MaschinenKontrolle.de
Detect machine states before damage occurs..
Condition Monitoring & Predictive Maintenance

Detect machine states,
before damage occurs.

MaschinenKontrolle develops systems for continuous condition monitoring of critical components in industrial machinery.

Bohrgetriebe Condition Monitoring

Specialized Software Development for Machine Monitoring

Standard software often reaches its limits with specialized production processes.

MaschinenKontrolle provides tailored solutions for continuous monitoring.

Unplanned Machine Downtime

Defective bearings or thermal overloads cause expensive outages.

Gradual defects without visual signs are particularly dangerous.

Early Detection

MaschinenKontrolle captures ultrasound, vibration, acoustic, and thermal changes.

Deviations are identified automatically before severe damage happens.

Multiple Parameters – Complete Picture of Machine Health

Combining sensor data for seamless early defect detection.

Ultrasound

Earliest detection of friction noise, leaks, and lubrication loss.

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Vibration

Vibration analysis for pinpointing imbalance and mechanical flaws.

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Acoustics

Detecting process anomalies and ambient noise.

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Temperature

Thermal monitoring for overheating and overloads.

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Early Warning

Visual and acoustic alerts prior to failure.

Comparison of Applications and Overlaps

Sensor / Parameter Main Purpose Typical Examples Redundancy / Overlap
Ultrasound Detection of ultrasound friction and compressed air leaks. • Air leaks
• Early bearing failure
• Electrical discharge
Partial overlap with acoustics: Captures inaudible defects.
Vibration Detection of structural imbalance and component wear. • Rotor imbalance
• Gearbox issues
• Shaft misalignment
Partial overlap with ultrasound: Measures low-frequency mechanical faults.
Acoustics Monitoring ambient noise in the human audible spectrum. • Process anomalies
• Pump cavitation
High overlap: Often detects late stages of damage.
Temperature Thermal overload tracking from high friction. • Bearing overheating
• Motor overload
Follow-up symptom: Temperature is the final stage of failure.

Why is sensor redundancy intended?

In practice, machine failure follows a strict timeline (P-F curve):

  • Stage 1 (Ultrasound): Micro-friction in ultrasound range.
  • Stage 2 (Vibration): Mechanical vibration becomes measurable.
  • Stage 3 (Acoustics): Audible noise occurs.
  • Stage 4 (Temperature): Overheating right before breakdown.
Conclusion on Overlap:
  • Yes, technically they overlap as all measure physics wave signals.
  • No, it is not redundant: Ultrasound gives early alerts, temperature shows acute urgency.

From Machine to Digital Monitoring

The platform collects sensor data and analyzes trends to avoid failures.

Precision sensors stream real-time data to the cloud.

Secure APIs deliver values for visual dashboard analysis.

Monitoring Chain

1. Sensors
Machine data collection
2. Transmission
Secure communication
3. Database / API
Storage and provision
4. Analysis
Trends and health status
5. Alarm
Early alerts for anomalies

Applications & Industries

Designed specifically for automated production lines.

Woodworking

Drilling, milling, and CNC units.

Furniture Industry

Manufacturing lines for furniture.

Plastics Industry

Extruders, molding & drives.

Engineering

Condition monitoring integration.

Live Dashboard Demo

Simulation of real-time sensor tracking.

Machine MC-001

Drill Unit · Demo
NORMAL
VIBRATION
4,72 mm/s
Normal
TEMPERATURE
63,4 °C
Normal
RPM
2850 rpm
Normal