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Pascal Stabat

Pascal Stabat

Professor

Center · CEEP

Discipline(s)
Energy, Thermal Sciences
Topic(s)
Adaptation, Geothermal, Grid/Network, Renewable Energy, Scenario-Modelling, Sustainable Development

Biography

Pascal Stabat is a researcher specializing in the fields of building energy efficiency, heating and cooling systems, and electric mobility. His work focuses on energy modeling of buildings and urban networks, with a particular emphasis on methods for optimizing and calibrating models to improve system performance. His research also addresses challenges related to the decarbonization of buildings, particularly through the electrification of heating and cooling systems, the integration of renewable energy, and the optimization of charging infrastructure for electric buses. Pascal Stabat has helped develop innovative approaches to evaluating energy performance, such as the use of bottom-up models to simulate high-resolution load curves and the analysis of the impacts of flexibility strategies on electric grids. His work draws on advanced simulation tools—such as EnergyPlus, Modelica, and optimization algorithms like dynamic programming—to propose operational solutions tailored to the challenges of the energy transition.

Publication(s)

Teaching

Energy Engineering

Course Director

In-person instruction is structured around plenary sessions in the lecture hall and small-group tutorials (PC) with fewer students. The 14-hour independent study component includes the following activities: Self-assessment multiple-choice quiz to be completed before class (30 min). If students have difficulty answering the questions, they are directed to online course review materials. 1 mini project in energy engineering to be completed in pairs (performance analysis of cycles using COOLPROP software or sizing an energy system) (7.5 hours) Review of course material before the exam (6 hours)

Energy Systems

Lecturer

The energy systems covered are as follows: - Gas turbines - Thermal power plants - Internal combustion engines - Aircraft engines - Cogeneration systems - Combined-cycle systems - Receiver cycles The detailed course syllabus is provided in the course schedule section.

Heat Transfer

Course Director

Energy balances, equilibrium temperature, steady-state conduction (planar or cylindrical), resistance networks, overall heat transfer coefficient; Fundamentals of thermal radiation: introduction to the geometric and spectral aspects of radiation, blackbody, Stefan’s law, Wien’s law, Formulas for mutual radiation between black or gray surfaces for simple geometries, linearization (introduction of a radiative transfer coefficient) Convection: Natural/forced, indoor/outdoor

Heat and Mass Transfer

Course Director

Transient Heat Conduction. Heat Equation in Transient Conditions Isothermal Block Model Semi-Infinite Wall Model: Heat Diffusion Convection—General Concepts: Balance Equations, Boundary Layer Concepts, Dimensionless Analysis, Dimensionless Numbers. Internal forced convection: application to pipe flow. Heat balance with forced flow or forced temperature. Determination of the steady-state heat transfer coefficient for laminar and turbulent flows. Inlet regions. Pressure drops. Radiation: Luminance, emittance, irradiance, intensity; Blackbody laws Properties of real bodies—common assumptions Radiative heat transfer between surfaces: Calculation of shape factors, radiosity method, linearization Analysis of phenomena in semi-transparent media (Radiative Transfer Equation) Heat Exchangers: Efficiency, modifications to efficiency, limitations of the DTLM method; application to unconventional heat exchangers Mass Transfer—dimensional analysis, application to mass transfer phenomena.

Energy Efficiency of Systems (Research Quarter)

Lecturer

Thematic Course Content (Week of November 27–December 1) Introduction: Background, Challenges, and Objectives of Energy Efficiency in Systems Energy Efficiency in Transportation Energy Efficiency in Industry Energy Efficiency in Buildings Urban Energy Modeling Heat conversion and thermodynamic systems District heating networks CO2 capture and utilization Presentations of individual assignments and conclusions 2. Individual Assignments Each student must conduct a literature review on a topic of their choice related to energy efficiency and then present this work orally. Two half-days of class will be devoted to library research training (instructor: Sylvain MÉTAFIOT). 3. Seminar The seminar will complement the thematic course by offering two days of field visits, allowing students to see firsthand how energy efficiency is implemented in the field. Each student will be assigned to a research group and will work for two months on a topic of their choice, from December 4 to February 9.

Réseaux de chaleur et de froid pour la transition énergétique

2025 Course Director

Semaine européenne ATHENS Contexte, dimensionnement des réseaux, Technologies de production de chaud et de froid, Générations de Réseaux Projet d'installation de réseau

PhD supervision

  • 2026 Optimization of temperature water loop regulation in a context of evolving building needs and increased electrical flexibility GELPE Tinael
  • 2025 Local modeling of electrical loads in consumption and production for the sizing of distribution network assets COLIN Grégoire
  • 2024 Dynamic integration of human behaviors within households for the scenarization of the energy and climate transition in the residential sector MOUSSAWEL Mona
  • 2024 Development of decision support methods for territorial planning of energy networks LE BOZEC Azilis
  • 2023 Modeling of building and electric vehicle usage for the design of city-scale microgrids LE Ngo Thanh Danh
  • 2023 Physical and dynamic model for optimizing the operation of urban district heating networks IRAQI Allan
  • 2023 Models and tools for developing micro heat networks in rural areas FONTENAILLE Théodore
  • 2022 Design rules for internal architecture optimizing natural ventilation for housing renovation in tropical environments RIOU Brieg
  • 2022 Analysis of the sizing of heat pumps for water-based emitters in the renovation of housing for winter and summer comfort GUILBAUD Nathan
  • 2021 Optimal control of residential heat pumps for grid flexibility RENTE Nicolas
  • 2021 Integration of heatwave vulnerability into home renovation TANCHOU Marie
  • 2020 Evaluation of electrification scenarios for thermal uses on the residential sector's electricity load curve MOREAU Valentin
  • 2018 Energy Management Strategies for Battery Electric Bus Fleets BASMA Hussein
  • 2018 Modeling for the design assistance of new architectures for heating and cooling networks PATUREAU Rémi
  • 2018 Construction of a method for defect detection and automatic performance diagnosis of buildings with limited measured data CERBELAUD Thomas
  • 2017 Development of performance indicators and fault detection in district heating networks as part of an optimization approach to their management FABRE Antoine
  • 2017 Modeling for monitoring and improving the energy performance of neighborhoods MARTY-JOURJON Victor