AQE Projects

PROJECT
USE CASE : Machine Learning Powered Trading Optimization for Power & Gas Markets.
We engineer and refine, and you retain full ownership.
OVERVIEW
Designed and deployed AI-driven trading algorithms for ERCOT, CAISO, PJM, and AESO to optimize power and gas trading strategies. Leveraged ETRM and ISO market data to enhance decision-making, risk management, and market execution.
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Traditional power and gas trading relies on manual analysis, historical trends, and static models, leading to:
Suboptimal trading decisions due to market volatility and dynamic pricing.
Inefficient risk management, resulting in exposure to price fluctuations.
Limited scalability, enable traders to do what they are best with multiple nodal strategies via augmentation.
Delayed decision-making, impacting profitability in fast-moving markets.
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Implemented an AI-powered trading system that integrates real-time market data, predictive analytics, and 90% automated backtesting to optimize trading strategies.
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Connected to ETRM and market APIs for real-time data collection.
Deployed a data lake architecture on Azure for structured and unstructured data storage.
Leveraged Snowflake & Databricks for scalable ETL and historical data processing.
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Built machine learning models for price forecasting, volatility prediction, and bid optimization.
Used deep reinforcement learning algorithms to simulate and optimize trading strategies.
Implemented real-time anomaly detection to flag irregular market conditions.
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Integrated AI-driven signals with ETRM and CTRM systems for VaR simulations.
Deployed Power BI dashboards for real-time market insights and P&L tracking.
Ensured compliance and risk mitigation through analytics based position monitoring.
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Hosted on Azure Kubernetes Services (AKS) for high availability and low-latency execution.
Used Databricks for distributed computing, reducing model training time by 65%.
Enabled real-time analytics using Snowflake, improving data query speed by 80%.
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Reduced Market Exposure: Analytics-driven hedging strategies decreased risk exposure by 30%, ensuring optimal portfolio balance.
Enhanced Volatility Management: Predictive models improved price volatility forecasting accuracy by 85%, allowing for proactive risk adjustments.
Automated Position Limits: AI-enforced compliance rules ensured position limits were never exceeded, reducing regulatory risk incidents by 40%.
Real-Time Stress Testing: End-of-day simulated market fluctuations, ensuring portfolio resilience against high-impact market shocks.
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Increased Trading Profitability: Analytics-driven decision-making improved trade execution efficiency by 30%, maximizing profit margins.
Reduced Risk Exposure: Automated risk analysis reporting minimized loss potential by 25%.
Enhanced Market Responsiveness: Reduced trade execution time from minutes to seconds, capitalizing on price fluctuations.
Operational Efficiency: Reduced manual intervention by 40%, allowing traders to focus on strategy rather than evaluation.
Scalability & Flexibility: Cloud-based architecture allowed seamless scaling across multiple ISOs.
PROJECT
USE CASE : Real-Time Command Center & Analytics for LNG Operations.
We develop, optimize, and put full control in your hands.
OVERVIEW
Developed a real-time command center and analytics platform for LNG commercial and operations teams, integrating PI, SCADA, and market data (Henry Hub, JKM, TTF) to enhance decision-making, risk management, and operational efficiency.
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Traditional LNG operations often face challenges such as:
Limited real-time visibility, leading to delayed responses in market and operational changes.
Inefficient data integration, requiring manual reconciliation of SCADA, PI, and external market data.
Suboptimal commercial strategies, due to a lack of real-time analytics on pricing, demand, and logistics.
High operational risk, stemming from fluctuating LNG market conditions and infrastructure constraints.
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Designed and implemented a centralized command center powered by real-time analytics, automated workflows, and AI-driven insights to optimize LNG operations.
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Connected PI & SCADA systems for real-time LNG plant and pipeline monitoring.
Integrated Henry Hub, JKM, and TTF market data to align trading and operational strategies.
Unified data storage using Snowflake, ensuring high-speed access and analytics scalability.
Developed a Databricks-driven ETL pipeline, automating data ingestion and transformation.
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Built forecasting models for LNG pricing, supply, and demand across key markets.
Deployed real-time anomaly detection to flag potential infrastructure issues and market risks.
Developed automated P&L tracking dashboards in Power BI, enabling real-time decision-making.
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Designed a real-time operational dashboard, allowing teams to monitor vessel movements, inventory levels, and plant performance.
Automated risk analysis and scenario modeling, enabling proactive responses to supply / demand fluctuations.
Integrated SCADA alerts and AI-driven recommendations, reducing downtime and optimizing throughput.
Built customized alerting systems, providing early warnings for price volatility and operations.
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Improved Market Responsiveness: Analytics-driven insights reduced response time to price fluctuations by 50%.
Operational Downtime Reduction: Predictive maintenance and anomaly detection decreased unexpected downtime by 30%.
Enhanced Trade Optimization: Real-time market integration improved LNG trade execution efficiency by 25%.
Lower Risk Exposure: Automated risk analytics reduced financial exposure to market fluctuations by 40%.
Faster Decision-Making: Command center enabled commercial teams to act on market shifts in real-time, improving profitability.
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Higher Profit Margins: Enhanced pricing strategies improved trading profits by 20%.
Optimized LNG Logistics: Automated scheduling reduced demurrage costs and improved supply chain efficiency.
Data-Driven Decision Making: Real-time analytics and dashboards eliminated reliance on manual reports, improving efficiency by 35%.
Scalability & Flexibility: Cloud-based architecture allowed seamless integration with new LNG terminals and trading markets.
PROJECT
USE CASE : Adaptive Commercial Model for Combined Cycle Gas Turbine (CCGT) Power Plants.
Expertly crafted, effortlessly managed, to fit your OT needs.
OVERVIEW
Led the development of a machine learning-driven SCADA alerting system and P&L Spark Spread Models to optimize asset monitoring and financial performance for CCGT power plants. Leveraged PI, SCADA, Databricks, Power BI, and React to enhance operational efficiency, real-time analytics, and profitability.
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Traditional CCGT operations face several key challenges:
Unoptimized asset performance, leading to inefficiencies in power generation and fuel consumption.
Limited real-time monitoring, increasing downtime and reducing plant availability.
Lack of advanced financial modeling makes optimizing power trading and dispatch decisions difficult.
Reactive maintenance practices, causing higher operational costs and unexpected outages.
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Designed and implemented an analytics powered system that integrates real-time operational monitoring, predictive analytics, and financial modeling to optimize CCGT operations.
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Connected SCADA & PI to ingest live turbine and system performance metrics.
Integrated market and fuel pricing data to dynamically calculate spark spreads.
Leveraged Databricks for scalable data transformation and analytics processing.
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Developed near real-time alerting system to detect anomalies and potential failures.
Implemented machine learning models for predictive maintenance and asset reliability forecasting.
Built automated efficiency monitoring to adjust turbine performance parameters in real-time.
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Developed dynamic Spark Spread Models that optimize dispatch decisions based on fuel costs and electricity pricing.
Built Power BI dashboards to visualize profitability, efficiency trends, and real-time financial performance.
Automated profitability simulations for better decision-making on plant operations.
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Built a React-based web application for operators to monitor performance, receive AI-driven alerts, and track financial KPIs.
Implemented customized alerting and reporting, allowing proactive management of power generation assets.
Enabled mobile accessibility, allowing plant managers to make real-time decisions on the go.
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Reduced Unplanned Downtime: Predictive maintenance reduced turbine failures by 35%.
Optimized Fuel Efficiency: Machine learning-driven tuning improves heat rate efficiency by 5%, lowering fuel costs.
Improved Market Responsiveness: Spark spread models enabled optimized dispatch strategies, increasing revenue by 20%.
Automated Risk Alerts: anomaly detection reduced unplanned operational risks by 15%.
Enhanced Operational Transparency: Real-time monitoring decreased response time to performance issues by 50%.
Faster Decision-Making: Integrated financial analytics allowed traders to adjust strategies within an hour during forced outage.
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Higher Profit Margins: Improved trading and dispatch efficiency increased annual profits by 15%.
Lower Maintenance Costs: AI-driven asset monitoring reduced maintenance expenses by 10%.
Enhanced Grid Participation: Real-time optimization improved participation in energy markets, securing more favorable contracts.
Scalability & Flexibility: Cloud-based architecture enabled seamless expansion to additional power plant assets.
