Parameter	Specification
Instrument Type	Inclinometer System (Manual or Automated Geotechnical Monitoring)
Primary Function	Measures subsurface lateral movement and angular deviation within soil, rock, and retaining structures
Core Components	Inclinometer Casing, High-Precision Probe with Wheels, Cable Reel, Portable Data Logger or Real-Time Data Acquisition System
Working Principle	Probe measures tilt in two orthogonal axes relative to the casing → readings converted to displacement profiles → displacement vs. depth graphs generated for analysis
Measurement Axes	Dual Axis (X and Y)
Accuracy & Resolution	Millimeter-level displacement detection (±0.1 mm or better depending on depth and installation)
Depth Capability	Suitable for boreholes up to several hundred meters (custom depths available)
Casing Material	Durable ABS or PVC with precision grooves for consistent probe alignment
Probe Housing	Rugged stainless steel, weatherproof and shock-resistant
Data Logging	Manual readout or fully automated real-time logging with adjustable intervals (seconds to hours)
Communication Options	USB, GSM/GPRS, Wi-Fi or radio telemetry for remote data retrieval
Software Integration	Compatible with Data Digger dashboards for graphs, alarms, and trend analysis
Operating Temperature	–20 °C to +70 °C (custom options available for extreme environments)
Installation	Vertical boreholes, embankments, retaining walls, tunnel linings, dams, or foundations
Maintenance	Low maintenance, quick probe calibration, minimal drift over time
Key Features	High accuracy & repeatability, dual-axis measurement, wide depth coverage, portable probe, durable casing, seamless logger integration, wireless option
Applications	Slope stability monitoring, tunnel excavation, hydro power projects, retaining walls & deep excavations, landslide studies, mining & underground operations, bridge & foundation monitoring, research & geotechnical studies
Benefits	Early warning detection of ground movement, enhanced safety, cost efficiency, remote real-time monitoring, scalable for multi-borehole pro

 

Parameter	Specification
Instrument Type	Portable Data Logger (Multi-Sensor Geotechnical & Environmental Data Recorder)
Primary Function	Records, stores, and transmits measurements from multiple sensors for short-term or long-term monitoring
Compatible Sensors	Piezometers, strain gauges, inclinometers, load cells, tilt meters, vibrating-wire sensors, analog/digital/MEMS-based sensors
Working Principle	Connects to multiple sensors → converts analog or vibrating-wire signals to digital data → logs at preset intervals → stores internally → transmits to software/cloud dashboards
Accuracy & Resolution	High precision with low noise and stable performance (typically ±0.1% F.S. or better depending on sensor)
Data Logging	Flexible logging intervals from seconds to hours; long-term storage of thousands of readings
Communication Options	USB, GSM/GPRS, Wi-Fi, Bluetooth, or wired connection for data retrieval
User Interface	Touchscreen or keypad controls; simple setup and configuration on-site
Memory Capacity	Large internal memory suitable for months of data collection
Power Options	Rechargeable or replaceable batteries with long life; optional solar panel support
Enclosure	Compact, lightweight, weatherproof, and shock-resistant casing for rugged field conditions (IP65 or better)
Operating Temperature	–20°C to +70°C (custom options for extreme conditions)
Alarm System	SMS or email alerts triggered by user-defined thresholds
Software Integration	Compatible with Data Digger cloud dashboards and desktop applications for graphing, trend analysis, and automated reports
Mobility	Easy to transport between multiple sites for temporary or permanent installations
Maintenance	Low maintenance with self-diagnostics and remote updates
Applications	Geotechnical monitoring, tunnel projects, hydro power & dams, environmental studies, slope stability, mining, construction, research & academia

Parameter	Specification
System Type	In-Place Inclinometer (IPI) Data Acquisition System
Primary Function	Collection, conversion, storage, and transmission of data from geotechnical and structural monitoring instruments
Compatible Instruments	In-place inclinometers (IPIs), tilt meters, extensometers, load cells, piezometers, pressure cells, and other vibrating-wire or analog sensors
Working Principle	Collects sensor readings → converts to digital data → stores locally → transmits to central/cloud servers → visualizes on dashboards
Data Accuracy	High resolution, low noise, and stable long-term performance (typical resolution up to 0.01 mm or better depending on sensor)
Data Logging	Automatic data collection at user-defined intervals; supports continuous and event-based logging
Communication Options	GSM, GPRS, radio, satellite, and wired interfaces for remote and local transmission
Cloud & Software Integration	Secure web dashboards, graphical visualization, trend analysis, alarm thresholds, and report generation
Alarm Notifications	SMS/email alerts when thresholds exceed preset limits
Storage Capacity	Large onboard memory for long-term, high-frequency data collection
Power Options	Long-life rechargeable battery with optional solar panel support for remote sites
Enclosure	Rugged, weatherproof, and corrosion-resistant housing suitable for outdoor field conditions (IP65 or better)
Operating Temperature	–20°C to +70°C (custom options for extreme environments)
Scalability	Modular architecture for single instruments or large networks
User Interface	Intuitive configuration, diagnostics, and data download via USB or wireless; integrates with Data Digger monitoring software
Maintenance	Low maintenance with built-in self-diagnostics and remote firmware updates
Applications	Tunnels, hydro power projects, slopes/landslides, mining & underground works, bridges, foundations, research & academia

Parameter	Specification
Instrument Type	100 Ton Load Cell (Strain Gauge-Based Force Transducer)
Primary Function	Measurement of extremely high loads and stresses in civil, structural, and geotechnical projects
Applications	Hydro power dams, tunnels, bridges, mining, pile load testing, retaining structures, structural health monitoring
Working Principle	Strain gauges deform under load; resistance change converted into electrical signal for precise load measurement
Capacity	Up to 100 tons (other capacities available upon request)
Accuracy	Exceptional accuracy with minimal drift (typically ±0.1% F.S. or better depending on model)
Construction Material	High-strength stainless steel with corrosion-resistant, weatherproof housing
Design	Rugged build for long-term continuous monitoring under heavy loads
Output Signal	Analog voltage, mV/V, or 4–20 mA; compatible with manual readouts, data loggers, and wireless systems
Temperature Range	-20°C to +70°C (custom options for extreme conditions)
Data Acquisition	Works with digital readouts, automated data loggers, and wireless telemetry systems
Installation Method	Simple mounting with bolts or custom assemblies depending on project requirements
Long-Term Stability	Stable readings and high repeatability over years of use
Maintenance	Low maintenance due to robust construction and minimal recalibration needs
Customization	Available in different capacities, configurations, and cable lengths based on project needs
Standards Compliance	Designed to meet international geotechnical and structural monitoring standards

Parameter	Specification
Instrument Type	40 Ton Load Cell (Strain Gauge-Based Force Transducer)
Primary Function	Measurement of heavy loads and stresses in civil and geotechnical projects
Applications	Tunnels, hydro power dams, foundations, retaining walls, pile testing, mining, structural health monitoring
Working Principle	Strain gauges deform under load; resistance change converted into electrical signal
Capacity	Up to 40 tons (other capacities available upon request)
Accuracy	High precision with minimal drift (typically ±0.1% F.S. or better depending on model)
Construction Material	Stainless steel with corrosion-resistant, weatherproof housing
Design	Compact and portable for easy transport and installation at project sites
Output Signal	Analog voltage, mV/V, or 4–20 mA; compatible with manual readouts and data loggers
Temperature Range	-20°C to +70°C (custom options for extreme conditions)
Data Acquisition	Works with manual readouts, automated data loggers, and wireless systems
Installation Method	Simple placement with bolts or mounting assemblies depending on project
Long-Term Stability	Minimal drift and high repeatability under continuous load
Maintenance	Low maintenance due to rugged construction
Customization	Available in different capacities, configurations, and cable lengths based on project needs
Standards Compliance	Designed to meet international geotechnical and structural monitoring standards

Parameter	Specification
Instrument Type	Portable Tilt Meter (Electrolytic or MEMS-based)
Primary Function	Measurement of angular changes/tilt in structures, slopes, and foundations
Applications	Tunnels, dams, bridges, retaining walls, slopes, excavation support systems, research & academia
Measurement Principle	Electrolytic or MEMS sensing element converts angular tilt into electrical signal
Measurement Range	Typical ±15° or ±30° (custom ranges available)
Resolution/Sensitivity	Detects tilts as small as fractions of a degree (±0.001° or better depending on model)
Output Signal	Digital readout, analog voltage, or 4–20 mA (depending on model)
Portability	Lightweight, compact design for easy transport between multiple monitoring points
Construction Material	Corrosion-resistant aluminum or stainless steel housing for harsh environments
Temperature Range	-20°C to +70°C (custom options for extreme conditions)
Data Acquisition	Compatible with handheld readout units, automated data loggers, and wireless systems
Deployment	Quick setup without permanent installation – ideal for multi-point checks
Maintenance	Low maintenance, stable performance without frequent recalibration
Customization	Available in different sensitivities, ranges, and output formats based on project needs
Standards Compliance	Designed to meet international geotechnical and structural monitoring standards

 

Parameter	Specification
Instrument Type	Sensor Probes (Pressure, Stress, Displacement, Temperature, Vibration, Groundwater Level, etc.)
Primary Function	Detect and measure physical parameters in soil, rock, concrete, or water and transmit data to monitoring systems
Applications	Tunnels, dams, slopes, hydro projects, foundations, retaining walls, mining, research & academia
Sensing Element	Vibrating wire, piezoresistive, or strain gauge transducers depending on parameter
Measurement Principle	Converts physical changes (pressure, displacement, temperature, etc.) into electrical or vibrating wire signals
Measurement Range	Wide ranges available depending on parameter type (customizable)
Accuracy	High sensitivity with minimal error (typical ±0.1% F.S. or better depending on model)
Construction Material	Stainless steel and corrosion-resistant materials for harsh field conditions
Installation Method	Can be embedded in soil, rock, concrete, or installed in water bodies
Signal Output	Vibrating wire frequency, analog voltage, or 4–20 mA (depending on model)
Data Acquisition	Compatible with automated data loggers, telemetry systems, and wireless modules
Temperature Range	-20°C to +80°C (custom options for extreme conditions)
Maintenance	Low maintenance, stable long-term performance with minimal recalibration
Customization	Probes tailored to project-specific requirements (parameter type, range, cable length, sensor type)
Standards Compliance	Designed to meet international geotechnical and structural monitoring standards

Parameter	Specification
Instrument Type	Concrete Pressure Cell (Vibrating Wire or Hydraulic)
Primary Function	Measurement of total pressure and stress distribution within mass concrete or shotcrete linings
Applications	Dams, hydro projects, tunnels, retaining walls, bridges, foundations, nuclear facilities, R&D
Construction Material	Stainless steel plates with corrosion-resistant housing
Cell Design	Two stainless steel plates welded to form a fluid-filled chamber connected to a sensor
Measurement Principle	Fluid-filled chamber transmits pressure to a vibrating wire sensor or pressure transducer
Pressure Range	Commonly 0–3 MPa, 0–5 MPa, or custom ranges available
Plate Sizes	Multiple sizes available (typical 150 mm to 250 mm diameter or custom)
Accuracy	High sensitivity and minimal error (±0.1% F.S. or better depending on model)
Temperature Range	-20°C to +80°C (custom options available for extreme conditions)
Sensor Output	Vibrating wire frequency or analog voltage/4–20 mA (depending on model)
Installation Method	Embedded during concrete pouring or installed in shotcrete linings/foundations
Long-Term Performance	Designed for decades-long monitoring in harsh environments
Data Acquisition	Compatible with automated data loggers, remote monitoring, and telemetry systems
Maintenance	Low maintenance due to robust construction and corrosion resistance
Customization	Configurable plate size, range, sensor type, and hydraulic line length based on project needs
Standards Compliance	Meets international geotechnical and structural monitoring standards

Parameter	Specification
Instrument Type	Borehole Extensometer (Single-point, Multi-point, Digital Models Available)
Primary Function	Measurement of ground displacement/deformation within soil or rock masses
Number of Anchors	1 to 6 (customizable based on project needs)
Anchor Depth Range	Customizable per borehole depth requirements
Measurement Principle	Relative displacement between anchors and surface reference point
Measurement Range	Typically up to 100 mm (extendable with custom designs)
Accuracy	High precision with minimal error (±0.1 mm or better depending on model)
Materials	Corrosion-resistant stainless steel, reinforced rods, or cables
Reference Head Assembly	Durable head assembly for surface installation with protective housing
Data Output	Manual reading, digital readouts, or automated data logger connectivity
Real-Time Monitoring	Yes – compatible with remote monitoring and telemetry systems
Temperature Range	-20°C to +70°C (custom options available for extreme conditions)
Durability	Long-term field exposure, designed for harsh environments
Maintenance	Low maintenance due to robust construction and corrosion resistance
Applications	Tunnels, slopes, mines, dams, embankments, retaining walls, civil infrastructure projects, R&D
Standards Compliance	Manufactured to meet global geotechnical instrumentation standards
Customization	Configurations tailored to specific project requirements (depth, anchor count, installation conditions)