RH Grid Analytics / EST. 2024 · Smart Grid Intelligence

Big data
for the modern &
resilient power grid.

We apply large-scale data infrastructure and machine learning to the most complex signals in energy — smart meters, PMUs, SCADA telemetry, and grid-edge IoT — transforming raw measurement into operational insight for a cleaner, more reliable electric future.

Data Streams
47sources
Latency Target
<100ms
Sampling Rate
30Hz PMU
Research Areas
12+

Three disciplines. One mission: making the grid legible to those who operate it.

[ 01 ]

Literature Synthesis

Structured summaries of academic research and industry literature on big data frameworks — Hadoop, Kafka, Flink, Spark Streaming — applied to power system operations.

Hadoop Kafka Flink Spark
[ 02 ]

Analytical Reports

Comparative studies of data pipeline architectures for load forecasting, fault detection, and predictive maintenance of transformers and transmission assets.

Forecasting Anomaly Maintenance
[ 03 ]

ML Workflows

Reference code and pseudocode for smart meter preprocessing, feature engineering, and machine learning pipelines — from consumption clustering to anomaly detection.

Preprocessing Clustering Detection

Grounded in production-grade infrastructure.

Ingestion
Apache Kafka
Stream
Apache Flink
Batch
Apache Spark
Storage
HDFS / S3
Time Series
InfluxDB
Orchestration
Airflow
ML Platform
MLflow
Compute
K8s / Ray
Reference Pipeline — Smart Meter → Insight
STREAMING
01 · Ingest
PMU / AMI
02 · Buffer
Kafka
03 · Process
Flink
04 · Model
Spark ML
05 · Serve
API / Dash

We treat the grid as what it actually is — a continuous, measurement-dense physical system.

Modern smart grids generate unprecedented volumes of heterogeneous data: synchrophasors at 30–60 samples per second, AMI readings every fifteen minutes, SCADA telemetry, weather overlays, and streaming feedback from distributed energy resources across millions of endpoints.

Rongheng Grid Analytics focuses on the infrastructure and methods that make this data usable — not as a dashboard, but as operational intelligence feeding forecasts, fault diagnostics, and long-horizon planning for a decarbonizing power system.

Our work sits at the intersection of distributed systems engineering, time-series analytics, and applied machine learning, informed by a deep respect for the physics and economics of the electricity grid.

→ 01
Measurement first
Signal integrity and observability before any model. Bad data produces confident wrong answers.
→ 02
Open by default
Published methods, reproducible workflows, open-source foundations wherever operationally viable.
→ 03
Privacy as architecture
Federated learning, edge processing, and differential privacy engineered in — not bolted on.
→ 04
Physics-aware ML
Models that respect Kirchhoff's laws, thermal limits, and the operational realities of balancing authorities.
Data
Governance
All inputs to our research systems are drawn from publicly available information and synthetic datasets. We process no personally identifiable information, no proprietary utility data, and no third-party intellectual property. Output is used strictly for internal research and development.

Where we're looking next.

FEDERATED LEARNING

Privacy-preserving analytics across utility boundaries

Training forecast and detection models across data silos without exposing raw measurements between operators.

EDGE COMPUTE

Sub-cycle decisions at the grid edge

Low-latency inference on substation and feeder hardware for protection, islanding, and local control.

DIGITAL TWINS

Simulation frameworks for renewable integration

Co-simulation of physical grid behavior with stochastic generation to stress-test operating envelopes.