Common Materials Used in Industrial Manufacturing

Durable, versatile, and cost-effective materials are crucial in creating products that meet the demands of modern industries. From automotive components, specialty seals, and heavy machinery to medical devices to consumer goods, manufacturers need materials that can withstand stress, resist wear, and perform consistently under different conditions. Rubber, urethane, and plastics are among the most common materials used in industrial manufacturing. These materials each have different unique properties that make them suitable for various industrial applications.

Common Materials Used in Industrial Manufacturing

Rubber 

One of the most essential materials in industrial manufacturing is rubber. This is because of its elasticity, resilience, and shock-absorbing qualities. It is used in a variety of ways in automotive, aerospace, construction, and industrial equipment manufacturing.

Its elasticity is one of rubber’s primary advantages over other materials. Rubber components can stretch and then return to their original shape while still performing their function without any problems. Its elasticity makes it ideal for seals, gaskets, hoses, belts, and vibration dampeners. Industrial machinery benefits from rubber for its ability to minimize noise, reduce friction, and absorb impact during operation.

Depending on its formulation, rubber can be trusted to resist water, chemicals, and extreme temperatures.

Manufacturers value natural rubber for its flexibility and tensile strength, while synthetic rubber materials such as neoprene, EPDM, and nitrile are designed for specialized applications. For instance, nitrile rubber is resistant to chemicals, so it is usually used in environments exposed to oils and fuels. 

Rubber also extends equipment life and improves operational efficiency. It is used in conveyor belts, protective linings, and industrial rollers.

Urethane and Its Industrial Benefits

Versatility

Urethane, also known as polyurethane, is another highly versatile material widely used in industrial manufacturing. It is a combination of many of the best properties of rubber and plastic, making it the usual choice for those who need durability and abrasion resistance.

Resistance to Wear

Urethane’s resistance to wear is one of its standout features. It usually lasts longer in a high-friction environment compared to traditional rubber. Because of this, it is ideal for wheels, rollers, bushings, and industrial pads that experience constant movement and pressure.

Customizability

The hardness, flexibility, and density of urethane can also be adjusted and customized to meet specific application requirements. For cushioning and shock absorption, manufacturers may use soft cushioning materials, while for structural or load-bearing applications, they may use harder formulations.  

Chemical Resistance

Urethane is resistant to oils, chemicals, and solvents. It can maintain performance and durability over extended periods, even when exposed to harsh substances in industrial settings. Its resistance to moisture and weathering enables it to perform well in both indoor and outdoor environments.

Lower Maintenance Costs and Improved Performance

Urethane parts are commonly used in mining, agriculture, material handling, and manufacturing due to their lower maintenance costs and improved performance. They are strong and flexible, making them a practical solution for many heavy-duty applications.

Plastics in Modern Manufacturing

The affordability, lightweight nature, and versatility of plastics have revolutionized industrial manufacturing. Today, countless materials and components are made from plastic, from simple packaging items to highly engineered machine parts.

Benefits of Plastics

Adaptability

Plastics can be designed to have specific characteristics such as heat resistance, insulation, transparency, or impact resistance.

Strength and Lightness

In industries such as automotive or aerospace manufacturing, where lightweight yet strong materials are required, plastics are especially valuable. Plastic materials help reduce overall weight, which improves fuel efficiency and performance. Plastics also provide insulation and protection for sensitive components in electronics manufacturing.

Corrosion Resistance

Compared to metal, plastics do not rust. This makes them ideal for environments exposed to moisture and chemicals. In addition, manufacturers can mold them into complex shapes and customize them efficiently and cost-effectively. 

Selecting the right material is essential for maintaining the performance, reliability, and longevity of the equipment. We provide high-quality materials and components for the manufacture of seal systems. Contact us today to learn how our sealing solutions can help improve and support your manufacturing operations.

Why Rubber Parts Wear Out and How to Prevent Early Failure

Rubber components, such as seals, gaskets, O-rings, hoses, and bushings, and specialty seals perform critical functions in machinery, vehicles, and equipment. The problem is that, although they are flexible and resilient, rubber parts are among the first to fail, resulting in costly downtime, repairs, and replacements. Businesses need to understand why rubber parts wear out and how to prevent early failure to avoid these problems.

Why Rubber Parts Wear Out and How to Prevent Early Failure

1. Heat and Thermal Degradation

Rubber is highly sensitive to temperature. Rubber hardens, cracks, or loses elasticity when it is exposed to heat for a long time. Heat accelerates the chemical reactions within the rubber and breaks down its polymer structure. This is one of the most common causes of failure in engines and industrial machines.

2. Oxidation and Ozone Exposure

Oxygen and ozone in the air can attack rubber over time in a process known as oxidation. This leads to brittleness and surface cracking. Ozone can cause fine cracks that grow deeper with stress.

3. UV Radiation

Sunlight is another problem. UV rays break down rubber at the molecular level. This leads to fading, hardening, and eventual cracking. Outdoor equipment and materials are particularly vulnerable to this problem.

4. Chemical Exposure

Rubber is not universally resistant to all chemicals. Swelling, degradation, or softening can happen due to oils, fuels, solvents, acids, and cleansing agents. The wrong type of rubber, when used in a specific chemical environment, can shorten its lifespan.

5. Mechanical Stress and Wear

Constant friction, pressure, and stretching can cause rubber to wear over time. When seals are repeatedly compressed or hoses continuously vibrate, they may lose their shape or develop leaks. Abrasion can also occur when they come in contact with other surfaces. This can wear rubber down.

6. Poor Storage Conditions

Deterioration can occur even for unused rubber parts when they are not properly stored. Exposure to light, heat, and humidity can cause premature aging. When parts are stored in an open or uncontrolled environment, they can fail before they are even installed.

7. Inferior Material Quality

Not all rubber is created equal. Some use low-quality materials, or poorly manufactured parts may lack the additives needed to resist heat, UV, or chemicals. This causes rubber to degrade more quickly, potentially leading to inconsistent performance.

How to Prevent Early Failure

1. Choose the Right Rubber Material

Different types of rubber are required for different types of applications. For example, nitrile rubber is better for oil resistance, while EPDM performs well outdoors or in UV-exposed environments. To prevent failure, start by choosing the right rubber material for the job.

2. Control Operating Temperatures

Keeping rubber components within their required temperature range is crucial. Insulation, shielding, or cooling systems reduce heat exposure. Even just a small reduction in temperature can help prolong the life of a rubber part.

3. Protect Against the UV or Ozone

Consider protective coatings, covers, or UV-resistant materials. You may also minimize exposure to light and air by storing spare parts in dark, sealed containers.

4. Minimize Chemical Contact

Ensure rubber is compatible with any chemicals it may encounter. Sometimes, exposure is unavoidable. In these cases, choose a rubber compound specifically designed to resist those substances. Regular cleaning with appropriate agents can help you avoid the buildup that accelerates degradation.

5. Reduce Mechanical Stress

Ensure that the rubber part is properly installed and aligned. Avoid over-tightening, excessive stretching, or misalignment as they put unnecessary strain on rubber parts. Reduce friction and wear whenever appropriate by using a lubricant.

6. Follow Proper Storage Practices

    Rubber components need a cool, dark, and dry environment. Keep them away from direct sunlight, ozone surface, and fluctuating temperatures. Keep them in sealed packaging until it is time to use them.

    7. Inspect and Replace Proactively

      Catch any signs of wear, like cracks, hardening, or deformation, by doing a routine inspection. Replace parts that need replacing even before they fail to avoid unexpected breakdowns and protect surrounding components from damage.

      At Real Seal, we understand that durability is not an option. It is a requirement. With our engineered rubber components, you can be assured of strength and consistent performance over time. Whether you need custom solutions or high-quality replacements, contact us today so we can help you choose the right materials and specifications for your operations.