SPM stands for shock pulse monitoring. The term “shock pulse” describes what is produced when a ridge or asperity from one surface contacts a ridge or asperity 

We offer advanced vibration monitoring techniques for early detection of a wide variety of mechanical fault conditions such as unbalance, misalignment, resonance, looseness, and faulty gears or bearings on all types of rotating machinery. Machine vibration monitoring is the most widespread method to determine the health of rotating equipment.

Benefits of Vibration Analysis and Shock Analysis: Determine structural or rotating looseness or the presence of resonance. Check bearing concentricity. Detect misalignment or imbalance.

Benefits of Vibration Analysis and Shock Analysis: Determine structural or rotating looseness or the presence of resonance Check bearing concentricity Detect misalignment or imbalance Establish your Repair Priorities based on the results Improve Your Preventive Maintenance Quality and Results Test Under Load without any planned shutdown

If the philosophy of front line Condition Monitoring is utilized, shock pulse measurements would be utilized as the first stage of identifying anomalies.

Shock Pulse monitoring Industrial vibration analysis refers to a process for measuring the vibration levels and frequencies of machinery and then using this information to assess the “health/condition” of the machine and its components. is designed specifically for condition monitoring professionals, maintenance managers and

The results of this thesis show a distrust towards vibration monitoring, while other means of condition monitoring such as lube oil and thermal analysis is common on board. This distrust can be related to the complexity of the subject of vibration monitoring as well as a lack of training, thus, lack of knowledge.

The SPM HD Shock Pulse Monitoring is a further development of Shock Pulse Method (SPM); which can be used for easy, fast and reliable diagnosis of the 

Shock Pulse Monitoring also known as SPM is a patented technique of predictive maintenance by measuring vibration and shock pulses of bearing in motors and to identify their condition and operating life before the next overhaul procedure.

Figure 5 shows the shock response spectrum corresponding to the example in Figure 4. 2 In contrast, the level at a center frequency in a random vibration power spectral density represents the average mean square level across the band. 3 Another shock response spectrum format is based on the relative displacement of the mass. An

Since the incorporation of our organization, we are offering Shock Pulse Monitoring System to our clients. This is apt for shock pulse measurement.