Tensile Testing Equipment

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Intuitive System & Interface

Faster Training, Fewer Errors Designed for ease of use, even first-time operators can run tests with confidence—minimizing training time and eliminating costly mistakes.

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Rapid Delivery

Stay on Schedule, Avoid Delays With efficient lead times and reliable logistics, your testing system arrives on time—keeping your production or research timelines intact.

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Fully Standards-Compliant

Meet ASTM, ISO, CSA & More Every system meets international standards—ensuring accurate, audit-ready results for even the most regulated industries.

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Turnkey Testing Packages

Everything You Need, Test-Ready from the Start Complete with fixtures, software, setup, and training—your system arrives fully equipped to meet your specific testing requirements.

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High ROI, Low Operation Costs

Premium Results Without the Premium Price Premium performance without the premium price—reducing outsourcing costs and increasing in-house efficiency from day one.

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Reliable Support & Calibration

Reliable Support & Calibration – Lifetime Service You Can Count On From installation to ongoing calibration, our expert team ensures your equipment runs flawlessly with responsive support you can trust.

Servo Hydraulic Universal Testing Machine 2000kN

Servo Hydraulic Universal Testing Machine 2000kN


The Servo Hydraulic Universal Testing Machine 2000kN (up to 449,618lbf) is a truly unique servo hydraulic UTM. It integrates a robust four-column and two-lead screw configuration. Ensuring exceptional parameters, the NG-SHM2000 series provides an excellent foundation for testing scenarios. The incorporation of a hydraulic-operated tensile grip is a key feature, designed to increase simplicity of operation, making it an adaptable piece of equipment for tensile testing.

Servo Hydraulic Universal Testing System 600kN / 1000kN with Precision Load Cell

Servo Hydraulic Universal Testing System 600kN / 1000kN with Precision Load Cell


The TM-SHM Series is the real benchmark systems in it's category with an accuracy level refined to ±0.5% of the reading value. The 600kN / 1000kN (134,885lbf to 224,809lbf) lbfServo Hydraulic Universal Testing Systems address a wide range of testing requirements, from tensile and compression to shearing and bending, highlighting its adaptability and significance in diverse industrial contexts.

Electro Mechanical Universal Testing System 50kN / 1000kN with Precision Load Cell

Electro Mechanical Universal Testing System 50kN / 1000kN with Precision Load Cell


The TM-EML Dual Column Floor Standing Universal Testing System provides high accuracy with a tolerance of ±0.5% of the reading value. Its wide testing range spans from 50kN to 1000kN (11,240lbf to 224,800lbf), catering to virtually all metal testing requirements. These units can also be fitted with a sub cell for enhanced precision in lower capacity testing. Additionally, the system offers a comprehensive array of testing capabilities including tensile, compression, bending, shearing, and more, along with compatible extensometer solutions for comprehensive material analysis.

Dual-Column Benchtop & Floor-Standing Universal Testing System 5 kN / 50 kN with Precision Servo Control

Dual-Column Benchtop & Floor-Standing Universal Testing System 5 kN / 50 kN with Precision Servo Control


The TM-EML Series C Dual-Column Benchtop and Floor-Standing Universal Testing System is an advanced electromechanical solution engineered for precise and stable material testing in laboratory and industrial environments. Covering a force range from 5 kN to 50 kN (1124 lbf to 11,240 lbf), it combines a servo direct-drive system, FEA-optimized frame, and high-rigidity structure to deliver Class 0.5 accuracy with smooth, vibration-free crosshead motion. This versatile system supports tensile, compression, flexural, and cyclic testing for metals, polymers, rubbers, foams, and composites. With dual configuration options (benchtop or floor-standing) and extended-travel models, the Series C adapts to a wide range of applications—from R&D to production quality control—while offering intuitive GenTest™ software and modular accessory compatibility for streamlined, high-precision testing.

Dual-Column Benchtop Universal Testing Machine 100 N / 10 kN with Precision Servo Control

Dual-Column Benchtop Universal Testing Machine 100 N / 10 kN with Precision Servo Control


The TM-EML Series B Dual-Column Benchtop Universal Testing Machine delivers exceptional rigidity and precision for low-to-medium-force material testing. Designed for laboratories, universities, and production environments, it provides an accurate force range from 100 N to 10 kN (22 lbf to 2248 lbf) with ISO 7500-1 Class 0.5 accuracy. Its FEM-optimized dual-column frame and servo direct-drive system ensure smooth, vibration-free crosshead motion and perfect axial alignment for reliable tensile, compression, and flexural testing. Ideal for polymers, metals, foams, composites, and advanced materials, the Series B combines compact design with high stiffness, dual-channel safety logic, and advanced GenTest™ software for easy setup, real-time visualization, and automated data analysis—making it the benchmark solution for precision benchtop testing.

Single-Column Benchtop Universal Testing Machine 50 N / 5 kN with Precision Servo Control

Single-Column Benchtop Universal Testing Machine 50 N / 5 kN with Precision Servo Control


The TM-EML Series A Single-Column Benchtop Universal Testing Machine is a compact yet high-performance electromechanical system designed for precision testing of low-force materials. Covering a force range from 50 N to 5 kN (11 lbf to 1124 lbf), it provides exceptional accuracy meeting ISO 7500-1 Class 0.5 standards. The system’s rigid single-column frame, pre-loaded ball screws, and direct-drive servo motor deliver smooth, vibration-free motion and stable control at speeds up to 2400 mm/min. Ideal for laboratories, research centers, and quality-control environments, it enables reliable tensile, compression, and flexural testing of plastics, rubbers, films, foams, composites, wires, adhesives, and other lightweight materials. Integrated GenTest™ software and modular accessory compatibility ensure intuitive operation and full compliance with ASTM and ISO standards.

Grips and Fixtures for TensileMill Universal Testing Machines

Grips and Fixtures for TensileMill Universal Testing Machines


Grips and fixtures are critical accessories for TensileMill Universal Testing Machines, ensuring accurate specimen holding and reliable load transfer during tensile, compression, flexural, shear, and puncture tests. Each configuration is designed to maintain specimen geometry, minimize slippage, and comply with ASTM, ISO, and other international standards. TensileMill CNC offers a complete range of grips and fixtures tailored to different materials and test methods — from wedge and pneumatic grips for metals and composites to self-tightening, eccentric roller, and bending fixtures for flexible, elastic, and brittle specimens. These precision-engineered components enable consistent, repeatable testing performance across research, quality control, and production environments.

Precision Alignment Device (NADCAP-Ready Precision Fixture)

Precision Alignment Device (NADCAP-Ready Precision Fixture)


The Precision Alignment Device is a critical upgrade for any universal testing machine, designed to ensure perfect coaxial alignment and eliminate bending stress during material testing. Compatible with TensileMill CNC and third-party frames like Instron®, this NADCAP-ready fixture fine-tunes alignment to within ≤5% misalignment, boosting accuracy and repeatability. Equipped with a high-precision coaxiality meter, the device supports fast, in-house alignment verification per ASTM E1012 and NASM 1312B standards. Ideal for tensile, compression, and flexural testing, it enables labs to meet strict compliance standards while improving operator efficiency and test result reliability.

What It Takes to Do the Perfect Tensile Test

How Do I Select the Perfect Tensile Tester?

TensileMill CNC Inc. is well known for manufacturing top-tier tensile specimen preparation machines, we take pride in also offering cutting-edge tensile testing equipment that complies with the latest international standards. We achieve this by partnering with leading manufacturers of tensile testing equipment in the United States and around the globe.

One Stop-Shop for Universal Testing Needs
One Stop-Shop for Universal Testing Needs
North American Quality
North American Quality
Full Scope of Grips, Fixtures and Consumables
Full Scope of Grips, Fixtures and Consumables
User-Friendly
User-Friendly
Turnkey Solution
Turnkey Solution
Force Capacity Ranges from 1kN to 3000kN
Force Capacity Ranges from 1kN to 3000kN

We handpick our established and reputable partners based on their reflection with our philosophies. The company's values include the ultimate customer experience, a user-friendly, efficient, cost-effective solution, and superior after-sales technical support to stay on top of your projects. With hands-on experience in sample preparation methods and materials testing, we combine years of field experience with industry best practices. As a result, we can match end-users with quality tensile testing equipment based on their needs.

You can submit your specifications through the form below for us to compile an individualized list of Universal Testing Machines. This will take into account your needs, budget, and any other preferences you may have.

How Do I Select the Perfect Tensile Tester?

How Do I Select the Perfect Tensile Tester?

Tensile testing machines must be selected based on several factors. If you are upgrading quality and functionality, or have decided to move materials testing in-house, you want to make sure that you are not buying a machine that won't meet your requirements. As a rule, you will be guided by the type of testing you will perform - tensile, compression, fatigue, etc. - as well as the ASTM or ISO standards for the market you will enter. Among other factors to consider when selecting the perfect tensile tester are:

Optimal Performance Speed - Analyze the machine's capabilities by examining specifications like motor speed, actuator efficiency, and drive horsepower to achieve top system performance.

Essential Load Capacity - Determine the necessary machine size based on your material testing load requirements. Depending on your maximum load requirements and whether hydraulic or electromechanical power is best for you, you can choose compact tabletop models or robust floor models.

Precise Test Calculations - It is very important to choose a tester with an appropriate control system. If complex calculations and a comprehensive standards library are required, PC-based software may be necessary, or a simple stand-alone digital controller may suffice.

Versatile Grips and Fixtures - Choose the right grips and fixtures for your samples, whether pneumatics, manuals, or specialized for rope and thread, to match your industry's needs. It may be necessary to create custom fixtures for samples with unusual shapes and sizes.

TensileMill CNC Inc. works with top-tier manufacturers of tensile testing equipment in North America and Europe, allowing you to choose from a wide selection of applications using a simple online form.

Additional Considerations When Choosing The Right Tensile Tester

Additional Considerations When Choosing The Right Tensile Tester

There are many different types of tensile testers, each with a unique feature. The right tool for your tensile testing equals a reliable manufacturer. Choosing a reliable manufacturer is the same as choosing the best tools. Ask these key questions when choosing a manufacturer for your tensile testing needs:

  • Is the company established and has a good reputation?
  • Can I contact organizations who currently have their equipment ?
  • Is the company quick in replying to service and support inquiries?
  • Where are the machines manufactured?
  • Are the spare parts readily available and easily replaceable?
  • What maintenance measures does the machine require?
  • What is the expected life expectancy of the machine?

Our goal is to match all your requirements with an ideal manufacturer, guaranteeing that those criteria are met. You can let us know what you need by filling out the form below. By taking this step, you will be able to make an informed decision with confidence.

How Do I Prepare the Perfect Tensile Specimen?

How Do I Prepare the Perfect Tensile Specimen?

In the past, manufacturers had to send their raw specimen batches of material to a specialist testing facility for the preparation of material property data. Materials would then be milled to create tensile specimens, which would be tested on a tensile tester to determine the properties of the materials.

Recently, manufacturing facilities have recognized the value of bringing testing equipment in-house to save time and money. Furthermore, they gain control over what passes a quality material standard, what testing method is most efficient, and under what conditions the most reliable data can be obtained. This process also saves weeks, quickly justifying the initial investment.

You can now prepare the highest-quality tensile specimen with only a few button pushes by investing in an affordable, industrial-grade tensile sample preparation machine. Whenever there is a high test volume or you want more control over the preparation of test samples, there are manufacturers who provide tensile specimen preparation equipment you can use in-house. As a manufacturer and distributor of both flat and round specimen preparation machines, TensileMill CNC Inc. is a prominent example of quality tensile specimen preparation equipment.

Our tensile specimen preparation equipment meets ASTM, ISO, DIN, JIS, and more standards for virtually all types of materials and has superior ease of use, accuracy, and efficiency. With intuitive software, even engineers with little experience can operate these machines easily. You will greatly benefit from learning more about TensileMill CNC's tensile sample preparation equipment if you are involved in testing, manufacturing, or production.

How Do I Perform the Perfect Tensile Test?

How Do I Perform the Perfect Tensile Test?

Tensile Testing will expose the sample to a controlled amount of tension until failure occurs. During this test, other material properties can also be determined to guide design or production teams in making product or component improvements. Measurements of direct properties such as breaking strength, reduction in area, maximum elogation, and the ultimate tensile strength of the material can be used to determine other analytic properties through engineering calculations.

The tensile specimen is prepared depending on the test method or equipment being used and the specifications governing the type of material being tested. Usually a sample cross-section will feature a specimen with large, grippable shoulders and a gage section between the shoulders. The smaller gage section is where the controlled deformation and failure test is performed.

The specimens are prepared with either a square or round gage cross-section. The shoulder areas must be ample enough to permit a firm grip by the testing fixture. This gage length may vary depending on the standard specs being followed or the country ISO standards being used - and will also change in relation to the specimen diameter or cross-sectional area. The most common tensile testing guidelines can be found in ASTM D638.

We encourage you to fill out the form below to be connected with the optimal manufacturer of Tensile Testing should you need any further help or in-person assistance.

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Contact TensileMill CNC Inc. to learn more about how easy preparing and testing tensile specimen in-house can be. When you partner with the right companies with the right equipment, your tensile testing procedures will become hassle free, cost-effective, and provide an accurate method for preparing and testing your tensile specimens.

What Are the Installation and Setup Requirements for the TensileTurn CNC XL?

Installation of the TensileTurn CNC XL mirrors standard 3-phase CNC equipment. Provide a dedicated 3-phase circuit with proper grounding and a clockwise phase sequence. Position the machine on a stable floor, remove transit locks, level the base with a precision machinist level, and confirm clearances for chip handling and operator access. Connect the coolant pump to the designated port and fill the reservoir with the approved flood coolant if coolant will be used. If your configuration includes a hydraulic unit or a chip conveyor, make the factory-labeled connections before applying power. Power on the control, then verify phase rotation. If a phase-rotation meter is unavailable, briefly run the coolant pump and confirm clockwise rotation. If rotation is reversed, power down and swap any two incoming power legs, then retest. Home all axes, confirm door interlocks and the emergency stop function, and jog the spindle at low speed to check for alarms, unusual noise, or vibration. Verify coolant flow and look for leaks. Set tool holders, touch off tools, and establish work and tool offsets. Run the recommended warm-up program, then machine a short test piece to validate dimensions and surface finish before routine specimen preparation. If you would like to review specifications, layout, and options for the TensileTurn CNC XL, you can learn more on the equipment page.

What Round Specimen Sizes And Types Does The TensileTurn CNC XL Support?

The XL handles long and large-format tensile bars within a generous working envelope. Usable turning length is 21.65 in (550 mm), with a standard turning diameter of 11.81 in (300 mm) and a max swing of 17.72 in (450 mm). Through-spindle work up to 2.56 in (65 mm) diameter can be fed, while larger blanks can be chucked within the swing capacity. An MT4 tailstock with 3.15 in (80 mm) quill travel supports slender samples during finishing for stable, taper-free results. Typical outputs include standard and sub-size round tensile specimens, threaded-end grips, button-head bars, and fatigue blanks for metals covered by ASTM E8/E8M and ISO 6892-1. The built-in specimen library lets operators select common geometries, then adjust gauge diameter, gauge length, and fillet radius to match lab procedures. The turret accepts 0.98 in (25 mm) square shank tools and 1.57 in (40 mm) boring bars, enabling roughing and fine finishing with one setup. For consistent surface finish and dimensional accuracy, use the tailstock for support, leave adequate stock for a light finishing pass, and validate the final diameter along the gauge length with a micrometer. If needed, apply cutter compensation in the control to correct tenths-level drift between tool changes. If you would like full capacity details and controls, you can review specifications on the TensileTurn CNC XL product page.

What Round Specimen Capacity Does The XL System Support For ASTM E8 And ISO 6892 Workflows?

The XL round-specimen lathe accommodates large workpieces with a max swing of 17.7 in (450 mm), a typical turning diameter of 11.8 in (300 mm), and a max turning length of 21.7 in (550 mm). The spindle features an A2-6 nose with a 2.56 in (65 mm) bore for thru-stock, and travels of 7.1 in (180 mm) on X and 23.6 in (600 mm) on Z. A servo-index turret supports 1.00 in (25 mm) square OD tooling and 1.57 in (40 mm) boring bars. Tailstock capacity includes MT4 taper with 3.15 in (80 mm) quill travel and a 2.95 in (75 mm) quill diameter. Using the tensile software library, operators select geometries aligned with ASTM E8/E8M and ISO 6892-1 requirements, then the machine programs shoulder radii, gage diameters, and grip transitions automatically. The system produces standard and sub-size round specimens, threaded-end bars, button-heads, and fatigue blanks from round, square, or irregular incoming stock while maintaining dimensional consistency and finish suitable for tensile testing. For throughput, the spindle runs to 3500 rpm, with rapid feeds up to about 787 ipm (20 m/min) on X and 945 ipm (24 m/min) on Z. This enables efficient machining of tough metals, high-strength alloys, and composite-based blanks while preserving the dimensional control expected in quality and compliance workflows. If you are evaluating high-capacity round-specimen lathes, you can review technical details on the TensileTurn CNC XL product page.

What Specimen Sizes And Standards Does The TensileTurn CNC XL Support?

The XL system prepares standard, sub-size, threaded, button-head, and fatigue bars to common requirements in ASTM E8 and ISO 6892-1. Operators can select preset geometries for typical diameters such as 0.500 in (12.5 mm) and 0.250 in (6.35 mm), or enter custom dimensions to meet 4D or 5D gauge-length rules. TensileSoft provides a standards library and guided prompts, while the Carbon control enables custom CNC cycles when needed. For capacity, the machine accommodates a max swing of 17.7 in (450 mm), a standard turning diameter of 11.8 in (300 mm), and a max turning length of 21.7 in (550 mm). The spindle bore is 2.56 in (65 mm), suitable for most round stock used for tensile bars, and the tailstock uses MT4 with 3.15 in (80 mm) quill travel for rigid center support. Installed power ranges about 14.7 to 17.4 hp (11 to 13 kW) and maximum spindle speed is 3500 rpm, supporting efficient machining of steels, aluminum, nickel alloys, and titanium. To produce test-ready surfaces, use steady tailstock support, center-drilled ends, and finishing passes with a small-nose-radius insert and consistent feed. Most labs target 32 to 63 µin Ra (0.8 to 1.6 µm) as-turned, with no circumferential tool marks in the gauge section. The workflow is load stock, select the standard or enter dimensions, verify gauge length and transition radii, then run the automated cycle and confirm dimensions before testing. If you would like full specifications and options, you can review details on the TensileTurn CNC XL product page.

What Specimen Capacity And Material Range Does The TensileTurn CNC XL Support?

This round-specimen system accepts large blanks and finished bars within an 11.8 in (300 mm) standard turning diameter, 17.7 in (450 mm) maximum swing, and 21.7 in (550 mm) maximum turning length. A 2.56 in (65 mm) spindle bore lets you pass substantial stock or use oversized draw-tube workholding. It processes round, square, or irregular bar for standard, sub-size, button-head, and threaded specimens. For metals and tough alloys, the machine provides stable cutting with spindle speeds to 3500 rpm and approximately 15/17 hp (11/13 kW) of spindle power. Typical rapid cutting motions reach about 790 ipm, 945 ipm in X and Z respectively (20 m/min, 24 m/min). The turret accepts 0.98 in (25 mm) square shank tools and 1.57 in (40 mm) boring bars, while the MT4 tailstock with 3.15 in (80 mm) quill travel supports concentricity on slender gauge sections. These features suit steels, aluminum, titanium, nickel alloys, and hardenable grades that demand consistent geometry. The integrated TensileSoft library helps you create geometries per ASTM E8/E8M or ISO 6892-1, or you may enter custom dimensions. A practical routine is to rough, then finish in the same setup using a live center, correct tool nose radius, and conservative finishing feeds to maintain straightness and surface quality for immediate tensile testing. For detailed capacities, options, and typical workflows, you can review specifications on the TensileTurn CNC XL product page.

How Does The TensileTurn CNC XL Maintain Concentricity And Surface Finish For ASTM E8 Round Specimens?

Concentricity starts with workholding and centers. Use a precision collet or properly bored soft jaws to grip the blank, indicate the stock, then support with a correctly aligned live center. For long or slender blanks, add a steady rest to control deflection. Rough between centers when possible, then perform the finishing pass between centers to keep the reduced section coaxial with the shoulders. Program a stable, repeatable toolpath with constant surface speed. For finishing most steels and nickel alloys, a sharp nose-radius carbide insert and a feed of about 0.002–0.006 in/rev (0.05–0.15 mm/rev) with a light depth of cut near 0.008–0.012 in (0.20–0.30 mm) helps minimize tool pressure. A spring pass can remove residual tool marks. Blend shoulder fillets per ASTM E8 to reduce stress concentrations, and avoid tool dwell in the gauge section. Verify total indicated runout at the shoulders before the final pass, aiming for ≤0.001 in TIR (≤0.025 mm). Target a surface finish of ≤63 µin Ra (≤1.6 µm) on the reduced section, with 32 µin Ra (0.8 µm) preferred for high-strength or brittle materials. Measure diameter and finish at multiple points along the gauge length, document offsets in the control, and lock in a proven recipe so operators can reproduce compliant specimens consistently. If you want to see capabilities and options, you can review technical details on the TensileTurn CNC XL product page.

Our universal testing machines and tensile testers are designed for precise, repeatable mechanical testing across a wide range of materials. Built to meet ISO 6892 and ASTM E8 standards, our electromechanical and servo-hydraulic systems deliver reliable tensile and compression results in both laboratory and industrial environments. Whether you’re looking for a digital tensile tester, a dual-column system, or a fully automated material strength testing machine, we offer ISO-compliant solutions tailored to your application. Request a quote today for high-force, computerized tensile testing equipment trusted by engineers worldwide.

TensileMill CNC specializes in providing an easy to use solution for the machining of flat and round tensile specimens.

Contact Information

  +1 (877) 672 2622

  moc.cncllimelisnet@selas

  775-981-9041

Our Locations

2220 Meridian Blvd., Suite #AF937, Minden, NV, 89423, USA

11407 SW Amu St., Tualatin, OR, 97062, USA

4071 L.B. Mcleod Rd. Ste D PMB 34, Orlando, FL, 32811, USA

847 Sumpter Road, Belleville, MI, 48111, USA

918 16 Ave NW, Calgary, AB, T2M 0K3, Canada