| Image | Part Number | Description / PDF | Quantity | Rfq |
|---|---|---|---|---|
|
G-NSDOG2-021 W/CAL CERT G-NSMIS-005 TE Connectivity Measurement Specialties |
SENSOR INCLINOMETER 90DEG MODULE |
0 |
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|
myDevices |
ANALYZE TILT CHANGES OF BUILDING |
0 |
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|
TE Connectivity Measurement Specialties |
SINGLE AXIS, 15 ANGLE, 6.5-24VDC |
0 |
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|
Sensata Technologies – BEI Sensors |
SENSOR INCLINOMETER 15DEG MODULE |
16 |
|
|
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G-NSDOG2-002 W/CAL CERT G-NSMIS-005 TE Connectivity Measurement Specialties |
SENSOR INCLINOMETER 45DEG MODULE |
0 |
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G-NSDOG2-200 W/CAL CERT G-NSMIS-005 TE Connectivity Measurement Specialties |
SENSOR INCLINOMETER 90DEG MODULE |
0 |
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TE Connectivity Measurement Specialties |
SENSOR INCLINOMETER 45DEG MODULE |
0 |
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|
Pepperl+Fuchs |
INCLINATION SEN 0-360 ANALOG |
2 |
|
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G-NSDOG2-001 W/CAL CERT G-NSMIS-005 TE Connectivity Measurement Specialties |
SENSOR INCLINOMETER 25DEG MODULE |
0 |
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|
myDevices |
ANALYZE TILT CHANGES OF BUILDING |
0 |
|
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|
Sensata Technologies – BEI Sensors |
SENSOR INCLINOMETER 360DEG MOD |
0 |
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TE Connectivity Measurement Specialties |
2 M CABLE SUBMIN.702-SERIES |
0 |
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G-NSDOG2-003 W/CAL CERT G-NSMIS-005 TE Connectivity Measurement Specialties |
SENSOR INCLINOMETER 90DEG MODULE |
0 |
|
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Sensata Technologies – BEI Sensors |
SENSOR INCLINOMETER 60DEG MODULE |
0 |
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TOKO / Murata |
SENSOR INCLINOMETER 10DEG MODULE |
0 |
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MEMSIC |
SENSOR INCLINOMETER 180DEG MOD |
0 |
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The Fredericks Company |
TILT SENSOR 25DEG 1AXS |
0 |
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TOKO / Murata |
SENSOR INCLINOMETER 30DEG 8SMD |
0 |
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TOKO / Murata |
SENSOR INCLINOMETER 90DEG 8SMD |
0 |
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|
TOKO / Murata |
SENSOR INCLINOMETER 90DEG 8SMD |
0 |
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Inclinometers, also known as tilt sensors, are devices that measure angular orientation or inclination relative to gravity. As critical components in motion sensing systems, they convert mechanical motion into electrical signals for analysis. Modern inclinometers play vital roles in industrial automation, structural monitoring, and navigation systems by providing precise angular data for stability control, alignment verification, and motion tracking applications.
| Type | Functional Characteristics | Application Examples |
|---|---|---|
| Electrolytic Inclinometers | Liquid-based sensing with high sensitivity, self-venting design | Construction equipment leveling |
| MEMS Capacitive Sensors | Micro-electromechanical systems with digital output | Smartphone orientation detection |
| Fiber Optic Inclinometers | Immune to EMI, suitable for harsh environments | Oil well drilling angle monitoring |
| Mechanical Pendulum Sensors | Analog output with robust mechanical design | Heavy machinery vibration analysis |
Typical inclinometer construction includes: - Outer housing (aluminum or stainless steel for environmental protection) - Sensing element (MEMS structure, electrolytic fluid chamber, or optical fiber coil) - Signal conditioning circuitry (amplifiers, temperature compensation modules) - Electrical interface (analog voltage, CANbus, or wireless transmission) - Mounting hardware with vibration isolation features
| Parameter | Typical Range | Importance |
|---|---|---|
| Measurement Range | 5 to 90 | Determines application suitability |
| Accuracy | 0.1 to 1 | Directly affects system performance |
| Resolution | 0.001 to 0.1 | Defines minimum detectable angle |
| Operating Temperature | -40 C to +125 C | Environmental reliability factor |
| Response Time | 1ms to 100ms | Critical for dynamic applications |
| Manufacturer | Representative Product | Key Specifications |
|---|---|---|
| TE Connectivity | KMX62 | 1.5 accuracy, 16-bit resolution |
| Murata Electronics | SCA103T | Dual-axis MEMS, 0.1 repeatability |
| STMicroelectronics | LIS3DH | 3-axis digital output, 0.06mg/LSB |
| NOVATECHNOLOGIES | TILT01 | IP68 rated, -40 C to +85 C range |
Consider these factors during selection: - Environmental conditions (temperature, vibration, humidity) - Required measurement axis (single/dual/multi-axis) - Output signal type (analog voltage vs. digital protocols) - Mechanical mounting constraints - Long-term stability requirements - Cost vs. performance trade-offs
Current trends include: - Miniaturization through advanced MEMS fabrication techniques - Integration with wireless communication modules (IoT applications) - Development of self-calibrating sensors with AI algorithms - Increased adoption of fiber optic technology for EMI-prone environments - Growth in autonomous vehicle applications requiring 6-axis sensing - Emergence of energy-harvesting inclinometers for remote installations