Resources · Operational Intelligence Library
Executive briefs, methodology papers, operational intelligence frameworks, and thermodynamic interpretation resources for thermal infrastructure environments.
Historian-derived operational intelligence for interpreting fuel and energy-intensity drift, thermal-state behaviour, radiative coupling, and thermodynamic performance across large-scale industrial thermal infrastructure — with thermal power as the deployed vertical.
Why Thermal Performance Deteriorates While The Unit Appears Stable
In many large-scale industrial thermal environments — and in thermal power most visibly — assets continue operating within apparently normal ranges while thermodynamic efficiency progressively deteriorates. This brief examines why fuel and energy intensity drift beneath stable operational conditions, and how historian-derived reconstruction of thermal-state behaviour improves visibility into the thermodynamic transfer environment between fuel input and useful output.
Heat Rate Drift — Why Thermal Performance Deteriorates While The Unit Appears Stable
PDF · A4 · YBG Global · 2025 · v1.0
Heat Rate Is An Outcome — Not A Primary Control Variable
PDF · A4 · YBG Global · 2025 · v1.0
Combustion Is Controlled. Heat Transfer Often Isn’t.
PDF · A4 · YBG Global · 2025 · v1.0
Why Identical Fuel Input Does Not Always Produce Identical Output
PDF · A4 · YBG Global · 2025 · v1.0
Best Demonstrated Performance — Using A Plant’s Own Operational History As A Thermal Performance Reference Environment
PDF · A4 · YBG Global · 2025 · v1.0
Thermal Plants Do Not Lose Performance All At Once — They Drift, Shift By Shift
PDF · A4 · YBG Global · 2025 · v1.0
Fleet Thermodynamic Intelligence — Why Small Thermal-Performance Deviations Become Material At Fleet Scale
PDF · A4 · YBG Global · 2025 · v1.0
Operational Thermodynamics Intelligence — A Historian-Derived Framework for Thermal-State Interpretation
PDF · A4 · YBG Global · 2025 · v1.0
Radiative Coupling — An Emerging Operational Variable in Thermal Power Performance
PDF · A4 · YBG Global · 2025 · v1.0
Thermal Coupling Effectiveness (TCE) — An Emerging Framework for Interpreting Fuel-to-Steam Conversion Stability
PDF · A4 · YBG Global · 2025 · v1.0
Thermal-State Reconstruction Framework — Historian-Derived Operational Thermodynamics Intelligence
PDF · A4 Landscape · 14 Slides · YBG Global · 2025 · v1.0
Historian-Derived Operational Intelligence Architecture — Deterministic Thermal-State Interpretation Framework
PDF · A4 Landscape · 15 Slides · YBG Global · 2025 · v1.0
Operational Drift Analysis — A Framework For Interpreting Progressive Thermal-Performance Deterioration
PDF · A4 Landscape · 15 Slides · YBG Global · 2025 · v1.0
YBG Operational Thermodynamics Doctrine — Methodology Framework
PDF · A4 · YBG Global · v2025.11
LNG Thermodynamics — Liquefaction, Compression-Train and Cryogenic Thermal-State Interpretation
PDF · A4 · YBG Global · 2026 · v1.0
CCS / CCUS Parasitic Energy — Capture-Loop Thermodynamics and Host-Asset Coupling
PDF · A4 · YBG Global · 2026 · v1.0
Industrial Process Heat — Refinery, Petrochemical and Industrial-Steam Thermal-Stability Interpretation
PDF · A4 · YBG Global · 2026 · v1.0
Sector Expansion · Forthcoming Doctrine
The current library reflects the deployed vertical — thermal power — where the doctrine has been most extensively proven. Forthcoming publications extend the same historian-derived interpretive framework into LNG thermodynamics, CCS / CCUS parasitic-energy interpretation, refinery and process-heater operational behaviour, industrial steam and process-heat systems, and cross-sector thermal-state interpretation beyond power generation. Each publication is engineering-reviewable, deterministic in interpretation, and intended for large-scale industrial thermal infrastructure environments.
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