Applications & case studies

Ground and hydraulic behavior, shown in its field setting.

These cases connect distributed measurements to slopes, embankments, dams and rock masses where geology, water and spatial coverage shape the result.

Large concrete dam in its valley setting
Topography, geology and water conditions are part of every measurement.

How to read the cases

A geotechnical case is credible when the monitored mass and reference boundary are clear.

Surface movement, internal deformation and temperature can describe different mechanisms. The sensing layout must follow the expected deformation path rather than simply cover the most accessible location.

Where
Dam body, slope, embankment, borehole or rockfall zone
What
Deformation, displacement, strain and temperature
Why
Identify change, localize movement and support early warning

Field references

Six sites, each with a different movement boundary.

Three Gorges Dam01

Dam deformation

Three Gorges Dam

Long-term measurements relate local deformation and temperature response to the behavior of a major hydraulic structure.

  • Hydraulic structure
  • Long-term response
Read the case
Finland embankment dam monitoring03

Embankment behavior

Finland MS Dam

Distributed measurements preserve the spatial relationship between the sensing line and the dam cross-section.

  • Embankment
  • Spatial deformation
Read the case
Nansha riverbank monitoring04

Riverbank displacement

Nansha Embankment

Monitoring along the embankment records how deformation varies across a long and environmentally exposed boundary.

  • Riverbank
  • Longitudinal coverage
Read the case
Wushan rockfall monitoring site05

Rock-mass instability

Wushan Rockfall

Sensing coverage is aligned with the expected movement zone to support event localization and warning.

  • Rockfall zone
  • Event localization
Read the case
Bazimen landslide monitoring06

Automated slope monitoring

Bazimen Landslide

Continuous records connect changing ground response to location and time rather than treating the slope as one point.

  • Automated record
  • Time & position
Read the case
Slope displacement monitoring field context
Ground displacement monitoring in Chongqing.

Evidence example

The cross-section gives displacement data its geological meaning.

For slopes and embankments, a measured change must be interpreted against depth, material boundaries and the anticipated movement surface. The installation geometry is therefore part of the evidence.

Depth
Movement profile
Geology
Boundary context
Time
Change history
Open the field case

Related monitoring approach

Need the monitoring logic behind dams and slopes?

The geohazard solution links expected movement mechanisms to sensing direction, spatial coverage and warning logic.

Explore the solution

Discuss a monitoring requirement

Bring the section, geological boundary and expected movement mode.

These inputs define where a sensing line can provide meaningful evidence.

Talk to an engineer