Centralizes energy data into an AI-powered OS for cheaper, more reliable electricity at scale.
Using time-series demand forecasting, reinforcement learning for energy hedging and procurement, and anomaly detection for grid fault prediction.

Energy & Utilities
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Energy Management Software
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YC W26

Last Updated:
March 20, 2026

AI-powered Energy Operating System that centralizes consumption, market, contract, and regulatory data to enable reliable, cheap, and sustainable electricity supply for large commercial/industrial customers and data centers.
AI-driven procurement optimization, real-time consumption analytics, sustainability tracking. Targeting C&I clients and data centers.
Focus on data centers hints at AI-infrastructure power optimization. 'Energy OS' framing suggests ambitions beyond procurement into DERMS, virtual power plants, and automated flexibility market participation.
<p>Uses time-series machine learning models to predict electricity demand for large C&I customers and data centers, enabling proactive procurement and load management.</p>
It's like a weather forecast for your electricity bill—predicting exactly how much power you'll need so you never overpay.
Condor Energy's demand forecasting engine ingests historical consumption data, weather feeds, occupancy schedules, and real-time market pricing to generate granular load predictions for each client facility. The system employs ensemble time-series models—combining LSTM neural networks for capturing long-range temporal dependencies with gradient-boosted trees (XGBoost/LightGBM) for feature-rich short-term predictions—to produce probabilistic demand forecasts at 15-minute to 72-hour horizons. These forecasts feed directly into the Energy OS procurement module, which automatically adjusts forward contract positions, triggers demand response events, and shifts flexible loads to lower-cost periods. For data center clients, the system accounts for compute workload variability and cooling demand, creating facility-specific models that improve over time via online learning. The result is a closed-loop system where prediction accuracy directly translates to measurable cost savings and reduced carbon intensity.
It's like having a personal shopper who knows exactly how hungry you'll be all week, so they buy just the right amount of groceries and never let anything go to waste.
<p>Applies reinforcement learning and portfolio optimization algorithms to dynamically hedge energy procurement contracts, minimizing cost and volatility exposure for large consumers.</p>
It's like an AI stock trader for your electricity contracts—constantly rebalancing your energy portfolio so you get the best price with the least risk.
Condor Energy's procurement optimization module treats energy purchasing as a dynamic portfolio problem. The system continuously monitors wholesale market prices, forward curves, contract terms, regulatory changes, and each client's forecasted demand profile to recommend—and in automated mode, execute—optimal hedging strategies. At its core, the engine uses a reinforcement learning agent trained on historical market simulations to learn optimal buy/hold/sell timing for energy contracts across multiple time horizons. This is augmented by Monte Carlo simulation for scenario analysis and mean-variance optimization (Markowitz-style) adapted for energy portfolios. The RL agent adapts to each client's risk tolerance, sustainability targets, and contractual constraints, continuously improving its policy as new market data arrives. For clients with on-site generation or storage, the system co-optimizes self-consumption vs. grid procurement vs. market sales, creating a unified financial optimization layer. The result is a hands-off, intelligent procurement engine that outperforms static contract strategies and manual energy broker decisions.
It's like having a poker-playing AI manage your energy budget—it reads the market's bluffs, knows when to hold, and always plays the odds in your favor.
<p>Deploys unsupervised and semi-supervised ML models to detect anomalies in energy consumption patterns and predict equipment or grid faults before they cause outages or cost overruns.</p>
It's like a smoke detector for your power system—catching tiny warning signs before they turn into expensive outages.
Condor Energy's anomaly detection system continuously monitors high-frequency consumption data, power quality metrics, and equipment telemetry from client facilities to identify deviations from expected behavior in real time. The system uses a combination of autoencoders (for learning normal consumption patterns and flagging deviations), isolation forests (for detecting multivariate outliers in operational data), and temporal convolutional networks (for capturing sequential fault signatures). When an anomaly is detected, the platform classifies it—distinguishing between benign operational changes (e.g., new equipment coming online), billing errors, energy theft, and genuine equipment degradation or grid faults. For predicted faults, the system generates severity-ranked alerts with recommended actions, integrating with client maintenance and operations workflows. Over time, the models are fine-tuned with client-specific labeled data via active learning, where operators confirm or reject flagged anomalies to continuously improve precision. For data center clients, this capability is critical: even brief power quality events can cascade into compute outages, making early detection a high-value reliability feature that differentiates Condor Energy's platform.
It's like having a doctor who monitors your building's vital signs 24/7 and calls you before you even feel sick—saving you from the emergency room bill.
Unified, AI-native platform architecture treats energy management as a software problem rather than a consulting engagement, enabling faster iteration and scalable automation compared to legacy energy advisory firms.