Simply stated, mating fasteners pair a female barrel with a male screw for the purpose of clamping material between the barrel and screw heads or bridging gaps between two components, such as passing through a hollow door.

These components, known by various names like Sex Bolts, Architectural Screws, Binding Screws, Binding Bolts, Binding Posts, Chicago Screws, Male and Female Bolts, Post and Screw, and Threaded Rivets, serve versatile purposes.

These components find utility in a diverse range of applications, including acrylic fastening, aquariums, automotive aftermarket, awnings, bathroom partitions, bleachers, boats, bulletproof glass panel joining, buses, cabinetry, construction, display fixtures, doors, exhibits, fence systems, furniture, gates, glass fastening, handrails, hinge pins, hurricane protection, HVAC, lockers, panic bars, playground equipment, plexiglass fastening, plumbing, architectural railings, RV manufacturing, seating, sheet metal fastening, shutters, signs, trains, and more.

Barrel screws are characterized by five key criteria:

1. Barrel Diameter - Designed to fit through predrilled holes, the barrel diameter should be slightly smaller than the hole diameter.

2. Barrel Length - Measured from beneath the head to the end of the barrel, or overall length for flat heads.

3. Thread Size - Specifies the size and depth of threads in the barrel.

4. Head Type and Drive - Most commonly featuring a "truss" style head, other prevalent drive styles include none, slotted, socket, and combo drive.

5. Material and Finish - Manufactured in various materials such as aluminum, brass, copper, 18-8 stainless steel, and Type 316 stainless steel, with options for different platings.

If you’d like more information or pricing on mating fasteners, contact Mudge Fasteners at (800) 634-0406.

Expansion anchors are a type of mechanical anchors.

Injectable epoxy is an example of a non-mechanical anchor.

When it comes to securing structures and ensuring safety in construction, the choice between mechanical anchors and non-mechanical anchors is a critical consideration. Both types play pivotal roles in various applications, but they differ significantly in design, installation, and performance. In this article, we'll review the features, benefits, and potential drawbacks of mechanical anchors and non-mechanical anchors to help you make informed decisions in your construction projects.

Mechanical Anchors: Strength in Precision

Mechanical anchors are devices designed to create a secure connection by utilizing mechanical components to grip and fasten into a substrate. These anchors are widely used in construction and engineering due to their reliability and strength. Here are some key features and benefits of mechanical anchors:

• Versatility: Mechanical anchors are available in various types, including expansion anchors, screw anchors, and wedge anchors. This versatility allows for optimal selection based on specific project requirements.

• High Load Capacity: Mechanical anchors excel in bearing heavy loads, making them suitable for critical applications where structural integrity is paramount. The mechanical engagement with the substrate enhances stability.

• Reliable Performance in High-Stress Environments: In environments with high vibrations or dynamic loads, mechanical anchors outshine non-mechanical counterparts. The mechanical interlocking mechanisms provide a robust connection that remains steadfast under pressure.

• Ease of Inspection: Mechanical anchors often allow for easy visual inspection, ensuring that they are properly installed and maintaining their integrity over time.

Despite these advantages, mechanical anchors do have some drawbacks:

• Precision in Installation: Achieving optimal performance with mechanical anchors requires precise installation, including proper torque or tensioning. Improper installation may compromise the anchor's effectiveness.

• Limited Applicability in Brittle Substrates: Mechanical anchors may not be ideal for brittle materials, as the force exerted during installation can lead to cracks or damage.

Non-Mechanical Anchors: Simplicity with Diverse Applications

Non-mechanical anchors, on the other hand, rely on friction, adhesion, or chemical reactions to secure themselves within a substrate. These anchors are often appreciated for their simplicity and ease of use. Here are some features and benefits of non-mechanical anchors:

• Ease of Installation: Non-mechanical anchors are generally simpler to install, making them a popular choice for quick applications where time is a crucial factor.

• Suitability for Brittle Materials: Unlike mechanical anchors, non-mechanical anchors are well-suited for use in brittle materials, minimizing the risk of substrate damage during installation.

• Chemical Bonding for Enhanced Stability: Chemical anchors, a type of non-mechanical anchor, create a strong bond with the substrate, providing enhanced stability and load-bearing capacity.

However, non-mechanical anchors also come with their own set of limitations:

• Lower Load Capacity: In comparison to mechanical anchors, non-mechanical anchors generally have a lower load-bearing capacity, limiting their use in heavy-duty applications.

• Dependence on Substrate Properties: The effectiveness of non-mechanical anchors can be influenced by the properties of the substrate, and their performance may vary in different materials.

In conclusion, the choice between mechanical anchors and non-mechanical anchors ultimately depends on the specific requirements of a project. Mechanical anchors offer superior load-bearing capabilities and reliability, making them ideal for critical applications. On the other hand, non-mechanical anchors provide simplicity and ease of installation, catering to projects where speed and convenience are essential.

When making decisions, it's crucial to consider factors such as substrate type, load requirements, and installation constraints. In many cases, a combination of both mechanical and non-mechanical anchors may be employed to achieve an optimal balance of strength and simplicity in construction projects.

If you’d like assistance choosing between mechanical and non-mechanical anchors for your project, contact Mudge Fasteners at (800) 634-0406.

Download the new Mudge Fasteners Stainless Steel Reference Guide (PDF).

In the world of construction and manufacturing, the choice of fasteners can significantly impact the longevity and performance of a structure. Among the myriad options available, stainless steel fasteners stand out as a superior choice, offering a host of benefits that make them a favorite in various industries.

Corrosion Resistance

One of the most prominent advantages of stainless steel fasteners is their exceptional resistance to corrosion. Unlike regular steel, which can rust when exposed to moisture and harsh environmental conditions, stainless steel maintains its integrity even in the face of challenging elements. This resistance to corrosion ensures that structures and equipment remain sturdy and reliable over an extended period, reducing the need for frequent replacements and maintenance.

Durability and Strength

Stainless steel fasteners are renowned for their durability and strength. This makes them ideal for applications that require robust and long-lasting connections. Whether used in construction, automotive manufacturing, or marine environments, stainless steel fasteners can withstand significant stress and pressure, ensuring the structural integrity of the components they hold together.

Aesthetic Appeal

In addition to their functional benefits, stainless steel fasteners also offer aesthetic appeal. The sleek, polished finish of stainless steel adds a touch of sophistication to any application. This makes them a preferred choice for projects where both functionality and appearance are crucial, such as architectural designs and high-end machinery.

Wide Range of Applications

Stainless steel fasteners find applications in a diverse range of industries. From aerospace engineering to food processing plants, their versatility makes them suitable for various environments. The ability to maintain their performance across different temperatures and conditions further expands their utility, making them indispensable in both indoor and outdoor settings.

Low Maintenance

Due to their resistance to corrosion and durable nature, stainless steel fasteners require minimal maintenance. This characteristic not only reduces the overall cost of ownership but also contributes to sustainable practices by minimizing the need for frequent replacements and repairs.

Environmentally Friendly

Stainless steel is a recyclable material, making stainless steel fasteners an environmentally friendly choice. Recycling stainless steel is an energy-efficient process, and it helps conserve natural resources. This sustainability aspect is increasingly important in today's world, where environmental considerations play a significant role in decision-making processes.

Mudge Fasteners just released a brand new Stainless Steel Reference Guide, containing a multitude of stainless steel fastener products and reference information. Included in the reference guide are 18-8, 316 and 410 stainless steel products, standards and non-standard, metric and inch products, as well as imported products and made in the USA stainless steel fasteners. Download a PDF version of the reference guide here, or contact Mudge Fasteners for pricing and more information on stainless steel fasteners.

Download the newest Red Head concrete anchoring products catalog (PDF).

In the realm of construction and infrastructure, the importance of stability cannot be overstated. Whether you're erecting a towering skyscraper or installing a humble handrail, the integrity of your structure relies heavily on the quality of its anchoring systems. Among the myriad options available, Red Head concrete anchoring products stand out as a beacon of reliability and durability. In this article, we'll delve into the world of Red Head and explore why their anchoring solutions have become a trusted choice for builders and engineers worldwide.

Red Head, a brand under the ITW Construction Products umbrella, has been a stalwart in the construction industry for decades. Renowned for its commitment to innovation and quality, Red Head has become synonymous with rock-solid anchoring solutions that set the standard for safety and performance.

Red Head offers a comprehensive range of concrete anchoring products designed to meet the diverse needs of construction projects. From light-duty applications to heavy-duty structural requirements, Red Head has a solution for every scenario. Let's explore some of their flagship products:

1. Red Head Wedge Anchors: Ideal for both temporary and permanent installations, these anchors provide reliable holding power in various concrete applications. With a design that expands and contracts with the concrete, Red Head Wedge Anchors ensure a secure grip over time.

2. Red Head Drop-In Anchors: Known for their simplicity and efficiency, drop-in anchors are perfect for projects where consistency and ease of use are paramount. Red Head's Drop-In Anchors provide reliable performance in both static and dynamic load conditions.

3. Red Head Dynabolt® Plus Anchors: This series of anchors offers exceptional strength and versatility. With features like self-tapping threads and a hexagonal head for wrench tightening, Dynabolt® Plus Anchors are well-suited for heavy-duty applications in concrete and masonry.

What sets Red Head apart is its commitment to continuous innovation. The brand consistently invests in research and development to stay at the forefront of anchor technology. The result is a product lineup that not only meets industry standards but often exceeds them.

1. Load Testing and Certification: Red Head anchors undergo rigorous testing to ensure they meet or exceed industry standards for load capacity and durability. This commitment to quality assurance provides peace of mind to builders and engineers relying on Red Head products in their projects.

2. Environmentally Friendly Solutions: Red Head is also dedicated to sustainability, offering products that not only excel in performance but also considerate of environmental impact. This commitment aligns with the growing emphasis on eco-friendly practices in the construction industry.

To truly understand the impact of Red Head concrete anchoring products, let's explore a couple of real-world case studies where these solutions have played a pivotal role:

1. Skyscraper Foundations: In the construction of high-rise buildings, where the demand for stability is paramount, Red Head's heavy-duty anchoring solutions have been instrumental. The ability to withstand intense loads and the durability to resist environmental factors makes Red Head a top choice for skyscraper foundations.

2. Infrastructure Rehabilitation: In the rehabilitation of existing structures, where the challenge lies in retrofitting anchoring systems, Red Head's innovative products offer practical and efficient solutions. The adaptability of their anchors makes them invaluable in upgrading the safety and stability of aging infrastructure.

Red Head concrete anchoring products represent more than just hardware; they embody a commitment to strength, reliability, and innovation. As the construction industry evolves, the demand for trustworthy anchoring solutions becomes even more critical. Red Head's legacy of excellence positions it as a go-to choice for builders and engineers aiming to create structures that stand the test of time. In the world of construction, where stability is the cornerstone of success, Red Head anchors the future of reliability.

Red Head recently released its newest catalog, which you can download here. If you’d like pricing or more information on Red Head products, contact Mudge Fasteners at (800) 634-0406.

Elco's Dril-Flex Self-Drilling Structural Screws represent a dual heat-treated innovation in self-drilling tapping screws, designed to meet the stringent requirements for strength, ductility, and resistance to embrittlement in critical applications. These screws are commonly employed in various applications, including curtain walls, rainscreen systems, window walls, glazing, solar panel installations, architectural guardrails, and more.

The notable features and advantages of Elco Dril-Flex screws include:

• High-hardness point and lead threads tailored for efficient drilling and tapping.

• Lower-hardness load-bearing areas, ensuring heightened resistance to Hydrogen-Assisted Stress Corrosion Cracking when compared to fasteners with case-hardened properties.

• Stalgard® and Stalgard® SUB Coatings, enhancing corrosion resistance and galvanic compatibility in dissimilar metal applications, particularly with aluminum, surpassing the performance of fasteners equipped with standard zinc plating.

• Fasteners coated with Stalgard® SUB typically exhibit no red rust or other base metal corrosion on significant surfaces after 2000 hours of salt spray exposure, as per ASTM B117 standards.

• Fasteners coated with Stalgard® typically demonstrate no red rust or other base metal corrosion on significant surfaces after 1000 hours of salt spray exposure, following ASTM B117 guidelines.

Now, Mudge Fasteners has created the Elco Dril-Flex spec sheet shown below, so you can review all of the head styles, screw lengths, drill points and threading options for Elco Dril-Flex Self-Drilling Structural Screws. Click here to download a printable PDF file of this Elco Dril-Flex Self-Drilling Structural Screws spec sheet.

If you’d like pricing or have a question about Dril-Flex screws or other Elco products, contact us at (800) 634-0406 to get the answers you need.

ND Industries employs a pre-application method known as ND Anti-Seize, where custom dry film lubricants are administered to fasteners and assemblies. This process is implemented to counteract issues such as galling, seizing, and corrosion. Pre-applied bolts, subjected to the same torque as uncoated bolts, demonstrate an elevated torque clamp load.

How ND Anti-Seize Works

When customer components are shipped to ND Industries, they undergo our distinctive ND Anti-Seize pre-application procedure, during which dry film lubricants are applied to fasteners and assemblies in large quantities. The custom-formulated materials are subsequently dried, and the finalized fasteners are carefully packaged before being returned to the customer.

These processed parts are delivered in a state ready for immediate assembly or can be stored until required. The prolonged shelf life of ND Anti-Seize-treated parts is attributed to the inert characteristics of the materials utilized. Nevertheless, it is advisable to conduct re-certification of the parts to ensure that external factors have not compromised their performance.

Utilizing the ND Anti-Seize process has a plethora of benefits, including:

• Time Efficiency: The utilization of Pre-Applied ND Anti-Seize parts allows for automatic feeding through standard devices, expediting your operational processes and enhancing overall productivity.

• Cost Savings: The ND Anti-Seize processing method proves to be more cost-effective than the application of bottled anti-seize at the assembly point.

• Quality Assurance: Pre-Applied components are meticulously coated according to specifications, ensuring a consistent level of performance that surpasses that of bottled products.

• Fatigue Reduction: ND Anti-Seize processing contributes to a decrease in installation and removal torques, alleviating the burden on fastener fatigue.

• Profitability Boost: Enhance the value of your fasteners without expanding inventory by delivering self-lubricated fasteners to customers.

ND Anti-Seize applications encompass a wide range, including Steering Columns, Engine Applications, Brakes, Rear-End, Transmissions, Areas of Vibration, Areas of Heat, Military Fasteners, and more. Furthermore, ND Anti-Seize meets or exceeds the performance criteria outlined in the General Motors GM 6108M specifications and standards.

For pricing or more information about ND Anti-Seize, contact Mudge Fasteners at (800) 634-0406.

Fasteners, those seemingly humble components, play a crucial role in the stability and durability of structures and equipment. However, when these fasteners are subjected to extreme environmental conditions, their performance becomes paramount. In this article, we will explore the challenges fasteners face in both Arctic cold and desert heat and the solutions that ensure their reliability.

The extreme cold of the Arctic poses unique challenges for fasteners. Here's how:

• Brittle Fracture: In sub-zero temperatures, many materials become brittle, increasing the risk of fastener breakage. This can compromise structural integrity.

• Thermal Expansion and Contraction: Rapid temperature fluctuations can cause materials to expand and contract, putting stress on fasteners. Over time, this can lead to loosening or failure.

• Ice Formation: Ice can accumulate on fasteners, interfering with their function. It may also lead to corrosion when it melts and refreezes.

• Reduced Lubrication: Lubricants can become less effective or freeze in extremely cold conditions, affecting the ease of fastener installation.

To overcome these challenges, choose fasteners made from materials designed for low-temperature environments, use anti-seize compounds to prevent seizing, and regularly inspect and maintain fasteners to address potential issues promptly.

Desert environments bring their own set of challenges for fasteners:

• High Temperatures: Extreme heat can weaken fasteners and reduce their load-bearing capacity. Over time, this can lead to fastener failure.

• Dust and Sand: Fine particles of dust and sand can infiltrate fastener threads, causing abrasive wear and reducing friction, potentially leading to loosening.

• Corrosion: Dry desert air might not seem conducive to corrosion, but in arid environments, humidity can fluctuate greatly. This can cause condensation on fasteners, leading to corrosion. There are many corrosion resistant coatings available, such as DURA-CON, Magni and more.

• UV Radiation: Prolonged exposure to intense sunlight can degrade fastener materials and weaken them.

To address these challenges, use heat-resistant fasteners, apply coatings or platings that protect against corrosion, and keep fasteners clean and free from sand and dust.

Solutions for Extreme Environments:

• Choose the Right Materials: Select fasteners made from materials suitable for the specific environment. Stainless steel and other corrosion-resistant alloys are often ideal for both extreme cold and heat.

• Use Coatings and Platings: Consider fasteners with special coatings or platings to enhance their resistance to extreme conditions. Corrosion resistant coatings like DURA-CON are helpful in wet environments.

• Regular Maintenance: Inspect and maintain fasteners regularly to detect and address issues before they become critical.

• Lubrication: Use appropriate lubricants designed to perform in the temperature range you are dealing with.

• Thread-Locking Compounds: In environments with vibrations or dynamic loads, use thread-locking compounds to prevent fastener loosening.

• Environmental Seals: Apply seals or gaskets to protect fasteners from the ingress of foreign materials.

Fasteners in extreme environments face unique challenges, but with the right materials, maintenance, and protective measures, they can continue to perform reliably. Whether it's Arctic cold or desert heat, understanding the demands of the environment and selecting the appropriate fasteners is essential for the success, safety, and longevity of your projects and equipment. By addressing these challenges proactively, you can ensure that your fasteners withstand the harshest conditions and maintain their integrity.

If you have questions about which fasteners are right for your application, contact Mudge at (800) 634-0406 for assistance.

A hex bolt is a type of threaded fastener.

A cotter pin is an example of a non-threaded fastener.

When it comes to joining materials in construction, manufacturing, or everyday DIY projects, choosing the right type of fastener is essential. Two primary categories of fasteners you'll often encounter are threaded and non-threaded fasteners. Each has its own set of advantages and disadvantages.

Threaded fasteners, such as screws and bolts, are designed with helical threads that grip and secure materials together. Here are the pros and cons of using threaded fasteners:

Pros of Threaded Fasteners:

• Strong and Secure: Threaded fasteners offer excellent clamping force, making them ideal for applications where a strong and secure connection is necessary.

• Adjustability: You can easily adjust the tightness of threaded fasteners, which is especially useful when alignment is critical.

• Versatility: Threaded fasteners are available in a wide range of sizes, materials, and designs, making them versatile for various applications.

• Easier Assembly and Disassembly: Threaded fasteners can be removed and reinstalled without damaging the materials, making maintenance and repairs more straightforward.

• Thread Locking: They can be used with thread-locking compounds to prevent loosening due to vibrations or dynamic loads.

Cons of Threaded Fasteners:

• Complex Installation: Installing threaded fasteners can be more time-consuming compared to non-threaded options, especially in large-scale projects.

• Potential for Cross-Threading: Care must be taken to avoid cross-threading, which can damage the fastener and materials.

• Increased Cost: Threaded fasteners, especially specialty or high-strength varieties, can be more expensive than non-threaded alternatives.

Non-threaded fasteners, which include staples, clips, and pins, do not have helical threads. They rely on other mechanisms to secure materials together. Here are the pros and cons of using non-threaded fasteners:

Pros of Non-Threaded Fasteners:

• Quick Installation: Non-threaded fasteners are often faster to install, making them a time-saving option for high-volume or repetitive tasks.

• Simplicity: They are generally simpler to use, making them accessible for DIY projects and applications where ease of use is a priority.

• Low Cost: Non-threaded fasteners are usually more budget-friendly, which can be a significant advantage for cost-conscious projects.

• Low Profile: Non-threaded fasteners often leave a lower profile or no protrusion on the material's surface, which can be desirable for certain aesthetic or functional reasons.

Cons of Non-Threaded Fasteners:

• Limited Strength: Non-threaded fasteners may not provide the same level of clamping force as threaded alternatives, which can be a limitation in high-stress applications.

• Lack of Adjustability: Once non-threaded fasteners are in place, they are typically not adjustable without removal.

• Materials and Applications: They are not suitable for all materials or applications, especially those requiring a high level of structural integrity.

The choice between threaded and non-threaded fasteners depends on the specific requirements of your project. Threaded fasteners are known for their strength, adjustability, and versatility, but they may be overkill for simpler tasks. Non-threaded fasteners offer simplicity and cost savings but may not provide the same level of clamping force or adjustability.

Consider the nature of your project, the materials you're working with, and the desired outcome when selecting between threaded and non-threaded fasteners. In many cases, a combination of both types may be the most practical approach to meet your project's unique needs. Ultimately, understanding the pros and cons of each type will empower you to make informed decisions and achieve successful results.

If you need assistance determining whether you should use threaded or non-threaded fasteners in your application, contact Mudge at (800) 634-0406 and we’ll be happy to help.

Fatigue is one type of failure event a fastener can experience.

Fasteners are the hidden heroes of construction, manufacturing, and countless other industries. They play a vital role in holding together the structures and systems we rely on every day. However, fastener failures can lead to catastrophic consequences. Here, we'll explore the common causes of fastener failures and provide valuable insights on how to prevent them.

Fastener failures can manifest in various ways, including loosening, stripping, shearing, and corrosion. Let's delve into the primary causes of these failures:

1. Insufficient Torque: Fasteners that aren't tightened to the recommended torque can lead to joint separation, leaks, or other issues. To prevent this, always use a torque wrench to ensure the right level of tightness.

2. Vibration and Dynamic Loads: In applications subjected to vibrations or dynamic forces, fasteners can gradually work themselves loose. This is common in automotive and heavy machinery. To counteract this, use locking fasteners or thread-locking compounds.

3. Material Incompatibility: Using fasteners made of materials incompatible with the parts they're joining can lead to galvanic corrosion. Ensure compatibility, or use appropriate protective coatings.

4. Corrosion: Environmental factors, like moisture and exposure to harsh chemicals, can corrode fasteners over time. Choose corrosion-resistant materials and coatings like DURA-CON and Magni for applications in these conditions.

5. Fatigue: Cyclic loading or fluctuating stress can cause fatigue failure in fasteners. In high-stress environments, opt for fatigue-resistant designs and materials.

6. Improper Installation: Incorrect installation techniques, such as cross-threading, can weaken fasteners. Follow manufacturer recommendations and use the right tools for the job.

Now that we've identified the causes of fastener failures, let's discuss strategies to prevent them:

1. Follow Manufacturer Guidelines: Always adhere to the manufacturer's specifications for fasteners, including torque values and installation procedures.

2. Use Quality Fasteners: Invest in high-quality fasteners that meet industry standards and have a proven track record of reliability.

3. Choose the Right Material: Select materials that are compatible with the parts they'll join, and consider corrosion-resistant options for harsh environments.

4. Employ Proper Installation Techniques: Use the right tools and follow best practices for installation. This includes ensuring cleanliness, proper alignment, and avoiding over-tightening.

5. Consider Locking Solutions: For applications prone to vibration or movement, use locking fasteners or thread-locking compounds to maintain a secure connection.

6. Conduct Regular Inspections: Periodic inspections can catch early signs of fastener degradation. Replace any fasteners showing wear or damage promptly.

Fastener failures can have costly and even dangerous consequences. Understanding the causes and taking preventative measures is essential to ensure the safety, reliability, and longevity of your projects and equipment. By following best practices, using high-quality fasteners, and maintaining a proactive approach to maintenance, you can significantly reduce the risk of fastener failures and ensure the integrity of your assemblies. Remember, when it comes to fasteners, prevention is the best cure.

Need help choosing the right fasteners for your application to prevent the possibility of these failures? Contact Mudge at (800) 634-0406 for assistance.

Fasteners may seem like small, inconspicuous components in your projects, but they play a crucial role in maintaining structural integrity, safety, and overall performance. One of the key factors that often gets overlooked is torque, the rotational force applied to tighten or secure a fastener. In this article, we'll delve into the significance of torque in fastener installation and how it affects the reliability and longevity of your assemblies.

Torque is the measure of the turning force applied to a fastener during installation. It's a fundamental concept in ensuring that fasteners perform their intended functions optimally. Here's why torque matters:

1. Consistent Tightening: When fasteners are tightened to the proper torque, it ensures uniform compression and clamping force across the joint. This consistency is critical for preventing uneven stress distribution, which can lead to premature failures or material deformation.

2. Safety and Reliability: Proper torque helps maintain the structural integrity of the assembly, making it safe for its intended purpose. In applications where safety is paramount, such as automotive, aerospace, or construction, precise torque is non-negotiable.

3. Avoiding Overtightening: Overtightening can be just as detrimental as under-tightening. Excessive torque can strip threads, deform fasteners, or damage the materials being joined. Knowing the right torque specifications is essential to prevent these issues.

4. Resistance to Vibrations: In environments where equipment is subjected to vibrations or dynamic loads, correctly torqued fasteners are more resistant to loosening over time. This is crucial for machinery and transportation applications.

5. Corrosion Resistance: Adequate torque helps create a proper seal and reduces the likelihood of moisture or contaminants infiltrating the joint, thus improving corrosion resistance.

To ensure fasteners are installed with the correct torque, you should follow these steps:

1. Consult Manufacturer Specifications: Manufacturers provide torque specifications for their fasteners. Always refer to these guidelines to achieve the desired level of tightness.

2. Consider Material and Coating: The type of material and coating on the fastener, as well as the material of the parts being joined, can affect torque requirements. Take these factors into account when determining the appropriate torque values.

3. Use a Torque Wrench: A torque wrench is an essential tool for achieving precise torque. It allows you to apply the force with accuracy, ensuring that you neither under-tighten nor over-tighten the fastener.

4. Perform Torque Testing: In critical applications, consider torque testing or measurement to verify that the fasteners are tightened as specified. This extra step can be especially important in industries where safety is paramount.

Fasteners are the unsung heroes of countless structures and systems, and the torque used during their installation is a critical factor in their performance. Applying the correct torque ensures safety, reliability, and longevity. It's a small detail that can make a big difference, and taking it seriously can save you from costly mistakes and failures down the road. So, the next time you reach for a fastener, remember that the right torque matters more than you might think.

If you need help determining the proper torque for any given fastener, contact Mudge at (800) 634-0406 for assistance.

Hex Cap Screw

Hex Socket Screw

When it comes to fastening components together, choosing the right type of screw is essential to ensure a secure and reliable connection. Cap screws and socket screws are two common types of fasteners that serve various purposes in the world of manufacturing, construction, solar installation, automotive and more. In this article, we will explore the key differences between cap screws and socket screws, helping you make informed decisions when selecting the right fastener for your specific needs.

Cap Screws

Cap screws, also known as hex head screws or hex bolts, are a widely used type of fastener known for their distinctive hexagonal-shaped head. These screws are designed to be tightened or loosened with a wrench, providing a high degree of torque for applications that require a tight and secure fit. Here are some key characteristics of cap screws:

1. Head Type: Cap screws have a large, flat head with a hexagonal indentation on top. This design allows for easy and precise application of torque, making them suitable for heavy-duty applications.

2. Thread Type: Cap screws typically feature full threads along their entire length, ensuring a strong grip when fastening materials together.

3. Common Applications: Cap screws are commonly used in construction, machinery, automotive, and industrial applications where a strong, reliable connection is required. They are also frequently used in structural applications due to their robust design.

4. Materials: Cap screws are available in a wide range of materials, including steel, stainless steel, brass, and more, making them suitable for various environmental conditions and requirements.

Socket Screws

Socket screws, also known as Allen screws or socket head screws, have a unique cylindrical head with a recessed hexagonal socket. Instead of using a traditional wrench, socket screws require an Allen wrench or hex key for installation and removal. Here are some key characteristics of socket screws:

1. Head Type: Socket screws have a cylindrical head with a hexagonal socket (also known as an Allen socket) in the center. This design provides a sleek and low-profile appearance.

2. Thread Type: Socket screws typically feature partial threads, leaving an unthreaded shank portion between the head and the threaded section. This design allows for precise adjustment of the screw's depth within the material.

3. Common Applications: Socket screws are popular in applications where aesthetics, a low-profile design, or access to tight spaces are crucial. They are commonly used in electronics, machinery, automotive, and aerospace industries.

4. Materials: Similar to cap screws, socket screws are available in a variety of materials to accommodate different environmental and strength requirements.

Key Differences

Now that we've explored the characteristics of both cap screws and socket screws, let's summarize the key differences between the two:

1. Head Design: Cap screws have a large, flat hexagonal head, while socket screws have a cylindrical head with a hexagonal socket.

2. Installation Tool: Cap screws require a wrench for installation, whereas socket screws require an Allen wrench or hex key.

3. Thread Type: Cap screws typically have full threads, while socket screws often feature partial threads.

4. Applications: Cap screws excel in heavy-duty and structural applications, while socket screws are favored in applications requiring a low-profile design or access to tight spaces.

In conclusion, choosing between cap screws and socket screws depends on the specific requirements of your project. Cap screws offer robustness and high torque capabilities, making them ideal for heavy-duty applications. On the other hand, socket screws provide a sleek appearance and excel in applications where a low-profile design or access to tight spaces is necessary. Understanding these differences will help you select the right fastener for your next project, ensuring a secure and reliable connection.

For more help in determining whether cap screws or socket screws would be best for your application, contact Mudge Fasteners at (800) 634-0406.

Once in a while, we get asked what the strongest fasteners in the world are. While the strength of fasteners can vary significantly depending on their material, design, and application, there isn't a single fastener that can be universally considered the "strongest" in all situations. However, here are some of the strongest fasteners commonly used in various applications:

Grade 8 Hex Bolt

1. Bolts and Nuts: High-strength bolts and nuts made from materials like alloy steel or stainless steel can provide exceptional strength. Bolts with thread locking mechanisms or special coatings can also increase their strength and resistance to loosening.

2. Anchor Bolts: These are designed for heavy-duty applications like securing structures to concrete foundations. They come in various designs and materials, including wedge anchors and epoxy anchors.

3. Screws: Screws designed for high-strength applications, such as structural screws or lag screws, can provide excellent holding power. They are often used in woodworking and construction.

4. Rivets: Rivets, especially structural or aerospace-grade rivets, are known for their strength and reliability in joining materials. They are commonly used in aircraft and other critical applications.

5. Welding: While not technically a fastener, welding is a process that can create incredibly strong bonds between materials. Welded joints are often used in heavy machinery, construction, and various industrial applications.

6. Adhesive Fasteners: High-strength adhesives, like epoxy or polyurethane, can bond materials together with great strength. These are often used in applications where traditional mechanical fasteners may not be suitable.

7. Bolted Connections with Tension Control: Tension control bolts are designed to ensure that the proper tension is applied to the bolt during installation. This helps maintain the strength of the connection.

8. Threaded Rods: Threaded rods, especially those made from high-strength materials, can be used in various applications where significant strength is required.

9. Expanding Fasteners: These fasteners, like expansion anchors, are designed to expand when tightened, creating a secure hold in materials like concrete or masonry.

The grade of a fastener will also contribute to its strength. Here are some common examples of fastener grade designations:

• Grade 2 (or Grade 5 for SAE fasteners): These are low- to medium-strength fasteners made from carbon steel. They are suitable for non-critical applications.

• Grade 8: A high-strength fastener made from alloy steel, typically used in demanding applications where strength and reliability are crucial.

• Grade 10.9: A metric high-strength fastener, denoting its tensile strength in MPa. It is often used in structural and automotive applications.

• Stainless Steel Grades: Stainless steel fasteners come in various grades (e.g., 304, 316) and offer excellent corrosion resistance, making them ideal for outdoor and marine applications.

• Brass or Aluminum: These non-ferrous metals are often used for their corrosion resistance and aesthetic qualities in applications where high strength is not the primary concern.

It's important to note that the strength of a fastener also depends on factors such as the material it's used with, the torque or load it's subjected to, and the proper installation technique. Engineering standards and guidelines should always be followed to ensure the safe and effective use of fasteners in specific applications. Consulting with a structural engineer or other relevant professionals is recommended when dealing with critical or high-stress fastening applications.

For more information about the strongest fasteners for your application, contact Mudge Fasteners at (800) 634-0406.

Roost Systems Support Block

When it comes to selecting the right support block for your needs, it's crucial to consider factors like durability, versatility, and overall performance. Two popular options in the market are the Roost Systems Support Block and the Eaton Dura-Block. In this article, we'll explore why the Roost Systems Support Block is a better choice when compared to the Eaton Dura-Block.

Innovative Design

The Roost Systems Support Block boasts an innovative and ergonomic design that sets it apart from the competition. Its unique shape and adjustable features make it easy to adapt to various applications and environments. The Roost Systems Support Block is engineered with practicality in mind, allowing users to customize it according to their specific needs.

On the other hand, the Eaton Dura-Block, while a reliable option, lacks the same level of adaptability and user-friendly design. Its rigid structure can be limiting in certain situations, making it less versatile compared to the Roost Systems Support Block.

Durability

Durability is a primary concern when choosing a support block. The Roost Systems Support Block is built to withstand tough conditions and is made from high-quality materials that resist wear and tear. Its robust construction ensures that it can handle heavy loads and maintain its structural integrity over time.

In contrast, the Eaton Dura-Block, although durable, may not provide the same level of longevity as the Roost Systems Support Block. Its design may be susceptible to cracking or breaking under excessive pressure or prolonged use.

Weight and Portability

Portability is often a crucial factor, especially for those who need to transport support blocks to various job sites. The Roost Systems Support Block's lightweight design makes it easy to carry and move around as needed. Its compact form factor ensures that it doesn't add unnecessary bulk to your equipment.

The Eaton Dura-Block, however, is heavier and less convenient to transport. Its weight can make it cumbersome to handle, particularly when you need to move it frequently.

Customization Options

The Roost Systems Support Block offers a range of customization options to cater to different industries and applications. It comes in various sizes and configurations, allowing users to select the one that best suits their needs. This adaptability is a significant advantage, as it ensures that the support block can be tailored to specific projects.

The Eaton Dura-Block, while functional, may lack the same level of customization options. Its one-size-fits-all approach can be limiting in situations where a more tailored solution is required.

Competitive Pricing

When it comes to cost-effectiveness, the Roost Systems Support Block stands out as a competitively priced option. Its affordability, coupled with its durability and versatility, makes it a cost-effective choice for businesses and professionals alike.

While the Eaton Dura-Block offers reliability, it may come with a higher price tag that doesn't necessarily reflect the same level of adaptability and value provided by the Roost Systems Support Block.

In the battle of the support blocks, the Roost Systems Support Block emerges as the superior choice when compared to the Eaton Dura-Block. Its innovative design, durability, portability, customization options, and competitive pricing make it a standout option for those seeking a support block that truly meets their needs.

Whether you're a construction professional, an engineer, or someone in need of a versatile and reliable support block, the Roost Systems Support Block offers the features and benefits that set it apart as the preferred choice in the market. Make the smart choice and invest in a support block that will enhance your work and deliver long-term value—the Roost Systems Support Block.

For more information about the Roost Systems Support Block, shop online or contact Mudge Fasteners at (800) 634-0406.

Fasteners are essential components in various industries and applications, and there are several types of gauges used to measure and inspect them. These gauges help ensure that fasteners meet specified standards and tolerances. Here are some common types of gauges used in fastener inspection:

Thread Plug Gauges

Thread Ring Gauges

Plain Plug and Ring Gauge

Snap Gauge

Depth Gauge

Micrometer

Calipers

Go/No-Go Plug Gauge

Torque Wrench

Ultrasonic Gauge

Thread Plug Gauges
Thread plug gauges are used to check the external threads on screws, bolts, and studs. They have a threaded end that is screwed into the fastener to check if the threads are within acceptable tolerances. There are two main types: GO (to check the minimum material condition) and NO-GO (to check the maximum material condition). If a fastener fits the GO gauge but not the NO-GO gauge, it is considered acceptable.

Thread Ring Gauges
Thread ring gauges are used to inspect the internal threads of nuts or threaded holes. They are similar to thread plug gauges but are designed for internal threads. They also come in GO and NO-GO types to verify the quality of the threads.

Plain Plug and Ring Gauges
These gauges are used to check the diameter and tolerances of fastener shanks or unthreaded portions. Plain plug gauges are inserted into holes, while plain ring gauges are used to check the outside diameter of bolts or studs.

Snap Gauges
Snap gauges, also known as gap gauges or bore gauges, are used to measure the outside diameter of fasteners. They consist of two movable anvils that snap into position when they contact the part being measured. Snap gauges are often used for quick and efficient inspection.

Depth Gauges
Depth gauges are used to measure the depth of holes or the length of fasteners. They come in various forms, including dial indicators, digital calipers, and micrometers. Depth gauges are crucial for ensuring that fasteners are installed to the correct depth.

Micrometers
Micrometers are precision measuring instruments used to measure the diameter of fasteners with high accuracy. They are available in different types, such as outside micrometers and inside micrometers, and are commonly used in quality control processes.

Calipers
Calipers, both vernier and digital, are versatile tools used to measure the length, diameter, or thickness of fasteners. They are available in various sizes and provide relatively accurate measurements.

Go/No-Go Plug Gauges
These gauges are used to quickly check the presence and accuracy of specific features, such as the presence of holes or slots in fasteners. They are simple and effective for go/no-go assessments.

Torque Wrenches
While not gauges in the traditional sense, torque wrenches are important tools for fastener installation. They ensure that fasteners are tightened to the specified torque, which is critical for safety and performance.

Ultrasonic Gauges
In some specialized applications, ultrasonic gauges are used to measure the length or thickness of fasteners by sending ultrasonic waves through the material and measuring the time it takes for the waves to bounce back.

These are just some of the many types of gauges used in the fastener industry to ensure that fasteners meet the required specifications and quality standards. The choice of gauge depends on the specific requirements of the fastener and the application.

For more information about the different gauges used for fasteners, contact Mudge Fasteners at (800) 634-0406.

DURA-CON Grade 5 Coated Fasteners

Fasteners are an integral part of countless industries, from automotive and construction to aerospace and manufacturing. The choice of fasteners can significantly impact the performance and durability of a product or structure. Among the various types of fasteners available, Grade 5 coated fasteners have gained prominence due to their exceptional qualities and versatility. In this article, we’ll look deeper into the world of Grade 5 coated fasteners, exploring what makes them unique and the benefits they offer.

Understanding Grade 5 Fasteners

Grade 5 fasteners, also known as Grade 5 bolts, are a type of high-strength fastener made from carbon steel alloy. These fasteners are heat-treated to increase their tensile strength, making them significantly stronger than standard carbon steel bolts. However, what truly sets Grade 5 fasteners apart is their unique coating.

Coating Options for Grade 5 Fasteners

Grade 5 fasteners are often coated with various materials to enhance their performance and longevity. Some common coatings include:

• Zinc Plating: Zinc plating provides corrosion resistance to Grade 5 fasteners, making them suitable for outdoor and marine applications. The zinc coating acts as a sacrificial layer, protecting the underlying steel from rust and corrosion.

• Phosphate and Oil Coating: This coating enhances the lubricity of Grade 5 fasteners, reducing friction during installation. It also offers some corrosion resistance benefits, although not as robust as zinc plating.

• Dacromet Coating: Dacromet is a highly corrosion-resistant coating that provides excellent protection against harsh environmental conditions, including saltwater exposure. It is commonly used in automotive and marine industries.

• Magni or DURA-CON Coating: These coatings employ a three layer coating system that consists of an inorganic zinc-rich first coat and an aluminum-rich organic second coat. Friction modifiers are integrated into the topcoat, resulting in repeatable torque tension characteristics during assembly.

Benefits of Grade 5 Coated Fasteners

• High Strength: Grade 5 fasteners are known for their exceptional tensile strength, making them suitable for applications that require robust and reliable connections.

• Corrosion Resistance: The coating options available for Grade 5 fasteners provide varying degrees of corrosion resistance, ensuring that these fasteners remain durable even in harsh environments.

• Reduced Friction: Coated Grade 5 fasteners experience reduced friction during installation, making them easier to work with and decreasing the risk of damage during assembly.

• Versatility: Grade 5 fasteners can be used in a wide range of industries and applications, from construction and automotive to aerospace and marine.

• Longevity: The combination of high strength and corrosion resistance ensures that Grade 5 coated fasteners have a long service life, reducing maintenance costs and downtime.

Applications of Grade 5 Coated Fasteners

Grade 5 coated fasteners find use in various industries and applications:

• Automotive: They are commonly used in critical automotive components like engines, transmissions, and suspension systems.

• Construction: Grade 5 fasteners are ideal for construction projects where strength and durability are essential.

• Aerospace: In the aerospace industry, Grade 5 coated fasteners are employed in aircraft assembly, where safety and reliability are paramount.

• Marine: The corrosion resistance of these fasteners makes them indispensable in marine environments where exposure to saltwater is a constant challenge.

Grade 5 coated fasteners are a testament to the importance of choosing the right fastening solutions for specific applications. Their combination of high strength and various coating options offers a wide range of benefits, making them a top choice for industries where reliability, durability, and corrosion resistance are vital. Whether you're building a skyscraper, designing an aircraft, or working on your car, Grade 5 coated fasteners might just be the dependable solution you need for your next project.

For more information about Grade 5 coated fasteners, contact Mudge Fasteners at (800) 634-0406.

Galvanized Hex Bolt

Magni Hex Bolt

Galvanized fasteners and fasteners coated with Magni or DURA-CON coating are both used to provide corrosion resistance to metal fasteners. However, there are some key differences between the two:

• Composition: Galvanized fasteners are coated with a layer of zinc, either through a hot-dip galvanizing process or electroplating. The zinc coating creates a physical barrier that protects the underlying metal from corrosion. On the other hand, Magni or DURA-CON coating is a specific brand of coating that typically consists of inorganic polymers or hybrid organic-inorganic polymers. The exact composition of Magni coatings may vary depending on the specific product and application.

• Corrosion Resistance: Both galvanized fasteners and Magni-coated fasteners provide corrosion resistance, but they have different levels of effectiveness in different environments. Galvanized coatings are generally suitable for moderate corrosion environments, such as dry indoor conditions or mild atmospheric exposure. Magni or DURA-CON coatings, on the other hand, are designed to offer higher levels of corrosion resistance, including resistance to harsher environments like salt spray, chemicals, and extreme temperatures.

• Performance: Magni or DURA-CON coatings often provide additional benefits beyond corrosion resistance, such as improved wear resistance, enhanced adhesion, and reduced friction. These properties can be advantageous in applications where fasteners are subjected to high stress, vibration, or require low torque for assembly. Galvanized fasteners, while primarily used for corrosion protection, do not offer the same level of performance enhancements as Magni coatings.

• Appearance: Galvanized fasteners have a characteristic bright, metallic appearance due to the zinc coating. Over time, the zinc coating may develop a dull gray patina as it weathers. Magni or DURA-CON coatings, on the other hand, can be formulated to provide a range of different colors and finishes, allowing for greater aesthetic flexibility.

• Application: Galvanized fasteners are commonly used in a wide range of general-purpose applications, including construction, automotive, and outdoor structures. Magni-coated fasteners, with their enhanced corrosion resistance and performance properties, are often preferred for more demanding applications, such as automotive components, marine equipment, and industrial machinery.

It's important to note that Magni coating is a specific brand name, and there are other coatings like DURA-CON may offer similar or different properties. When choosing between galvanized fasteners and Magni-coated fasteners, it's essential to consider the specific requirements of your application. Determining whether galvanized fasteners or Magni-coated fasteners are better depends on several factors, including the specific application, environmental conditions, and performance requirements. Here are a few considerations:

• Corrosion Resistance: Magni or DURA-CON coatings generally provide higher levels of corrosion resistance compared to galvanized coatings. If your application involves exposure to harsh environments, such as saltwater, chemicals, or extreme temperatures, Magni coatings may offer superior protection against corrosion.

• Performance Requirements: Magni or DURA-CON coatings often offer additional performance benefits beyond corrosion resistance. These may include improved wear resistance, enhanced adhesion, and reduced friction. If your application involves high stress, vibration, or requires low torque for assembly, Magni-coated fasteners may be more suitable.

• Cost: Galvanized fasteners are generally more cost-effective compared to Magni-coated fasteners. If your project has budget constraints and does not require the advanced corrosion resistance and performance features offered by Magni coatings, galvanized fasteners may be a more economical choice.

• Aesthetic Considerations: Galvanized fasteners have a distinct metallic appearance, which may be desirable in some applications. However, if you require specific colors or finishes, Magni coatings can offer greater flexibility in terms of aesthetics.

• Application-Specific Factors: Consider the specific requirements and conditions of your application. Factors such as exposure to moisture, chemicals, UV radiation, temperature fluctuations, and mechanical stress should all be taken into account when selecting the appropriate fastener coating.

Ultimately, the "better" option between galvanized fasteners and Magni-coated fasteners depends on your specific needs. If you require high corrosion resistance and additional performance properties, Magni or DURA-CON coatings may be the preferred choice, albeit at a higher cost. However, if your application is in a less demanding environment and cost is a significant factor, galvanized fasteners can still provide adequate corrosion protection. It's recommended to consult with fastener suppliers or experts who can provide tailored advice based on your specific requirements.

For more information on Magni or DURA-CON coated fasteners, contact Mudge Fasteners at (800) 634-0406.

When we think of traffic control products, our minds often jump to traffic lights, road signs, and barriers. While these items play crucial roles in maintaining order on our roadways, there's another hidden force that quietly keeps everything together – fasteners. Fasteners may not grab the headlines, but they are the essential components that hold traffic control products in place, ensuring our roads stay safe and organized. In this article, we'll explore the vital role of fasteners in traffic control products and why they deserve our attention.

Keeping Signs in Place

One of the most common applications of fasteners in traffic control products is securing road signs. Road signs serve as important visual cues for drivers, guiding them safely along their routes. From stop signs to speed limit signs and directional signs, these are all kept in position by a range of fasteners, such as bolts, nuts, and anchors.

For example, signposts are anchored into the ground using concrete anchors or ground screws. These fasteners ensure that signs remain upright and stable, even in adverse weather conditions. Without them, signs could easily topple over, leading to confusion and potentially dangerous situations for drivers.

Bolting Down Barriers

Traffic barriers and guardrails are another critical aspect of road safety. Fasteners are used extensively in these structures to ensure their stability and effectiveness. Bolts, anchors, and brackets are used to connect barrier sections securely, ensuring they can withstand the force of a collision and protect motorists.

In high-impact areas, the choice of fasteners becomes even more critical. Engineers and designers must select fasteners that can handle extreme forces without breaking or loosening. This careful consideration of fastener strength helps save lives by preventing barriers from giving way during accidents.

Securing Traffic Lights

Traffic lights are pivotal in controlling the flow of traffic at intersections. They ensure that vehicles and pedestrians can navigate safely through complex junctions. Fasteners come into play when installing and maintaining traffic lights. These components are responsible for securely affixing traffic light heads to their poles or brackets.

The reliability of fasteners in this context is paramount. A loose traffic light can lead to confusion and accidents, so engineers choose fasteners designed to withstand vibrations, wind, and other environmental factors.

Reflectors and Markers

Road reflectors and markers are essential for enhancing nighttime visibility on our roads. They guide drivers, especially in areas with poor lighting conditions. These devices are often mounted using specialized fasteners that allow for quick and secure installation.

The right fasteners ensure that reflectors and markers remain in place, maintaining the integrity of road markings and helping drivers stay on course during the darkest hours.

Fasteners may not be the most glamorous components in the world of traffic control products, but they are undoubtedly among the most important. These small but mighty pieces of hardware ensure the stability and reliability of road signs, barriers, traffic lights, reflectors, and markers. Without them, our roadways would be far more chaotic and dangerous.

Engineers and designers in the traffic control industry understand the critical role fasteners play in keeping our roads safe. They carefully select and test these components to ensure they can withstand the rigors of everyday use and unforeseen emergencies. As road safety continues to be a top priority, we must appreciate the hidden force that make it all possible – the fasteners that quietly hold our traffic control products in place.

For more information about fasteners for traffic control products, contact Mudge Fasteners at (800) 634-0406.

When it comes to the construction of cold storage facilities, the first things that may come to mind are refrigeration systems, insulation, and sturdy walls. While these elements are undoubtedly crucial, there's one unsung hero that plays a pivotal role in ensuring the integrity and efficiency of cold storage units – fasteners. These seemingly small components are the glue that holds everything together, literally and figuratively. In this article, we'll delve into the critical role that fasteners play in the construction of cold storage facilities and why they are essential for maintaining the chilly temperatures within.

Cold storage facilities are purpose-built structures designed to maintain specific low temperatures for the storage of perishable goods, such as food products, pharmaceuticals, and chemicals. Constructing these facilities involves a range of considerations, including thermal insulation, moisture control, and air sealing, all of which help maintain the desired low temperatures.

Fasteners, including screws, bolts, nuts, and rivets, may not be the first thing you associate with cold storage, but they are indispensable for several reasons:

• Structural Integrity: Cold storage facilities are subjected to a range of environmental factors, including temperature fluctuations, moisture, and even seismic activity. Fasteners play a crucial role in providing structural integrity to the building, ensuring that it can withstand these challenges without compromising its functionality.

• Thermal Insulation: Proper insulation is paramount in cold storage construction. Fasteners help secure insulation materials like foam boards, panels, or spray foam in place. Without secure fastening, insulation could shift, leaving gaps that allow warm air infiltration or cold air leakage.

• Moisture Control: Moisture control is essential to prevent condensation within the facility, as excess moisture can lead to the growth of mold and bacteria. Fasteners help maintain the airtight seal required to prevent moisture infiltration.

• Air Tightness: Fasteners contribute to creating an airtight envelope around the cold storage facility. This is essential to prevent warm air from entering and cold air from escaping, thus reducing energy consumption and maintaining the desired temperature.

• Door Seals: The doors of cold storage units must have tight seals to prevent temperature fluctuations when they open and close. Fasteners play a critical role in attaching and maintaining these seals.

Selecting the appropriate fasteners for cold storage construction is crucial. The following factors should be considered:

• Corrosion Resistance: Cold storage environments are often humid, which can lead to corrosion of fasteners. Stainless steel or other corrosion-resistant materials, such as DURA-CON coating, are preferred in such applications.

• Insulation Compatibility: Ensure that the fasteners are compatible with the chosen insulation materials to prevent chemical reactions that could compromise insulation performance.

• Load-Bearing Capacity: The fasteners used must be able to withstand the weight of insulation, wall panels, and other components.

• Ease of Installation: Fasteners that are easy to install can save time and labor costs during construction.

In the world of cold storage construction, fasteners may not steal the spotlight, but their role is unquestionably vital. From structural support to thermal insulation and moisture control, these unsung heroes ensure that cold storage facilities function efficiently and reliably. As the demand for cold storage facilities continues to rise, it's clear that the importance of fasteners in maintaining the integrity of these temperature-controlled environments cannot be overstated. So, the next time you enter a cold storage facility, remember that fasteners are working tirelessly behind the scenes to keep things chilled.

For more information about fasteners for cold storage construction, contact Mudge Fasteners at (800) 634-0406.

Skateboarding is a dynamic sport, with new tricks being performed seemingly daily, skateboarders taking harder tricks to larger obstacles, and preferences for board shapes, truck tightness, wheel sizes, and clothing choices going in and out of popularity on a regular basis. Skateboard hardware has also evolved over time, coming a long way since the days when a skateboard was just a set of roller skate chassis nailed to a two by four.

Vintage skateboard hardware

The fasteners used in skateboards have evolved over the past 50 years in several ways. Here are some of the notable changes:

1. Length: The length of the screws used to attach the trucks to the deck has gotten shorter over time. In the early days of skateboarding, screws as long as 2 inches were commonly used, but now mounting hardware that is 7/8” or 1” long is much more common. The removal of riser pads from the boards of most street skaters was the biggest reason for this change.

2. Head type: The head of the screws used to attach the trucks to the deck has also changed. While Phillips head screws are still commonly used, hex head screws (also known as allen head hardware) have become increasingly popular as they provide more torque and are less likely to strip. Shorty’s was the first to use a smaller, #8 head and half-body threading, but now several brands offer that style.

3. Material: The materials used for skateboard fasteners have also evolved. In the early days of skateboarding, screws and nuts were often made of soft metals that were prone to stripping. Now, fasteners are commonly made of harder materials such as alloy steel or sometimes even titanium.

4. Colored hardware: Another trend in recent decades has been the use of colored hardware, where the screws and nuts are painted in different colors to add a pop of color to the skateboard. Shorty’s was also a pioneer in this aspect, followed by Upful, Shake Junt, and a host of newer companies.

So, while the hardware skateboarders use has evolved over time, many of the suppliers are still the same. Mudge Fasteners began a dedicated skateboard hardware division in the 80s, and still offers the highest quality bulk, private label, and custom colored skateboard hardware on the market.

If you’re interested in getting skate hardware for your shop, distribution or brand, contact Mudge Fasteners at (800) 634-0406.

As the Solar Fastener Experts, we’re always on the lookout for new solar technologies. Since we’re also the Glazing Fastener Experts, we’ve been veery excited about the latest solar power innovation we’ve noticed: solar glazing. Solar glazing refers to the use of specialized glass or glazing systems designed to harness solar energy for various purposes. It involves the integration of solar energy collection and utilization features into the windows or glazed surfaces of a building or structure.

Solar glazing typically consists of transparent or translucent materials that allow sunlight to pass through while also incorporating technologies to capture and utilize the solar energy. These technologies can include photovoltaic (PV) cells, solar thermal collectors, or other solar energy conversion systems.

The main purpose of solar glazing is to harness solar energy and convert it into usable forms such as electricity or heat. Photovoltaic solar glazing utilizes solar cells embedded in the glazing system to directly convert sunlight into electricity. These solar cells are usually made of semiconductor materials like silicon.

Solar glazing offers several benefits. It allows buildings to generate their own renewable energy on-site, reducing dependence on traditional energy sources and lowering greenhouse gas emissions. It can also contribute to energy efficiency by reducing the need for artificial lighting or heating. Additionally, solar glazing can enhance the architectural design of buildings by incorporating sustainable and aesthetically pleasing features.

So what fasteners will be used in solar glazing? Since the difference in the overall glazing system is primarily in the glass itself, most of the same fasteners used for traditional glazing systems will still apply. Some favorites will be Flex technology fasteners from Elco, anchors and tools from DeWALT, and specialty parts from ITW Buildex, MKT Fastening and Simpson Strong-Tie. Stainless steel commodity fasteners, like hex bolts, self drilling screws, flat washers, and different types of nuts, are sure to be used in solar glazing installations as well.

If you’re interested in learning more about fasteners for solar panel installation, window glazing systems, or solar glazing installations, contact us at (800) 634-0406.