Dongling MonitoringIntegrated Testing / Sensing / Monitoring
Dam and urban structural monitoring sites, Asia

Dam and Urban Structural Response Monitoring

A seismic monitoring case group covering dam strong-motion arrays, earthquake intensity review, automatic event reports, GNSS deformation logic, and remote network transmission.

Project Type

Civil Infrastructure Structural Monitoring

System Scale

dam strong-motion arrays, free-field stations, remote transmission, and city-level seismic data review

Data Output

earthquake event waveform, intensity, peak acceleration, displacement, duration, station status, GNSS deformation trend, and automatic reports

Engineering Value

How the system supported engineering decisions

The case strengthens DL-SE positioning without adding any new public product family.

Dam strong-motion monitoring and city seismic network workflows are expressed as event detection, reporting, and remote station management capabilities.

GNSS plus acceleration context supports broader seismic and deformation safety interpretation.

Monitoring Content

Monitoring scope and field constraints addressed by the deployment

Dam structures required measurement points at crest, gallery, foundation, free-field, and key structural sections.

Earthquake events required automatic trigger, event file storage, intensity calculation, peak acceleration review, displacement calculation, and report generation.

Remote station networks needed reliable timing, data transmission, station health review, and integration with GNSS or deformation monitoring logic.

System Configuration

Configured system architecture and data path

Hydropower dam monitoring environment

Field Devices

DL-VIB strong-motion and seismic instruments, DL-GN displacement stations, and field timing or communication devices

Communication Layer

Ethernet, fiber, 4G, or station network transmission from dam and free-field points to the monitoring center

Central Platform

DL seismic monitoring platform for event trigger, waveform review, automatic reports, alarms, and station health management

Case Visual Evidence

Source visuals and deployment references

Hydropower station field site

Hydropower station field site

The monitoring system is deployed around dam galleries, plant structures, and protected field stations where event data is transmitted back to the monitoring center.

Strong-motion sensor mounted on concrete base

Strong-motion sensor mounted on concrete base

A protected accelerometer installation captures structural response at dam or gallery measurement points.

Triaxial force-balance accelerometer station

Triaxial force-balance accelerometer station

Three-component acceleration measurement supports earthquake waveform, peak acceleration, displacement, and duration analysis.

Protected free-field or reference station

Protected free-field or reference station

Field stations provide reference ground motion data for comparison with dam crest, gallery, foundation, and structural response points.

Outdoor protection frame for field instrumentation

Outdoor protection frame for field instrumentation

Protective rails and barriers keep outdoor seismic instruments and cabling stable in exposed hydropower station environments.

Monitoring center acquisition racks

Monitoring center acquisition racks

Centralized racks receive multi-point strong-motion data and support event trigger, station status review, alarm delivery, and report generation.

Cabinet-mounted data acquisition unit

Cabinet-mounted data acquisition unit

Rack-mounted acquisition equipment links field accelerometers to the engineering seismic monitoring platform.

On-site installation inside dam structure

On-site installation inside dam structure

Gallery-side installation work covers sensor fixing, cable routing, and protected wiring for long-term strong-motion monitoring.

Cable routing in gallery and service area

Cable routing in gallery and service area

Vertical routing and protected conduits connect structural measurement points to acquisition cabinets and the monitoring center.

Sensor Deployment

Sensor layout and measurement purpose

Dam crest and galleries

DL-VIB strong-motion instruments

Capture structural response at dam crest, downstream face, gallery, and key elevations

Free-field reference station

DL-VIB seismic monitoring instruments

Record input ground motion for structural response comparison

GNSS or deformation stations

DL-GN displacement systems

Provide deformation trend context for seismic safety review

Seismic monitoring center

DL-SYS-001

Receive remote data, identify events, generate reports, and distribute alarms

Seismic and GNSS field data to DL acquisition or station instruments, instruments to platform, platform to event report and emergency review

Data Analysis Results

Monitoring indicators and interpretation

Trend output

Strong-motion array

multi-point dam response records

Operators could compare crest, gallery, foundation, and free-field motion during seismic events.

Event reporting

automatic earthquake report workflow

Triggered records supported rapid review of intensity, peak acceleration, displacement, and duration.

Network transmission

remote station data centralized

Monitoring teams could review station state, event data, and long-term trends from one platform.

Engineering Credibility

Reliability, topology, and project validation

99.98%

target data availability

IP67/68

field protection classes

4G/Fiber

site transmission options

RFQ

project-based configuration

Measurement planning

Monitoring object, measurement range, sampling rate, and signal type guide project configuration.

Communication options

DL systems support project configurations using wired, wireless, GNSS, and gateway-based communication methods.

Documentation support

Datasheets and technical selection information are available upon request for RFQ preparation.

Product selection should be confirmed against site conditions, measurement points, installation environment, and expected data output.

Structured RFQ Path

Request path for Civil Infrastructure Structural Monitoring Project

Step 1

Define Data Nodes

Sensor, wireless node, GNSS station, seismic unit, or DAQ field layer.

Step 2

Configure Network

Civil infrastructure, industrial equipment, heritage, seismic, or research monitoring chain.

Step 3

Build RFQ Scope

Asset type, measurement points, channels, sampling rate, communication, environment, and duration.

Step 4

Review Proposal

Receive system architecture, product configuration, data output, and engineering review structure.

Project Overview

Engineering context and monitoring scope

Dam and urban seismic projects require synchronized strong-motion data, free-field reference points, event-triggered records, and automatic engineering reports after earthquake events. Source deployments include hydropower dams with six to fourteen strong-motion points, reservoir and hydropower station monitoring, and city network style remote transmission workflows.

Client type

Dam owner, earthquake monitoring authority, and infrastructure safety team

System scale

dam strong-motion arrays, free-field stations, remote transmission, and city-level seismic data review

Project type

Civil Infrastructure Structural Monitoring