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MANUFACTURING PROCESSES Electrical Discharge Machining (EDM) Electrical Discharge Machining (EDM) is a highly precise manufacturing process used to create complex shapes and fine details in engineered fasteners and components. The EDM Process: 1. Setup: A workpiece (conductive material) is submerged in a dielectric fluid (e.g., deionized water or oil). A tool electrode (usually made of graphite, copper, or brass) is positioned close to the workpiece without touching it. 2. Electric Discharge: A controlled electrical current is applied between the electrode and the workpiece. This creates a spark that erodes a tiny portion of the workpiece material. 3. Material Removal: Thousands of sparks occur per second, removing material layer by layer. The dielectric fluid flushes away debris and cools the work area. 4. Precision Control: CNC (Computer Numerical Control) systems are often used to guide the electrode, enabling precise and repeatable machining. Types of EDM: Sinker EDM: Uses a shaped electrode to “sink” into the material, ideal for creating cavities and complex 3D shapes. Wire EDM: Uses a thin wire as the electrode to cut intricate profiles, commonly used for parts requiring fine tolerances and sharp corners. Limitations Slow Material Removal Rate: Not ideal for high-volume production. Cost: More expensive compared to traditional machining for large, simple parts. Conductive Materials Only: Limited to materials that conduct electricity. Advantages of EDM: Complex Geometries: Can create intricate shapes, fine features, and internal cavities that are difficult or impossible to achieve with traditional machining. High Precision: Allows for extremely tight tolerances, often down to microns. Material Versatility: Can work with hard-to-machine materials like titanium, Inconel, and hardened steels. No Mechanical Stress: Since it’s a non-contact process, there’s no physical force exerted on the workpiece. Applications in Engineered Fasteners: EDM is especially useful for fasteners and components that require: Intricate Details: Ideal for manufacturing custom, non-standard fasteners with unique shapes. Tight Tolerances: Critical in aerospace, robotics, and defense industries where precision is paramount. Hard Materials: Suitable for fasteners made from high-strength alloys that are challenging to machine conventionally. Prototyping: Useful for creating prototypes and low-volume production runs of specialty fasteners. Cold Heading Hot Heading EDM Milling Turning Swiss Machining Drilling Roll Threading Cut Threading Broaching Heat Treatment Austenitizing Tempering Normalizing Stress Relieving Grinding Polishing Dot Peen Marking Laser Marking MANUFACTURING Explore our manufacturing capabilities OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT

MANUFACTURING PROCESSES Dot Peen Marking Dot Peen Marking is a precise, high-speed method used to permanently mark metal components, making it highly suitable for engineered fasteners and critical components. Unlike traditional die stamping, Dot Peen marking creates indented or raised patterns by a controlled pin that strikes the surface, allowing for flexible, durable, and high-contrast markings directly on the part. The Dot Peen Marking Process: Dot Peen Marking uses a computer-controlled stylus to indent the metal surface with a series of dots, forming characters, logos, or traceability codes. Key steps include: 1. Material Preparation: Components such as bolts, screws, washers, or brackets (commonly steel, stainless steel, aluminum, or brass) are cleaned and positioned for marking. 2. Tooling Setup: The Dot Peen marking system is programmed with the desired text, symbols, or codes. The marking stylus is aligned to the exact location on the component. 3. Marking Operations: The stylus creates a series of dots on the metal surface, forming permanent marks. Marking types include: Part Numbers & Serial Codes: Ensures traceability and inventory tracking. Logos & Branding: Adds company or product identifiers directly on the fastener. Specifications: Marks material grade, size, or compliance information. 4. Final Processing: After marking, components may undergo secondary processes such as deburring, coating, or inspection to meet quality standards. Enhancements in Dot Peen Technology: CNC Integration: Automated positioning allows precise placement on small or irregular components. High-Speed Marking: Modern systems achieve faster cycle times for large production runs. Flexible Materials: Can mark a wide range of metals, including hardened or coated surfaces. Automation: Robotic handling systems improve consistency, reduce labor, and integrate with production lines. Advantages of Dot Peen Marking: Permanent Identification: Marks are durable and resistant to wear, corrosion, and heat. Precision & Clarity: High-resolution marking ensures legible, repeatable results. Versatility: Can mark flat, curved, or irregular surfaces without additional tooling. Cost Efficiency: Eliminates the need for custom dies for each mark, reducing setup costs. Traceability & Compliance: Supports industry standards for part identification and quality control. Applications in Engineered Fasteners: Dot Peen Marking is widely used for marking critical components where traceability, compliance, and branding are essential. Applications include: Flat Fasteners: Washers, clips, and retaining rings marked with part numbers or logos. Threaded Fasteners: Bolts, screws, and studs marked before or after threading for identification. Custom Components: Brackets, flanges, or assemblies requiring specification or serial numbers. Traceability Marks: Batch numbers, heat codes, or certification information for quality assurance. Structural Components: Reinforcements and subassemblies marked for installation or inspection purposes. Limitations Surface Depth Restrictions: Extremely thin or soft materials may not retain deep marks. Speed vs. Complexity: Highly detailed marks may require slower marking speeds. Cold Heading Hot Heading EDM Milling Turning Swiss Machining Drilling Roll Threading Cut Threading Broaching Heat Treatment Austenitizing Tempering Normalizing Stress Relieving Grinding Polishing Dot Peen Marking Laser Marking MANUFACTURING Explore our manufacturing capabilities OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT

Esvin Gomez Quality Manager BIO As the Quality Manager at TSP Manufacturing, Esvin Gomez plays a critical role in ensuring that all products meet the highest standards of precision, reliability, and performance. With a strong background in quality management systems, Esvin leads efforts to maintain strict compliance with industry regulations and customer requirements. His expertise in process improvement and quality control helps TSP Manufacturing deliver superior engineered fasteners. Esvin's commitment to continuous improvement and his leadership in quality assurance contribute to the company’s reputation for excellence. BACK

TSP Mfg. is a Supply Chain Integrator, specializing in Specialty Engineered Fasteners and Precision Machined Components for Critical Industry. Supplying Engineered Fasteners for Over 87 Years We are a Supply Chain Integrator, specializing in Engineered Fasteners and Precision Machining for Critical Industry. VIEW PRODUCTS Search OUR QUALITY API 20E Certification API 20E-0005 API 20F Certification API 20F-0005 Q1 9th Edition Registered Q1 - 2200 ISO 9001:2015 Registered ISO 9001 - 2298 ISO 17025:2017 Accredited 0929.01 ABOUT About TSP Manufacturing TSP Manufacturing is a premier producer of specialty engineered fasteners, precision machine parts, shear product and a comprehensive supply chain integrator to OEM’s in a range of critical industries. We manufacture and distribute products of the highest quality with world-class customer service to ensure a lower total cost of procurement. LEARN MORE OUR PRODUCTS Explore our products LEARN MORE Specialty Engineered Fasteners Machined Components Precision Shear Products Valve Stems OUR SERVICES Explore our services LEARN MORE Technical / Support Services Supply Chain Solutions SUPPLY CHAIN SERVICES Intelligent Inventory Management Our Intelligent Inventory Management program seamlessly automates fastener supply chain, leveraging commercial RFID technology with a user-friendly web interface to exchange real-time data between the supplier & the customer on inventory status LEARN MORE INDUSTRIES WE SERVE Oil & Gas Turbomachinery Marine and Offshore Nuclear Aerospace Robotics and Automation Defense Space Get a quote for your upcoming project CONTACT

MANUFACTURING PROCESSES Cut Threading Cut threading is a traditional method used to create threads on engineered fasteners and components. It involves physically removing material from a blank to form the thread’s shape. This process is highly precise and is particularly suitable for custom or low-volume production of threaded components. The Cut Threading Process: 1. Preparation: A cylindrical blank or fastener body is prepared, typically made of materials like steel, stainless steel, titanium, or other alloys. The blank is secured in a lathe, threading machine, or CNC machine. 2. Thread Cutting Tool: A specialized cutting tool or die is used to remove material from the blank, creating the helical grooves that form the threads. The tool’s shape corresponds to the desired thread profile (e.g., triangular for standard threads, square for certain industrial applications). 3. Threading Operation: Single-Point Cutting: For larger threads or precision applications, a single-point tool is used to cut the thread profile in successive passes. Thread Chasing: Involves using a multi-tooth cutter to cut threads more quickly. Thread Rolling Dies: For larger-scale cut threads, dies may be used to guide and cut the threads accurately. Cutting lubricant is often applied to reduce friction, prevent overheating, and improve surface finish. 4. Inspection and Finishing: The cut threads are inspected for dimensional accuracy using gauges or thread measuring tools. Additional finishing steps like deburring or heat treatment may follow to improve durability and performance. Why Use Cut Threading for Fasteners? Tailored Solutions: Enables the creation of threads for non-standard fasteners or components with unique designs. Material Flexibility: Effective for hard-to-machine metals or materials unsuitable for rolling. Critical Applications: Provides the precision and control required for high-performance or safety-critical threaded components. Advantages of Cut Threading: High Precision: Allows for extremely accurate threads with tight tolerances, which are critical for high-performance fasteners. Customizability: Can produce non-standard or special threads for unique applications. Versatility: Suitable for a wide range of materials, including alloys and harder metals. Surface Quality: Produces threads with a smooth finish and sharp definition. Applications in Engineered Fasteners: Cut threading is typically used for the following: Custom or Prototype Fasteners: Threads can be tailored to unique specifications or non-standard sizes. Hard Materials: Effective for threading materials like titanium, hardened steel, or nickel alloys that are challenging to form using other methods. Low-Volume Production: Suitable for small batches where thread rolling or other methods may not be cost-effective. Precision Applications: Used where high accuracy and tight tolerances are required, such as in aerospace or nuclear components. Limitations Material Waste: Material is removed during the process, resulting in waste. Slower Production: Compared to thread rolling, cut threading is slower and less efficient for high-volume production. Weaker Threads: Threads created by cutting can have lower fatigue resistance compared to rolled threads due to the interruption of the material grain structure. Tool Wear: Cutting tools can wear out quickly, especially when threading harder materials. Cold Heading Hot Heading EDM Milling Turning Swiss Machining Drilling Roll Threading Cut Threading Broaching Heat Treatment Austenitizing Tempering Normalizing Stress Relieving Grinding Polishing Dot Peen Marking Laser Marking MANUFACTURING Explore our manufacturing capabilities OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT

Jesus Martinez Quality Control Supervisor BIO As Quality Control Supervisor at TSP Manufacturing, Jesus Martinez is responsible for overseeing the inspection and testing processes that ensure every product meets the company’s rigorous quality standards. With a keen eye for detail and a solid background in quality control practices, Jesus leads a dedicated team to guarantee the reliability and precision of engineered fasteners used in critical industries. His commitment to maintaining high standards and his focus on continuous improvement contribute to TSP Manufacturing’s reputation for delivering top-quality components. BACK

SERVICING THE CUSTOMER Turbomachinery Home / Industries / Turbomachinery / Industry Overview Engineered fasteners and components are essential to the turbomachinery industry, where performance, reliability, and precision are critical to ensuring the safe and efficient operation of turbines, compressors, and related equipment. KEY FEATURES High Temperature Resistance: Fasteners must withstand the extreme heat generated by turbines and compressors. Fatigue and Stress Resistance: These components endure constant vibration and high rotational speeds, requiring exceptional fatigue strength. Corrosion Resistance: Fasteners must resist oxidation, corrosion, and chemical exposure, especially in humid or chemically aggressive environments. Precision Engineering: Tight tolerances are crucial to maintaining the balance and integrity of turbomachinery. WHEN ONLY THE BEST WILL DO Common Applications: Gas Turbines: Used in power generation and aviation, requiring fasteners that can withstand high thermal and mechanical stresses. Steam Turbines: Found in power plants, needing fasteners designed for high-pressure, high-temperature steam environments. Centrifugal Compressors: Components must handle high rotational speeds and pressures, ensuring secure connections and minimal wear. Axial Compressors: Found in jet engines and industrial applications, requiring lightweight yet durable fasteners. Bearings and Rotors: Critical fastening elements for maintaining alignment and reducing wear in moving parts. Materials: Fasteners used in turbomachinery are selected for their ability to handle extreme conditions, including: Nickel Alloys: Excellent for high-temperature environments. Stainless Steel (High-Grade): Provides corrosion resistance and strength. Titanium: Lightweight and strong, ideal for reducing component weight in aerospace turbines. Alloy Steels: Used for their high strength and fatigue resistance. PH Grades (Precipitation Hardening): Provide a balance of high strength and corrosion resistance. Industry Standards: Engineered fasteners for turbomachinery must meet stringent industry standards, including: ASME standards for pressure and mechanical components. ISO Standards for quality, material properties, and performance. OEM Specifications for custom machinery requirements. The TSP Manufacturing Advantage TSP Manufacturing specializes in custom-engineered fasteners tailored for critical applications in the turbomachinery industry. Our fasteners are designed to withstand extreme operational demands, reducing downtime and maintenance costs, while meeting or exceeding stringent industry and application-specific requirements and providing long service life in harsh operating environments. OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications. Valve Stems Learn more about our Engineered Valve Stems, designed for demanding applications requiring exceptional strength, durability, and precision. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT Get a quote for your upcoming project CONTACT

SERVICING THE CUSTOMER Aerospace Home / Industries / Aerospace / Industry Overview Engineered fasteners and components are integral to the aerospace industry, where precision, reliability, and performance are essential to ensure the safety and efficiency of aircraft, spacecraft, and related systems. These components are required to withstand extreme conditions while adhering to the strictest industry standards. KEY FEATURES High Strength-to-Weight Ratio: Lightweight materials are used to minimize weight while maintaining structural integrity. Corrosion and Temperature Resistance: Fasteners must perform reliably in high-temperature and corrosive environments, such as jet engines or space applications. Fatigue and Vibration Resistance: Components are designed to endure repeated stress and vibration over extended service life. Precision Engineering: Tight tolerances and exacting specifications are critical to ensure secure connections and proper alignment. WHEN ONLY THE BEST WILL DO Common Applications: Aircraft Structure: Fasteners are used in fuselage panels, wings, tail assemblies, and landing gear. Engines: High-performance fasteners secure components in jet and rocket engines, where they are exposed to extreme heat and mechanical stress. Avionics and Instrumentation: Small, precise fasteners are essential for securing delicate electronic components and systems. Spacecraft: Fasteners are designed to handle the vacuum of space, radiation, and extreme temperature fluctuations. Interiors: Used in seating, cabin panels, and other interior components for commercial and military aircraft. Materials: The aerospace industry relies on advanced materials for fasteners to achieve strength, durability, and reduced weight, including: Titanium Alloys: Lightweight and highly resistant to corrosion and high temperatures. Superalloys (e.g., Inconel): Designed for extreme heat and stress, often used in engines. Aluminum Alloys: Lightweight and corrosion-resistant, suitable for less demanding applications. Stainless Steels: Provide strength and corrosion resistance in structural and engine components. Composite-Compatible Fasteners: Designed for use with modern composite materials. Industry Standards: Aerospace fasteners must comply with rigorous standards to ensure safety and reliability, including: NAS (National Aerospace Standards) and AN (Air Force-Navy) Standards for fasteners. AMS (Aerospace Material Specifications) for material properties and processing. MIL-SPEC standards for military applications. The TSP Manufacturing Advantage TSP Manufacturing specializes in custom-engineered fasteners for the critical requirements of aerospace applications. Our fasteners deliver exceptional strength, precision, and reliability while meeting stringent weight and performance demands. Manufactured to exacting industry standards, they ensure safety and efficiency in the most challenging environments, from high-altitude flight to deep-space exploration. OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications. Valve Stems Learn more about our Engineered Valve Stems, designed for demanding applications requiring exceptional strength, durability, and precision. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT Get a quote for your upcoming project CONTACT

testing capabilities Wedge Tensile Testing A Wedge Tensile Test is a specialized variation of axial tensile testing designed specifically for threaded fasteners. By placing a hardened wedge under the head of a bolt during testing, additional bending stress is introduced. This simulates worst-case service conditions where the fastener may be misaligned or subjected to uneven loading. The test measures how well the fastener maintains tensile strength and integrity under this combined stress, making it a critical evaluation for safety-critical applications. How the Test is Performed Specimen Setup – A bolt or fastener is mounted in a tensile testing machine with a hardened wedge placed under its head. Load Application – A controlled axial tensile load is applied while the wedge creates an added bending stress. Monitoring – The fastener is pulled until failure or until a specified load requirement is reached. Observation – The type of failure (thread stripping, head fracture, shank break, etc.) is carefully documented. Result Analysis – Data is compared against design and industry standards to ensure compliance. Why It is Performed The wedge tensile test is performed to confirm that fasteners can withstand tensile and bending stresses simultaneously , ensuring reliability even in less-than-ideal installation or service conditions. Verifies overall tensile strength in a simulated worst-case scenario Detects weaknesses such as improper heat treatment or material flaws Ensures fasteners won’t fail unexpectedly due to misalignment or uneven load Provides added assurance of performance in critical, real-world applications Application to Engineered Fasteners Engineered fasteners used in industries such as aerospace, nuclear, oil & gas, and defense often face complex loading conditions. The wedge tensile test ensures that: Bolt heads and shanks can resist combined stresses without premature failure Thread integrity and material toughness meet customer and industry requirements Fasteners maintain reliability in high-stakes environments where safety is paramount Manufacturing processes and heat treatments are validated through destructive verification Standards & Compliance At TSP Manufacturing, wedge tensile testing is conducted in compliance with ASTM, ISO, and customer-driven specifications . All equipment is calibrated to industry requirements, and tests are performed by trained professionals to ensure accuracy, repeatability, and traceability. By strictly adhering to these standards, we provide our customers with confidence that our engineered fasteners can withstand even the most demanding service conditions. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications.

testing capabilities Breaking Torque Testing A Breaking Torque Test measures the torque required to cause failure of a fastener, typically a bolt, screw, or nut. This test evaluates the strength and performance of threaded components under rotational stress and ensures that the fastener can meet or exceed design requirements. Breaking torque is a critical indicator of both material quality and manufacturing consistency, providing confidence that the fastener will perform reliably in service. How the Test is Performed Specimen Preparation – The fastener is cleaned and installed in a calibrated torque testing machine. Torque Application – Rotational force is applied gradually until the fastener either strips, fractures, or otherwise fails. Monitoring – The applied torque is measured continuously, and the point of failure is recorded. Result Recording – Maximum torque at failure is documented, along with observations about the mode of failure. Analysis – Results are compared to design and industry standards to ensure compliance. Why It is Performed Breaking Torque Testing is performed to confirm that fasteners can resist rotational forces encountered during installation or in-service conditions. It ensures that threads, material properties, and fastener design are sufficient to prevent stripping, galling, or catastrophic failure. Verifies threaded component strength under torque Detects material or manufacturing defects affecting performance Ensures safe assembly and proper load transfer Provides data to support engineering validation and quality assurance Application to Engineered Fasteners Engineered fasteners are frequently subjected to torque during assembly, maintenance, and service. Accurate breaking torque data ensures: Proper installation without over-torquing that could damage components Material and thread integrity under applied loads Reliable performance in critical applications such as aerospace, oil & gas, nuclear, and defense Prevention of joint failure due to thread stripping or component fracture Standards & Compliance TSP Manufacturing conducts Breaking Torque Testing in accordance with ASTM, ISO, and customer-specific standards . All testing equipment is calibrated to industry requirements, and tests are performed by qualified personnel to ensure accuracy, repeatability, and traceability. Adhering to these recognized standards demonstrates our commitment to delivering engineered fasteners and machined components that meet the highest levels of performance, reliability, and safety. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications.

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SERVICING THE CUSTOMER Nuclear Home / Industries / Nuclear / Industry Overview Engineered fasteners and components are critical to the nuclear industry, where safety, reliability, and performance under extreme conditions are of utmost importance. These fasteners play a key role in ensuring the structural integrity and operational efficiency of nuclear facilities, reactors, and supporting infrastructure. KEY FEATURES High Strength and Durability: Fasteners must endure intense pressures, high temperatures, and mechanical loads. Corrosion Resistance: Materials are selected to withstand radiation, high-temperature steam, and chemically aggressive environments found in nuclear operations. Radiation Tolerance: Components must retain their structural integrity and performance despite prolonged exposure to radiation. Precision Engineering: Tight tolerances are essential to ensure secure, leak-free, and vibration-resistant connections. WHEN ONLY THE BEST WILL DO Common Applications: Nuclear Reactors: Fasteners are used in reactor vessels, core components, and control rod assemblies. Containment Structures: Critical for sealing and structural stability of containment domes and systems. Steam Generators: Secure connections in high-temperature and high-pressure systems for energy transfer. Fuel Handling Systems: Specialized fasteners in components for transporting and storing nuclear fuel. Cooling Systems: Used in pumps, valves, and heat exchangers that maintain reactor temperature control. Materials: The materials used for fasteners in nuclear applications are chosen for their strength, corrosion resistance, and stability under radiation, including: Nickel Alloys: Excellent for high-temperature and corrosive environments. Stainless Steels (Austenitic and Duplex): Offer strength and corrosion resistance, even under high temperatures and radiation. Zirconium Alloys: Used in fuel cladding and other reactor components for their low neutron absorption and high corrosion resistance. High-Strength Alloy Steels: Provide excellent performance under mechanical stress and extreme conditions. Industry Standards: Fasteners for the nuclear industry must meet stringent regulatory and safety standards, such as: ASME BPVC (Boiler and Pressure Vessel Code) for nuclear pressure vessels. NRC (Nuclear Regulatory Commission) standards for materials and performance in the U.S. ISO 9001 for quality management in the nuclear supply chain. The TSP Manufacturing Advantage TSP Manufacturing specializes in custom-engineered fasteners tailored to meet the unique requirements of the nuclear industry. Our fasteners are designed to provide exceptional performance under the extreme conditions of nuclear operations, offering superior corrosion resistance, strength, and precision. They are manufactured to comply with the most rigorous industry standards, ensuring safety, reliability, and long service life in critical applications. OUR PRODUCTS Explore our products Specialty Engineered Fasteners Learn more about our Engineered Fasteners, precision-crafted for specialized and critical applications in diverse industries. Machined Parts Learn more about our custom-designed Machined Components expertly crafted for applications across a range of industries. Precision Shear Products Explore our shear product manufacturing and quality capabilities, delivering precision solutions for the most demanding applications. Valve Stems Learn more about our Engineered Valve Stems, designed for demanding applications requiring exceptional strength, durability, and precision. DOING WHATEVER IT TAKES Need product help or engineering support? Contact our team of fastener experts today CONTACT Get a quote for your upcoming project CONTACT