed, can improve every working process as well as your supply chain.

This move to digital supply chain management increases the visibility of all the moving parts of the chain. With many manufacturers and suppliers on digital networks, companies are leaving behind the traditional paper-based, manual process that requires a significant amount of admin to maintain.

Digital management is also leading to an increase in automation. Businesses are increasing their efficiency by automating the supply chain process elements. For example, digital tools such as wireless gateway sensors let deliveries be monitored in real-time with minimal human input.

Sustainability in Manufacturing

Increasing green initiatives are a dominant force throughout the manufacturing industry due to the UK’s plans for a green industrial revolution. The current Netzero 2050 strategy has had the most considerable effect on the industry and its supply chains as more companies are exploring Netzero chains when sourcing their materials. Initiatives are in place already that limit wasted materials.

Limiting the amount of new raw materials used during manufacturing has led manufacturers to embrace recycling plans and optimise their processes to reduce wasted material to minimal levels. Apart from the environmental benefits, this has positively affected those companies’ financial savings, as these materials are now used more efficiently.

High-Quality Springs, Pressings and Wireforms From European Springs

As a leading springs manufacturer, we at European Springs have observed the manufacturing industry adapt and grow, adopting many new trends to benefit the industry as a whole. As a result, we are consistently discovering new ways of optimising our processes and methods to create cost-effective, high-quality products for all our customers.

You can view our entire spring catalogue online here.

With the positive progression of the UK’s plans to achieve Net Zero emissions by 2050, the manufacturing industry made extensive changes to its current working practices.

Manufacturing plays a vital role in the UK economy and is one of the leading industries to adopt innovations that reduce harmful emissions. These changes have been aligned with the eco-friendly national strategy in various ways, one of the most significant being the introduction of green skills.

What are Green Skills?

Green skills is a framework that assists people and businesses in refocusing their processes into something more sustainable, whether that’s an increase in social, economic or environmental sustainability. Green skills can be implemented as shared knowledge or skills or as business attitudes and values. Still, all are important for creating a new green mindset that can reduce the environmental impact of your current methods.

The four main categories of all green skills are cognitive, technological, interpersonal and intrapersonal competencies. These form the essence of the green skills applied within a business, including manufacturing.

Cognitive competencies cover the awareness of the people involved in sustainable practices. This can include sharing data, encouraging involvement with environmental awareness, and exploring new opportunities to increase your current methods.
Technological competencies involve creating and implementing various technological innovations to replace wasteful practices. This will be unique to every business’s needs but will have an impressive impact once introduced.
Interpersonal competencies. If the cognitive step is thought of as learning and planning, this step is about implementing your new sustainable strategies. This will involve coordination and management relevant to achieving your pre-determined goals of increasing your sustainability.
Intrapersonal competencies is where green skills will be the most prominent. New skills, adaptable working practices and new technologies will increase the sustainability of your work, leading to significant positive results.

These classifications are similar to the widely used ‘soft skills’ essential to developing modern working environments. The primary difference is the specific goal of supporting more eco-friendly and sustainable working methods.

Green Skills in Manufacturing

Regarding green skills in manufacturing, three areas are the most important to address:

Resource efficiency
Environmental product improvements
Low-carbon economy

Resource Efficiency in Manufacturing

Resource efficiency in manufacturing involves assessing how efficiently the required raw materials are used. Natural resources are becoming increasingly more valuable for manufacturing, but a greener manufacturing process can be achieved through efficient use and embracing recycled sources. In Europe, on average, over 50% of manufacturing costs come from acquiring these natural resources.

The green skills involved with resource efficiency are heavily connected to finding new ways of reducing expensive waste and reducing manufacturing costs and emissions whilst not reducing production. In addition, green skills within resource management lead to the creation of many new technologies and practices, including lean manufacturing.

As experienced compression spring manufacturers, we know that lean manufacturing is one of the most successful green skills and has been adopted industry-wide as a positive change. This is where a company can make positive changes to their products and improve their production methods environmentally.

Lean manufacturing aims to maximise your current productivity whilst simultaneously reducing waste to its lowest amounts, and in this context, waste is anything that doesn’t add value to your company. Besides the environmental benefits of making the most of your resources, lean manufacturing also helps reduce lead times and operating costs while not sacrificing product quality.

Low Carbon Economy

Over the last 70 years, harmful emissions have grown exponentially across all sectors. Manufacturing used to be a significant contributor to this, but with the introduction of many green skills, the industry’s effect on the environment is decreasing.

Also known as a decarbonised economy, this strategy promotes the development of low emission alternatives. The primary examples are renewable energy sources such as solar panels and wind turbines, but purchasing these is not the only way manufacturers can improve their sustainability. Another popular way is with carbon offset.

Carbon offset is a relatively new method of improving your business’s sustainability. Companies can choose to invest in the further development and creation of renewable energy sources. That investment is scaled to match their current carbon emissions footprint, thereby creating a balance that renders their emissions neutral.

Expert Spring and Pressing Suppliers

As expert tension spring manufacturers, we understand how crucial it is that green skills are shared and implemented across the entire industry as the best way of limiting harmful emissions and meeting that desired target of Net Zero.

We are constantly exploring new opportunities and innovations to improve our sustainability as we continue to be leading manufacturers of suspension springs, pressings and wireforms. At European Springs, we are committed to ensuring all our products are of the highest quality for our clients and are also dedicated to meeting our goals of ecological improvement and overall sustainability.

If you have any questions about our products, please explore our full range in our catalogue or feel free to contact us directly and one of our engineers will answer your questions.