Implementation of MPC for an all-air system in an educational building

被引:0
|
作者
Merema, Bart [1 ]
Carton, Quinten [1 ]
Saelens, Dirk [2 ,3 ]
Breesch, Hilde [1 ]
机构
[1] Katholieke Univ Leuven, Dept Civil Engn Bldg Phys & Sustainable Design, Ghent Technol Campus, Leuven, Belgium
[2] Katholieke Univ Leuven, Dept Civil Engn, Bldg Phys, Leuven, Belgium
[3] Energyville, Genk, Belgium
来源
关键词
MODEL-PREDICTIVE CONTROL;
D O I
10.1051/e3sconf/202124611007
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
The building sector has to significantly reduce the total energy use. A predictive control could be a solution to control an HVAC system more energy efficiently since it takes into account the current measurements and the future demand In this study a predictive control framework is implemented in an educational building with two lecture rooms. The airflow rate is controlled by VAV boxes based on measurements of CO2 concentration and operative temperature. The dynamic model used for optimization of the control input is a grey-box model, previously identified using measurement data. Weather forecasts and weekly lecture schedules are used as forecasts for the optimization of future control actions. The control actions resulting from the optimization are written to the set points for supply air temperature and VAV damper position using the BACnet interface. Results of the first trial indicate that the predictive control is able to control the room temperature and CO2 concentration, even with uncertainty introduced by the forecasts. Prediction errors observed were 0.17 degrees C for room temperature and 87 ppm for indoor CO2 concentration.
引用
收藏
页数:7
相关论文
共 50 条
  • [1] Implementation of a Predictive Control for an All-air Ventilation System in an Educational Building
    Merema, Bart
    Saelens, Dirk
    Breesch, Hilde
    IAQ 2020: INDOOR ENVIRONMENTAL QUALITY PERFORMANCE APPROACHES, PT 2, 2022,
  • [2] Recommendations for model identification for MPC of an all-Air HVAC system
    Carton, Quinten
    Merema, Bart
    Breesch, Hilde
    COLD CLIMATE HVAC & ENERGY 2021, 2021, 246
  • [3] AN ALL-AIR AIR-CARGO SYSTEM
    FOSTER, HE
    ASTRONAUTICS & AERONAUTICS, 1969, 7 (09): : 79 - &
  • [4] ALL-AIR SYSTEMS
    GARBER, MM
    ASHRAE JOURNAL, 1970, 12 (06): : 47 - &
  • [5] Demonstration of an MPC framework for all-air systems in non-residential buildings
    Merema, Bart
    Saelens, Dirk
    Breesch, Hilde
    BUILDING AND ENVIRONMENT, 2022, 217
  • [6] A comparative study of the whole life carbon of a radiant system and an all-air system in a non-residential building
    Shindo, Kan
    Shinoda, Jun
    Kazanci, Ongun B.
    Bogatu, Dragos-Ioan
    Tanabe, Shin-ichi
    Olesen, Bjarne W.
    ENERGY AND BUILDINGS, 2023, 300
  • [7] TAB OF ALL-AIR SYSTEMS
    WRAY, HL
    ASHRAE JOURNAL, 1970, 12 (06): : 48 - &
  • [8] Co-simulation approach to evaluate MPC strategies for all-air systems: case study
    Merema, Bart
    Saelens, Dirk
    Breesch, Hilde
    PROCEEDINGS OF BUILDING SIMULATION 2021: 17TH CONFERENCE OF IBPSA, 2022, 17 : 86 - 93
  • [9] Principles for design of all-air systems
    Jönsson, A
    PROCEEDINGS OF THE 4TH INTERNATIONAL CONFERENCE ON INDOOR AIR QUALITY, VENTILATION AND ENERGY CONSERVATION IN BUILDINGS, VOLS I-III, 2001, : 1129 - 1136
  • [10] All-air systems (TC 9.1)
    ASHRAE Handb, (qq):