Video Deflection Technology-Vibration Analysis

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Video Deflection Technology

Video Deflection Technology promises to be the future of many studies in Vibration Analysis. As the electronics evolve, new technologies in predictive maintenance raise as well, and so is the case of non invasive vibration Analysis. We never imagined we could measure vibration with a camera and even better, with our own pocket cellphone. So is the case of Video Deflection, Stay with me to learn a little bit more about this amazing technology.


So what is Video Deflection Technology?

Video Deflection Technology is a method of vibration analysis that utilizes modern slow speed camera technology found in everything from consumer grade cellular phones to expensive professional grade cameras combined with analytic software to identify micro-movements and amplify motion within a video that are not recognizable by the human eye.

Video Deflection Replaces Accelerometers with Target Locations

Utilizing a combination of algorithms, Video Deflection Technology software locates target areas of interest. Based upon identified angularity and color differentiation within a target video frame, this technology compares the movement of those targets from frame to frame. In fact, this method can create thousands of vibration analysis measurement points without ever having to use a traditional accelerometer.

Video Deflection

Step 1: Identify the Targets

Comparing Targets with Static Zones

Once target locations of measurement are identified static zones need to be identified in order to compare the movement of targets to the movement of identified static areas.

Video Deflection Motion Amplification

Step 2: Compare Targets to Static Points

Repeatability and Reliability in Video Deflection Technology

Repeatable, Reliable, and NIST Traceable Calibration Video Deflection Technology offers 3 different calibration methods to enable the user to establish a reliable deflection model and extremely accurate point based vibration analysis data.

  • Native Format Calibration – Utilizes a synchronous vibration analysis signal from a traditional accelerometer that is taken at the same time as the video recording from a specified location. This method synchronizes the vibration data to the video and thus provides the most accurate representation of the data presented.
  • RMS Value Calibration – Utilizes a single reference x/y displacement value along with a specified location this method delivers the second most accurate representation of the data presented.
  • Distance Calibration – Identifies the distance between two locations within the video frame and calculates displacement/mass transfer based upon the distance identified scaled throughout the model.
Calibration : Video Deflection Motion Amplification Calibration

Step 3: Choose the Best Calibration Method Available

Identifying Dominant Forcing Frequency

The Looking Glass Technique identifies the dominant forcing frequency thus enabling the completion of a phase simulation of the applicable targets.

Dominant Frequency Motion Amplification

Step 4: Identify Dominant Forcing Frequencies

Motion Amplification Phase Analysis

Step 5: Check Phase if Appropriate

Motion Detection Analytical Methods

Identifying the areas of the most interest can be difficult if done using the phase simulation method. Therefore, motion detection feature identifies and colorizes the areas of the most displacement found within the post processed video.

Motion Amplification Motion Detection

Step 6: Motion Detection Tool

Video Deflection – Creating a Motion Animated Amplified Model

Creating a Video Deflection Model that Amplifies Motion of the applicable targets with a video is a highly sought-after result within the motion magnification field. To do so one can amplify the motion of the entire range of targets, focus on a specific range of targets based on filters or any number of independent ranges using filters.

Filtered FFT Motion Amplification

Step 7: Add Filters

Motiton Amplification

Step 7: Zoom To Areas of Interest or Create Video Deflection Model

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Michael Howard, D.Sc is an American entrepreneur, a veteran of the United States Air Force, and respected leader in the predictive maintenance industry. Michael is an avid CrossFit® athlete, CrossFit® CF-L1 Trainer and passionate advocate of revolutionary concepts in the wireless instrumentation and the IIoT communities for the maintenance & reliability industries.

Michael is a native of South Glens Falls, New York and a graduate of Excelsior College, Capella University, & Charter University with degrees in Electro-Mechanical Engineering, Leadership, & Organizational Management, & Engineering Management. Mike is a Certified Reliability Engineer, Six-Sigma Black Belt & Certified Maintenance & Reliability Professional. Mike is the CEO of Erbessd Instruments and is responsible for Strategic Direction, Distribution, Sales, Marketing and Operations throughout the English speaking markets.

ERBESSD INSTRUMENTS is a leading manufacturer of Vibration Analysis Equipment and Dynamic Balancing Machines with facilities in Mexico and the United States and representatives around the world. ERBESSD INSTRUMENTS – MASTERS OF MACHINE HEALTH

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