AI Approach

DogwoodAI applies the most suitable machine learning technologies tailored to each client’s needs and plant conditions, developing AI solutions through a range of foundational approaches described below, that support the realization of autonomous manufacturing.

Tailor-made AI Technology

About

Our tailor-made AI technology is specifically developed to address the unique needs of clients under the domain understandings of client data in the industrial sector. It is optimized to utilize real-time data from a wide range of sensors (RTDB) installed in chemical plants.

Features

  • Processes and analyzes large volumes of field-generated data
  • Predicts multiple product qualities simultaneously
  • Customizable for different industrial applications

Benefits

  • Enables precise predictions tailored to the specific production environments of manufacturing, refining, and chemical plants
  • Improves operational efficiency by utilizing actual plant data
  • Enhances product quality and consistency

Case

Korean oil & fine chemical companies successfully completed a 3-6 months field test, validating the solution’s reliability in a real operational environment.

UI Platform for Tailor-made ML for HCR

Real data-based AI Technology

About

This technology focuses on analyzing real-time operational data collected directly from manufacturing plants to provide immediate, actionable insights.

Features

  • Monitors and analyzes real-time sensor data
  • Predicts key process variables such as product yield and quality
  • Outperforms traditional platform-based AI in industrial environments

Benefits

  • Provides higher prediction accuracy using actual data
  • Supports real-time process control and optimization
  • Enhances safety and productivity in manufacturing settings

Model-driven AI Technology

About

Model-based AI leverages first-principle mathematical equations to simulate industrial processes and generate high-quality data for training AI models.

Features

  • Creates dynamic models based on governing equations
  • Generates synthetic data and conducts sensitivity analyses
  • Validates models using real-world measurements

Benefits

  • Enables AI development in data-scarce environments
  • Reduces dependency on large-scale historical datasets
  • Offers scalable modeling for complex integrated processes

Case

Successfully developed and validated a dynamic AI model for an integrated hydrogen production process, enabling efficient hydrogen recovery and CO₂ capture from steam methane reforming tail gas.

Physics-driven AI Technology

About

Physics-based AI technology combines scientific theory with AI, especially in cases where field data is insufficient for traditional data- based approaches.

Features

  • Integrates physicochemical theory with big data AI algorithms
  • Predicts beyond actual operating ranges
  • Generates consistent, theoretically grounded data

Benefits

  • Enables solution development in data-limited industrial environments
  • Supports future performance forecasting with enhanced reliability
  • Reduces risks associated with data insufficiency

Prediction of solubility in electrochemical solutions through Physics-based ML Solution