Product Details
Reactors 3D Magnetic Fleld Monitoring System
DKNC Reactor Monitoring System redefines magnetic field monitoring standards through a "Sense-Analyze-Decide-Act" closed-loop architecture, delivering critical support for global power grid stability.
Key words:
Reactors 3D Magnetic Fleld Monitoring System

Hotline:
Details
GMR-Based Intelligent Magnetic Field Monitoring Solution:
This product delivers an intelligent magnetic field monitoring solution based on Giant Magnetoresistance (GMR) technology, comprising a 3-axis GMR sensor array and a global lifecycle management platform. Designed specifically for health management of critical grid assets such as power reactors, it enables:
1.Real-time 3D magnetic flux mapping (±1% accuracy)
2.Anomaly early-warning via edge intelligence
3.Full lifecycle asset analytics

Our Advantage:
1.Technical Highlights of 3D Magnetic Field Sensing Unit
1.1 High-Precision 3D Sensing
Employs orthogonal GMR sensor array (X/Y/Z-axis spacing ≤3mm) for spatial vector acquisition
Accuracy: ±0.5% FS, Resolution: 16-bit, Bandwidth: 50Hz-250Hz
Captures both steady-state & transient harmonics (complies with IEEE 519)

1.2 High-Sensitivity Fault Detection
Algorithm: Moving Average (N=5) + t-test confidence interval
Metrics: Field deviation (δ) & dispersion (D)
Early Warning Trigger: D > 5S → detects ≤5-turn inter-turn shorts in <1s
1.3 Robust Data Acquisition
2kS/s sampling via hardware timer (Tim3)
LoRa wireless transmission (ISM band) with dual-output:
▶ Hexadecimal data packets
▶ Plain-text (12 key params: Max field, variance, peak dispersion, etc.)

1.4 Non-Invasive Deployment
Live-line installable (no equipment modification)
EMI immunity: -20°C to +65°C stable operation
Commissioning time: 1/3 of conventional solutions
2. Global Online Monitoring Platform
2.1 Multi-Protocol Global Access
Supports MQTT/HTTP/Modbus
Sub-second data sync for worldwide device clusters
2.2 3D Visualization & Real-Time Monitoring
Dynamic 3D flux cloud rendering:
▶ Rotate/slice views & anomaly highlighting
Multi-dimensional analytics:
▶ Real-time X/Y/Z waveforms
▶ Historical trends & threshold dashboards
▶ Cross-device benchmarking
2.3 Intelligent Alerts & Remote Control
Tiered alarms:
STATA:
Warning: 20% baseline deviation → SMS/email
Critical: Field mutation rate > setpoint → audible/visual alerts
Remote configuration:
▶ Adjust sampling rates/alarm rules/LoRa channels
▶ Batch command deployment
2.4 Full Lifecycle Management
Digital twin integration:
▶ Asset registry (location/maintenance logs)
▶ Time-series database (1+ year retention)
Predictive maintenance:
▶ Edge-cloud analytics reduce fault location time from 4hr → 15min
3. Platform-Device Synergy Advantages
Global Device Centralized Management
Worldwide asset tracking: Geographic mapping with real-time status (online/alarm stats)
Multi-site cluster monitoring: Supports cross-timezone grid operations (e.g., concurrent management of Asia/EU substations)
Edge-Cloud Collaborative Efficiency
50% faster data processing vs. pure-cloud solutions
10,000+ device concurrency with load balancing
Security & Compatibility
AES-256 encrypted data pipelines
RBAC (Role-Based Access Control):
▶ Super Admin ▶ Regional Ops ▶ Field Technician
4. Application Scenarios & Value
Application | Critical Monitoring Targets |
Substation dry-type reactors | Inter-turn shorts, Core saturation |
Transmission line equipment | Fault current limiter degradation |
Industrial large inductors | Magnetic bias in VFD systems |
5. Core Technological Innovations
1. 3D Magnetic Field Modeling
Spatial flux reconstruction (vs. legacy 2D planar monitoring)
Precision: ±3% vector angle error (validated per IEC 61000-4-8)
2. Edge-Cloud Hybrid Architecture
Layer | Function | Benefit |
Edge | Real-time feature extraction | <5ms latency for critical alerts |
Cloud | AI-driven predictive analytics | 90%+ model accuracy |
3. Non-Invasive Deployment
Live-grid installation: Zero downtime (compatible with 110kV~1000kV)
Universal adapter kits: Fit 97% of global reactor form factors
Application of ITB & DKNC cooperation projects:
Case 1: UK ±525kV Shetland HVDC Link
Challenge: Traditional current-harmonic monitoring (IEEE C57.149) missed >40% of latent inter-turn shorts in smoothing reactors, risking €2.3M failure.
Solution: DKNC's 3D GMR sensors detected 2-turn faults via 0.3mT flux distortion analysis under 50mT EMI, triggering protection within 15ms.
Outcome: 100% fault detection (validated by DNV GL Class 1), 72-hour early warning, and zero forced outages over 18-month operation.
Case 2: Saudi NEOM 500kV Smart Substation
Challenge: Desert heat (55°C) accelerated reactor insulation decay, with manual inspections missing 35% defects.
Solution: Our edge-cloud hybrid system localized 46 hotspots via 3D thermal-magnetic coupling analytics, auto-generating SAP/EAM work orders.
Outcome: 62% OPEX reduction ($540k/year), 9-minute fault location (from 4 hours), and SEC-certified 3-day deployment vs. industry-standard 3 weeks.
Send Inquiry
We will contact you within one working day. Please pay attention to your email.
Related Solutions
A novel parallel reactor is connected to the power system in a parallel configuration to compensate for capacitive reactive power in the transmission and distribution system.
The smoothing reactor is connected in series with the DC high-voltage line, acting as both part of the converter station and a back-to-back interconnection between different
The converter reactor is located between the flexible DC converter valve and the connecting transformer. It can be installed on either the DC side or the AC side of the converter valve.