A three-axis vibration shaker also known as a multi-axis electrodynamic shaker, is a specialized testing equipment used in various industries for subjecting objects or components to controlled vibrations. Unlike conventional single-axis shakers that generate vibrations in a single direction, combined electrodynamic shakers are capable of producing vibrations simultaneously in three mutually orthogonal axes: X, Y, and Z.
Applications
The primary purpose of a multi-axis electrodynamic shaker is to simulate real-world vibration conditions and assess the performance, durability, and reliability of products or structures. It is extensively used in industries such as automotive, aerospace, electronics, defense, and telecommunications.
Components
The shaker consists of three individual electrodynamic shaker systems, each responsible for generating vibrations along one axis. These systems are synchronized and controlled to produce vibrations in a coordinated manner. The shaker table or platform where the test specimen is mounted can move in all three axes, allowing for the precise simulation of multidirectional vibrations.
Advantages
Multi-axis electrodynamic shakers offer several advantages over single-axis shakers. They provide a more realistic representation of the complex vibration profiles experienced by objects in the field. This capability is particularly crucial for evaluating the structural integrity and reliability of products that are subjected to multidirectional forces and vibrations during their operational life.
Testing
The testing performed on a multi-axis electrodynamic shaker can include sinusoidal vibrations, random vibrations, shock events, or a combination of these. By subjecting the test specimen to controlled vibrations, engineers and researchers can analyze its response, identify potential design flaws or weaknesses, optimize performance, and validate the product's reliability and durability under realistic conditions.
Overall, multi-axis electrodynamic shakers are essential tools in various industries, allowing manufacturers to ensure their products meet stringent quality standards and perform reliably in real-world environments that involve complex vibration profiles.
A three-axis vibration shaker also known as a multi-axis electrodynamic shaker, is a specialized testing equipment used in various industries for subjecting objects or components to controlled vibrations. Unlike conventional single-axis shakers that generate vibrations in a single direction, combined electrodynamic shakers are capable of producing vibrations simultaneously in three mutually orthogonal axes: X, Y, and Z.
Applications
The primary purpose of a multi-axis electrodynamic shaker is to simulate real-world vibration conditions and assess the performance, durability, and reliability of products or structures. It is extensively used in industries such as automotive, aerospace, electronics, defense, and telecommunications.
Components
The shaker consists of three individual electrodynamic shaker systems, each responsible for generating vibrations along one axis. These systems are synchronized and controlled to produce vibrations in a coordinated manner. The shaker table or platform where the test specimen is mounted can move in all three axes, allowing for the precise simulation of multidirectional vibrations.
Advantages
Multi-axis electrodynamic shakers offer several advantages over single-axis shakers. They provide a more realistic representation of the complex vibration profiles experienced by objects in the field. This capability is particularly crucial for evaluating the structural integrity and reliability of products that are subjected to multidirectional forces and vibrations during their operational life.
Testing
The testing performed on a multi-axis electrodynamic shaker can include sinusoidal vibrations, random vibrations, shock events, or a combination of these. By subjecting the test specimen to controlled vibrations, engineers and researchers can analyze its response, identify potential design flaws or weaknesses, optimize performance, and validate the product's reliability and durability under realistic conditions.
Overall, multi-axis electrodynamic shakers are essential tools in various industries, allowing manufacturers to ensure their products meet stringent quality standards and perform reliably in real-world environments that involve complex vibration profiles.
Model | Max. Working Freq(Hz) | Sine Force(kN)(Per. Axis) | Random Force(kNrms)(Per.Axis) | Max. Vel.(m/s) |
MAV-3-2000H | 2000 | 19.6 | 13.72 | 1.2 |
MAV-3-2000M | 500 | 19.6 | 13.72 | 1.2 |
MAV-3-2000L | 200 | 19.6 | 9.8 | 1.2 |
MAV-3-3000H | 2000 | 29.4 | 20.58 | 1.1 |
MAV-3-3000M | 500 | 29.4 | 14.7 | 1.1 |
MAV-3-3000L | 200 | 29.4 | 14.7 | 1.1 |
Note: The letter (H, M or L) in the system model means the size of the working table. |
H:Working Table Size is smaller than 500mm×500mm |
M:Working Table Size is larger than 500mm×500mm, but smaller than 800mm×800mm |
L:Working Table Size is larger than 800mm×800mm |
Model | Max. Working Freq(Hz) | Sine Force(kN)(Per. Axis) | Random Force(kNrms)(Per.Axis) | Max. Vel.(m/s) |
MAV-3-2000H | 2000 | 19.6 | 13.72 | 1.2 |
MAV-3-2000M | 500 | 19.6 | 13.72 | 1.2 |
MAV-3-2000L | 200 | 19.6 | 9.8 | 1.2 |
MAV-3-3000H | 2000 | 29.4 | 20.58 | 1.1 |
MAV-3-3000M | 500 | 29.4 | 14.7 | 1.1 |
MAV-3-3000L | 200 | 29.4 | 14.7 | 1.1 |
Note: The letter (H, M or L) in the system model means the size of the working table. |
H:Working Table Size is smaller than 500mm×500mm |
M:Working Table Size is larger than 500mm×500mm, but smaller than 800mm×800mm |
L:Working Table Size is larger than 800mm×800mm |
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