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Coordinate Measuring Machines (CMMs)

Two Or Three Axis Video-Only Systems
Acu-Gage Systems
The Acu-Gage two or three axis video-only model has been a durable measuring tool used by manufacturers for over twenty years. Our robust bridge-style construction is modeled similar to 3-axis touch probe machines: the part remains stationary on the measuring platform and the optics move independently above the piece. The AcuGage’s ...

Specifications

Main Probe: Optical (vision), Optical (other)
Optional Probe: Not Specified
Range (X): 150 mm
Range (Y): 300 mm
Range (Z): 50 mm
Single-Axis System
Acu-Gage Systems
The Acu-Gage single-axis linear model is a versatile measuring tool used in many diverse industries. Diecutting applications include the corrugated box, steel rule die and sheet label industries. Tier 1 automotive suppliers use Acu-Gage to verify cut length of extruded rubber molding for car doors and windows. Medical ...

Specifications

Main Probe: Optical (vision), Optical (other)
Optional Probe: Not Specified
Range (X): -- mm
Range (Y): -- mm
Range (Z): -- mm

Frequently Asked Questions

A Coordinate Measuring Machine (CMM) is an advanced device used in various industries to measure the physical geometrical characteristics of an object. It does this by touching or scanning the object and tracking the probe's position in a three-dimensional space (X, Y, and Z axes).

There are several types of CMMs, including Bridge, Gantry, Cantilever, and Portable CMMs. Bridge CMMs are most common and offer high precision, making them suitable for lab environments. Gantry CMMs are used for large components, while Cantilever CMMs are ideal for small to medium-sized parts. Portable CMMs offer flexibility and are ideal for parts that can't be moved.

CMMs work by moving a probe to touch or scan the surface of the object being measured. Each point of contact or scanned point is recorded as a precise location within the CMM's measurement volume. The CMM software interprets this data to provide detailed information about the object's dimensions and shape.

CMMs are used in a wide variety of industries, including aerospace, automotive, electronics, and precision manufacturing, for quality control and validation of product specifications. In the medical field, they're used for measuring complex components like orthopedics, implants, and surgical tools. CMMs are also used in research and development for developing and validating precision measurement techniques.

When selecting a CMM, consider the size of the parts you'll be measuring (measurement volume), the level of accuracy you need (precision), the volume of parts to be measured (speed), and whether the parts can be moved to the machine or if the machine needs to be portable (flexibility).

There are 2 different Coordinate Measuring Machines (CMMs) from suppliers and manufacturers listed in this category. In just a few clicks you can compare different Coordinate Measuring Machines (CMMs) with each other and get an accurate quote based on your needs and specifications.

Understanding Coordinate Measuring Machines (CMMs)

Coordinate Measuring Machines (CMMs) are advanced measuring instruments utilized in a variety of industrial and scientific applications to assess the physical geometrical characteristics of an object. By analyzing a component in three dimensions (X, Y, and Z axes), CMMs provide an incredibly detailed, precise measurement.

Types of CMMs

There are several types of CMMs designed for different applications, including Bridge, Gantry, Cantilever, and Portable CMMs.

  • Bridge CMMs are the most common and are typically used in laboratory settings due to their high precision. They function by moving a probe along the X, Y, and Z axes on a bridge-like structure.

  • Gantry CMMs are large-scale machines ideal for measuring big components. The machine moves on rails, providing a wide measurement range.

  • Cantilever CMMs are designed for easy access from three sides, which makes them ideal for measuring small to medium-sized components.

  • Portable CMMs, such as arm CMMs and handheld devices, offer flexibility and convenience, making them ideal for applications where parts cannot be moved to the lab.

Working Principle

CMMs operate using a probe that makes contact with the object's surface or uses optical, laser, or white light sensors for non-contact measurement. The probe's position is tracked within the CMM's measurement volume, recording precise location data for each point of contact or scan data point. The CMM software then interprets this data, delivering precise dimensional characteristics of the measured component.

Applications of CMMs

CMMs are used across industries for quality control, product validation, and reverse engineering. In aerospace, automotive, electronics, and precision manufacturing, CMMs ensure components adhere to rigorous quality and dimensional standards. In the medical field, they're used to measure complex components like orthopedics, implants, and surgical tools.

CMMs are also integral in metrology research and development, enabling scientists and engineers to develop and validate measurement techniques that push the boundaries of precision and accuracy.

Factors to Consider When Choosing a CMM

When selecting a CMM, it's crucial to consider the nature of the tasks you'll be performing. Here are a few considerations:

  • Measurement Volume: Choose a CMM that can handle the size of the parts you will be measuring.

  • Precision: Different CMMs offer varying levels of precision. Select a model that aligns with your accuracy requirements.

  • Speed: If you need to measure a large volume of parts, a CMM that can measure quickly while maintaining accuracy is important.

  • Flexibility: Portable CMMs provide the ability to take the measurement solution to the part, which can be a deciding factor for large, immovable, or on-site components.

Conclusion

Coordinate Measuring Machines (CMMs) are versatile and invaluable tools in dimensional metrology. They provide detailed, precise measurement data that's integral to maintaining quality and accuracy in manufacturing and research. By selecting a CMM that aligns with your measurement needs, you can ensure consistent, high-quality outcomes in your projects.

Did You know?

Did you know that Coordinate Measuring Machines (CMMs) are at the forefront of ensuring quality and precision in various industries around the world? These powerful metrology tools have revolutionized quality control, providing accurate three-dimensional measurements of complex components. From aerospace and automotive manufacturing to medical technology and research labs, CMMs play an indispensable role in maintaining the stringent standards of precision required. Engineered to measure an object's geometry, CMMs capture data points in a three-dimensional space (X, Y, and Z axes), allowing for detailed analysis of a component's dimensions and tolerances. This advanced technology enables companies to ensure that their products meet exact specifications, thus guaranteeing consistency, improving efficiency, and reducing waste. Did you also know that there are different types of CMMs? Depending on the specific application, you might encounter Bridge CMMs, Gantry CMMs, Cantilever CMMs, or Portable CMMs. Each type serves unique measurement needs, ranging from small precision components to large industrial parts. This diversity of application showcases the flexibility and adaptability of CMM technology. Interestingly, the advent of CMMs has not only transformed traditional manufacturing processes but also unlocked new potential in fields like reverse engineering. By accurately capturing physical measurements of an existing object, CMMs can aid in creating digital reproductions, fostering innovation, and improving design processes. Remember, whether it's ensuring the safety of a space shuttle, the efficacy of an automobile, or the accuracy of a microchip, Coordinate Measuring Machines (CMMs) are at the heart of it all, delivering precision and quality control that shapes our world.