AI Smart Grid Intelligent Power Network System

We design and deploy artificial intelligence systems: from prototype to production-ready solutions. Our team combines expertise in machine learning, data engineering and MLOps to make AI work not in the lab, but in real business.
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AI Smart Grid Intelligent Power Network System
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Development of the Smart Grid AI system

The Smart Grid transforms the power grid from a unidirectional system (from generator to consumer) into a bidirectional interactive system. AI manages balancing, prevents accidents, and optimizes power flows in real time.

Intelligent Metering and Analytics (AMI)

Advanced Metering Infrastructure:

Smart meters (ASKUE) transmit readings every 15–30 minutes. For a network of 1 million meters - 2–4 million measurements per hour. ML on this thread:

Non-Technical Loss (NTL) Detection – identifying electricity theft:

import numpy as np
import pandas as pd
from sklearn.ensemble import IsolationForest, RandomForestClassifier

class NTLDetector:
    """Выявление нетехнических потерь (хищений) по данным smart-счётчиков"""

    def extract_features(self, meter_data, window_days=90):
        """
        meter_data: 15-минутные показания счётчика за 90 дней
        """
        df = meter_data.copy()
        df['hour'] = df.index.hour
        df['dayofweek'] = df.index.dayofweek

        features = {
            # Паттерны потребления
            'avg_consumption': df['kwh'].mean(),
            'std_consumption': df['kwh'].std(),
            'night_to_day_ratio': (df[df['hour'].between(1,5)]['kwh'].mean() /
                                   (df[df['hour'].between(9,17)]['kwh'].mean() + 1e-6)),

            # Аномальные признаки хищения
            'zero_consumption_days': (df.resample('D')['kwh'].sum() < 0.1).sum(),
            'sudden_drop': self._detect_sudden_drop(df['kwh']),
            'meter_bypass_indicator': self._check_phase_imbalance(df),

            # Корреляция с соседями (anomaly relative to cluster)
            'vs_cluster_zscore': 0  # заполняется при сравнении с кластером
        }
        return features

    def _detect_sudden_drop(self, consumption_series):
        """Резкое падение потребления = возможное обходное подключение"""
        monthly = consumption_series.resample('M').sum()
        if len(monthly) < 3:
            return 0
        recent_drop = (monthly.iloc[-1] / (monthly.iloc[:-1].mean() + 1e-6))
        return float(recent_drop < 0.5)  # упало более чем вдвое

Load Disaggregation (NILM):

From the overall consumption profile, identify the inclusion of specific devices: - Electric boiler: characteristic step-change in load (3–6 kW) - Washing machine: cyclic pattern 1–2 hours - EV charging: flat load 7–22 kW for 4–8 hours

Application: Understanding demand structure for Demand Response management.

Optimization of Power Flows (OPF)

Optimal Power Flow:

The OPF task is to control generators and compensating devices to minimize losses while maintaining constraints (currents, voltages, powers):

  • Classic OPF: Interior Point Method (MATPOWER, PowerModels.jl) - ML-OPF: neural network trained on thousands of OPF solutions → predicting near-optimal solutions in milliseconds (for RT balancing)
import torch
import torch.nn as nn

class NeuralOPF(nn.Module):
    """
    Нейросетевое приближение решения OPF для Real-Time управления.
    Вход: вектор нагрузок по узлам (P, Q) → Выход: уставки генераторов
    """
    def __init__(self, n_buses, n_generators):
        super().__init__()
        self.net = nn.Sequential(
            nn.Linear(n_buses * 2, 512),
            nn.LayerNorm(512), nn.ReLU(),
            nn.Linear(512, 256),
            nn.LayerNorm(256), nn.ReLU(),
            nn.Linear(256, 128), nn.ReLU(),
            nn.Linear(128, n_generators * 2)  # P_gen, Q_gen для каждого генератора
        )

    def forward(self, load_profile):
        return self.net(load_profile)

Voltage and reactive power control

Volt/VAR Optimization (VVO):

Maintaining voltage in the range of 0.95–1.05 pu across all grid nodes is a key task for distribution networks with renewable energy sources. With high solar generation, overvoltage in distribution networks can occur due to: - Control of OLTC (On-Load Tap Changers) of transformers - Reactive power of solar power plant inverters (Q-capability) - Voltage regulators (capacitor banks, SVRs)

The RL agent controls all VVO devices in real time: reward = loss minimization + penalty for exceeding voltage limits.

Microgrid Management

Autonomous Microgrid:

Industrial microgrid (factory or campus) with its own sources (PVS + DGU + BESS): - Island mode: when disconnected from the main grid, balancing is performed within the microgrid - MPC: within 5–15 minutes, the horizon decides how much power to take from the grid, BESS, DGU - Cost optimization: night/day tariff + peak power charge

Energy Sharing (P2P trading):

Direct electricity trading between prosumers (producer + consumer): - Blockchain for settlements (Ethereum, Hyperledger) - Double-Auction mechanism + ML forecast of generation/consumption - Pilot projects are already operating in Germany and Australia

Smart Grid Cybersecurity

ICS/SCADA security:

MITRE ATT&CK for ICS — a library of attacks on industrial systems: - Anomaly detection: atypical SCADA commands → ML Isolation Forest - FDI (False Data Injection) attack detection: faking sensor readings - Network segmentation: OT/IT separation + traffic monitoring

Development time: 8-14 months for a full-fledged Smart Grid AI platform with AMI analytics, OPF, VVO, and Microgrid management.