EP2154437B1 - Heating adjustment optimisation in buildings according to the weather forecast - Google Patents
Heating adjustment optimisation in buildings according to the weather forecast Download PDFInfo
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- EP2154437B1 EP2154437B1 EP08305477.5A EP08305477A EP2154437B1 EP 2154437 B1 EP2154437 B1 EP 2154437B1 EP 08305477 A EP08305477 A EP 08305477A EP 2154437 B1 EP2154437 B1 EP 2154437B1
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- 238000010438 heat treatment Methods 0.000 title claims description 56
- 239000011159 matrix material Substances 0.000 claims description 33
- 238000012937 correction Methods 0.000 claims description 27
- 230000001105 regulatory effect Effects 0.000 claims description 16
- 238000004422 calculation algorithm Methods 0.000 claims description 12
- 230000007613 environmental effect Effects 0.000 claims description 11
- 238000000034 method Methods 0.000 claims description 7
- 238000009413 insulation Methods 0.000 claims description 6
- 239000012080 ambient air Substances 0.000 claims description 4
- 239000008236 heating water Substances 0.000 claims description 4
- 238000012545 processing Methods 0.000 claims description 4
- 238000005399 mechanical ventilation Methods 0.000 claims description 3
- 230000006870 function Effects 0.000 claims description 2
- 238000009825 accumulation Methods 0.000 claims 1
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 claims 1
- 238000013316 zoning Methods 0.000 claims 1
- 238000004364 calculation method Methods 0.000 description 16
- 238000005457 optimization Methods 0.000 description 5
- 238000002513 implantation Methods 0.000 description 3
- 238000013459 approach Methods 0.000 description 2
- 238000011144 upstream manufacturing Methods 0.000 description 2
- 241000861223 Issus Species 0.000 description 1
- 239000003570 air Substances 0.000 description 1
- 238000004378 air conditioning Methods 0.000 description 1
- 230000000295 complement effect Effects 0.000 description 1
- 238000010276 construction Methods 0.000 description 1
- 238000005516 engineering process Methods 0.000 description 1
- 230000010354 integration Effects 0.000 description 1
- 230000003993 interaction Effects 0.000 description 1
- 238000013021 overheating Methods 0.000 description 1
- 238000005057 refrigeration Methods 0.000 description 1
- 230000036561 sun exposure Effects 0.000 description 1
- 238000009423 ventilation Methods 0.000 description 1
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F24—HEATING; RANGES; VENTILATING
- F24D—DOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR
- F24D19/00—Details
- F24D19/10—Arrangement or mounting of control or safety devices
- F24D19/1006—Arrangement or mounting of control or safety devices for water heating systems
- F24D19/1009—Arrangement or mounting of control or safety devices for water heating systems for central heating
Definitions
- the present invention relates to an optimization system for building heating control device, in particular based on the use of meteorological forecasts.
- This system applies in particular to devices which comprise an electronic regulator supplying an output signal with a temperature setpoint to heating water produced by a boiler, said regulator operating in a conventional manner from input parameters such as the outside temperature and a set temperature for the indoor air.
- the aim of the invention is to improve the thermal comfort of a building by regulating the heating in a more precise and more flexible way, notably by including in the system a possibility of anticipation resulting from meteorological data and / or by taking advantage of characteristics specific to the house and its location.
- patent DE 102004 032 562 proposes a system according to the preamble of claim 1.
- the US 6,098,893 proposes a control system integrating meteorological data that allow it to calculate an equivalent temperature, that is to say an externally modified temperature calculated by calculation and which becomes one of the input parameters of the regulation device, replacing the simple one measuring the outside temperature.
- the system includes a database and allows calculations from both up-to-date and historical data.
- a control system for heating, ventilation, air conditioning and refrigeration of buildings is also disclosed in the document WO 07/117245 .
- the meteorological data are, in this hypothesis, used to determine in advance control steps of the various components of the system.
- a predictive control device for the temperature which for example acts on a three-way valve using at least one algorithm taking meteorological data into account, is finally described in a document EP 1 715 254 . It is a system that is intended for heated floors, and that operates on the basis of an online data input, thus requiring an internet connection. The calculation algorithms are implemented in the manner of an expert system.
- the object of the present invention is to provide a simple system, suitable for private homes, and which can be implemented as part of a home automation solution at reasonable cost.
- the developed system has a sufficiently simple solution to be implemented in a microcontroller, and is therefore not based on complex calculations / algorithms.
- the optimization system conventionally based on an electronic regulator providing a temperature setpoint to the heating water of a building produced by a boiler from the outside temperature and a setpoint temperature for the indoor ambient air, is mainly characterized in that it comprises an auxiliary correction unit connected to the electronic regulator, said block being equipped with parameterizable inputs according to characteristics specific to the building or connected to a meteorological station, and comprising means for storing a plurality of predetermined matrices whose values are established from variables corresponding to the input parameters related to the forecasts and at the building, a value of each matrix being selected and used directly or combined by processing means to values of other matrices to provide the electronic controller at the output of the auxiliary block one or more corrective input parameters.
- the general idea of the invention is therefore to provide, upstream of the actual regulation, a system for correcting the operating parameters of the regulating device, in particular but not exclusively depending on the weather forecasts since the nature / implantation / the orientation of the building to be heated also play a role.
- the system of the invention does not provide for complex calculations, since it is based on precomputed matrices in which there is a set of corrective values to be applied to the parameters of the regulation, selected according to a certain number input parameters, then possibly processed into simple calculations.
- a microcomputer is sufficient to integrate these matrices, and to implement the calculations possibly applied to the values of the matrices.
- the environmental coefficient can in particular be calculated from the insulation coefficient of the building and its geographical location in or out of the urban site.
- the solar heat gain coefficient can be calculated from the orientation / exposure of the house and the ratio of m 2 sunny glazed m 2 to be heated.
- the object of the invention is indeed an optimization operation, taking into account all the features that can be modeled directly or indirectly and that can have an influence on the interior temperature of the building, and therefore on the heating mode.
- the solar input for example on a winter day, is clearly not the same in a house with large windows overlooking the south as in a habitat with reduced surface openings. and with thick walls providing good insulation at home.
- the optimization system of the invention can be implemented with several types of control devices. These electronic regulators are generally based on a regulation algorithm and then comprise according to the invention inputs receiving corrective parameters variables used in the algorithm, said parameters being derived from the auxiliary block.
- the electronic regulator can be based on the law and the corresponding heating curve, the corrective input parameters coming from the auxiliary block then respectively consisting of a slope correction value and an offset value of the curve.
- the general approach is based on the knowledge of the weather forecast at t + At, for example t + 12 hours or at t + 18 hours, which can cause changes in the heating curve.
- One of the aims of this approach is to avoid overheating for a night before a sunny day, or not enough heat for the house when a strong wind is expected to blow the next day.
- the values of correction of the slope and of the shift of the curve are obtained by reading the different input parameters of the auxiliary block, then selecting corresponding values in the matrices, making it possible to obtain directly or in one or two calculation steps the correction values in question to the controller.
- the shift coefficient of the curve can be obtained by selecting a matrix value in a so-called product matrix whose values are pre-established by means of parameters characterizing the solar power, the coefficient of solar gains and the expected irradiation.
- the parameter characterizing the solar power is itself derived from a so-called solar matrix built from the current date, the time slot and the geographical area.
- All these data are either provided automatically, for example by a weather station, or set by the user or the installer (especially the geographical area).
- the slope correction coefficient can be obtained by a so-called wind matrix whose pre-established matrix values and the value selected are obtained on the basis of the predictable wind speed and the environmental coefficient.
- the auxiliary unit may further include an output emitting a signal closing / opening automated shutters.
- the system acts from the inside to modify its own conditions of use, in a manner similar to a self-referential system.
- the opening / closing of the automated shutters indeed modifies certain parameters related to the building, in particular as regards the insulation, solar gains, etc.
- the auxiliary unit may comprise an output emitting a control signal of a controlled mechanical ventilation, that is to say that it also acts internally on the system setting.
- the optimization system of the invention can be applied to an electronic controller based on a PID type control, and which then comprises on its inputs corrective parameters respectively proportional, derived and integrated values, said parameters being according to the invention from the auxiliary block.
- the present invention is therefore based on this auxiliary regulation correction unit containing in memory different matrices, that is to say in practice tables with two or three dimensions including a simple consultation using parameters that have allowed its constitution allows to have an output value, without any calculation.
- the content of these matrices is the result of complex work done upstream, and based on calculations, calibration and experience. It allows to constantly manage the heating control system by providing for the situations that can present parameters corrective measures anticipating their impact on the behavior of the heating system by modeling their impact on the building
- the heating is produced during periods when the cost of energy is reduced, and then restored via storage heating means, so as to further optimize the operation of the system economically.
- the corrective input parameters coming from the auxiliary block are of course the same as for the system above, and consist respectively of a value of correction of the slope and an offset value of the curve.
- the heating control device of a building comprises an electronic regulator (1) supplying a temperature setpoint to a controller (2) of a valve (3) three-way based on the outside temperature and a set input temperature.
- the control signal from the controller (2) acts on the valve (3) at the outlet of a boiler (4).
- the heating is effected via a heating floor (5).
- the invention making it possible to optimize the regulation device, is characterized by the addition of an auxiliary unit (6) acting as a system for correcting the regulation parameters as a function, in particular, of meteorological forecasts.
- This correction block does not work solely on the basis of meteorological characteristics proper: other parameters related to housing and its implementation are also taken into account.
- the contribution of heating from the sun is taken into account, by means of a so-called solar coefficient which reflects for example the surface of the windows, and / or their exposure with respect to the cardinal directions.
- a so-called environmental coefficient allows a weighting resulting in particular from the insulation characteristics of the building, and / or the implantation in an urban or rural environment, etc.
- the auxiliary block (6) carrying out the correction of the regulation parameters is based on precomputed matrices giving, according to the input parameters of this block (6), values that can be used directly, without going through complex calculations. for example based on algorithms or sets of algorithms.
- FIG. 2 An example of treatment using matrices is given in figure 2 .
- This example applies to the configuration of the figure 1 in which the regulation is made by the heating law.
- a first so-called solar matrix allows a correction related to solar energy potentially received during a given time slot, depending on the day and the geographical area concerned. It is a three-dimensional matrix, an example of which is given in figure 3 . Each value of the matrix corresponds to an individualized corrective parameter which depends on the three aforementioned information.
- This matrix produced may, according to an alternative, be replaced by a simple calculation formula.
- This correction value ( ⁇ offset ) is sent to the input of the main electronic control unit (1).
- an output of the auxiliary block (6) linked to this matrix can also be used for the control of the shutters of the house, insofar as this command is automated. Variations in flap positions may in turn alter the calculation of the corrective value, for example example by opening the windows shutters facing south in winter.
- the slope correction value ( ⁇ slope ) of the heating curve is obtained at the output of a so-called wind matrix, the values of which are obtained on the basis of the wind speed as predicted by the meteorological station, as well as an environmental coefficient (k environmental ) taking into account the insulation, the environment of the dwelling, etc.
- auxiliary block via this matrix, can also provide information to a controlled mechanical ventilation device (VMC) integrated into the dwelling.
- VMC controlled mechanical ventilation device
- the figure 4 substantially the same elements as the figure 1 , for an electronic control unit based on a different technology than the previous one.
- the calculation of the regulation is based on a PID type control with three corrective values ( ⁇ product coefficient , ⁇ derivative coefficient and ⁇ integration coefficient . ).
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- Engineering & Computer Science (AREA)
- Physics & Mathematics (AREA)
- Thermal Sciences (AREA)
- Chemical & Material Sciences (AREA)
- Combustion & Propulsion (AREA)
- Mechanical Engineering (AREA)
- General Engineering & Computer Science (AREA)
- Air Conditioning Control Device (AREA)
Description
La présente invention concerne un système d'optimisation pour dispositif de régulation du chauffage de bâtiments, notamment basé sur l'utilisation de prévisions météorologiques. Ce système s'applique en particulier à des dispositifs qui comportent un régulateur électronique fournissant en signal de sortie une consigne de température à de l'eau de chauffage produite par une chaudière, ledit régulateur fonctionnant de manière classique à partir de paramètres d'entrée comme la température extérieure et une température de consigne pour l'air ambiant intérieur.The present invention relates to an optimization system for building heating control device, in particular based on the use of meteorological forecasts. This system applies in particular to devices which comprise an electronic regulator supplying an output signal with a temperature setpoint to heating water produced by a boiler, said regulator operating in a conventional manner from input parameters such as the outside temperature and a set temperature for the indoor air.
L'invention vise à améliorer le confort thermique d'un bâtiment en régulant le chauffage de manière plus précise et plus souple, notamment en incluant dans le système une possibilité d'anticipation résultant de données météorologiques et/ou en tirant parti de caractéristiques propres à la maison et à son implantation.The aim of the invention is to improve the thermal comfort of a building by regulating the heating in a more precise and more flexible way, notably by including in the system a possibility of anticipation resulting from meteorological data and / or by taking advantage of characteristics specific to the house and its location.
A l'heure où les dépenses énergétiques connaissent une augmentation continue importante, un tel système permet de plus de réduire la facture énergétique en autorisant une gestion des besoins de chauffage qui reste en permanence au plus proche des conditions réelles d'interaction entre le bâtiment et la situation météorologique à la fois présente et prévue.At a time when energy expenditure is constantly increasing significantly, such a system also makes it possible to reduce the energy bill by authorizing a management of heating needs which remains permanently close to the actual conditions of interaction between the building and the building. the weather situation both present and planned.
Des solutions de régulation de chauffage basées sur les données issues de prévisions météorologiques ont déjà été décrites. brevet
Un système de contrôle du chauffage, de la ventilation, de l'air conditionné et de la réfrigération de bâtiments est par ailleurs divulgué dans le document
Un dispositif de contrôle prédictif de la température, qui agit par exemple sur une vanne trois voies à l'aide d'au moins un algorithme prenant en compte des données météorologiques, est enfin décrit dans un document
Le but de la présente invention est de proposer un système simple, adapté à des maisons particulières, et qui peut être mis en oeuvre dans le cadre d'une solution domotique à coût raisonnable. En particulier, le système mis au point présente une solution suffisamment simple pour être implantée dans un microcontrôleur, et n'est donc pas basé sur des calculs / algorithmes complexes.The object of the present invention is to provide a simple system, suitable for private homes, and which can be implemented as part of a home automation solution at reasonable cost. In particular, the developed system has a sufficiently simple solution to be implemented in a microcontroller, and is therefore not based on complex calculations / algorithms.
A cet effet, le système d'optimisation selon l'invention, classiquement basé sur un régulateur électronique fournissant une consigne de température à de l'eau de chauffage d'un bâtiment produite par une chaudière à partir de la température extérieure et d'une température de consigne pour l'air ambiant intérieur, se caractérise à titre principal en ce qu'il comporte un bloc auxiliaire de correction connecté au régulateur électronique, ledit bloc étant muni d'entrées paramétrables en fonction de caractéristiques propres au bâtiment ou reliées à une centrale météorologique, et comportant des moyens de stockage d'une pluralité de matrices prédéterminées dont les valeurs sont établies à partir de variables correspondant aux paramètres d'entrée liés aux prévisions météorologiques et au bâtiment, une valeur de chaque matrice étant sélectionnée et utilisée directement ou combinée par des moyens de traitement à des valeurs d'autres matrices en vue de fournir au régulateur électronique en sortie du bloc auxiliaire un ou plusieurs paramètres d'entrée correctifs.For this purpose, the optimization system according to the invention, conventionally based on an electronic regulator providing a temperature setpoint to the heating water of a building produced by a boiler from the outside temperature and a setpoint temperature for the indoor ambient air, is mainly characterized in that it comprises an auxiliary correction unit connected to the electronic regulator, said block being equipped with parameterizable inputs according to characteristics specific to the building or connected to a meteorological station, and comprising means for storing a plurality of predetermined matrices whose values are established from variables corresponding to the input parameters related to the forecasts and at the building, a value of each matrix being selected and used directly or combined by processing means to values of other matrices to provide the electronic controller at the output of the auxiliary block one or more corrective input parameters.
L'idée générale de l'invention est donc de fournir, en amont de la régulation proprement dite, un système de correction des paramètres de fonctionnement du dispositif de régulation, notamment mais non exclusivement fonction des prévisions météorologiques puisque la nature /l'implantation / l'orientation du bâtiment à chauffer jouent aussi un rôle.The general idea of the invention is therefore to provide, upstream of the actual regulation, a system for correcting the operating parameters of the regulating device, in particular but not exclusively depending on the weather forecasts since the nature / implantation / the orientation of the building to be heated also play a role.
Le système de l'invention ne prévoit nullement d'effectuer des calculs complexes, puisqu'il se base sur des matrices précalculées dans lesquelles se trouve un ensemble de valeurs correctives à appliquer aux paramètres de la régulation, sélectionnées en fonction d'un certain nombre de paramètres d'entrée, puis éventuellement traitées en des calculs simples.The system of the invention does not provide for complex calculations, since it is based on precomputed matrices in which there is a set of corrective values to be applied to the parameters of the regulation, selected according to a certain number input parameters, then possibly processed into simple calculations.
Un microcalculateur suffit à intégrer ces matrices, et à mettre en oeuvre les calculs éventuellement appliqués aux valeurs des matrices.A microcomputer is sufficient to integrate these matrices, and to implement the calculations possibly applied to the values of the matrices.
En fait, selon l'invention, le bloc auxiliaire est connecté à une centrale météorologique lui fournissant une plage horaire de prévision et au moins l'une des informations suivantes :
- une température prévisionnelle ;
- une vitesse de vent prévisionnelle ;
- un ensoleillement prévisionnel.
- a forecast temperature;
- a forecast wind speed;
- a forecast sunshine.
Ces informations, de nature différente mais complémentaires pour le traitement ultérieur, sont traitées de manière distincte, et affectent des matrices différentes utilisables à plusieurs niveaux de calcul, comme on le verra dans la suite. Certaines informations peuvent de plus être utilisées en direct par le régulateur électronique.This information, which is of a different but complementary nature for subsequent processing, is treated separately and assigns different matrices which can be used at several levels of calculation, as it is will see in the sequel. Some information can be used directly by the electronic controller.
Les paramètres d'entrée qui sont liés au bâtiment comprennent quant à eux notamment :
- la zone géographique correspondant au découpage administratif ;
- un coefficient environnemental ;
- un coefficient des apports solaires.
- the geographical area corresponding to the administrative division;
- an environmental coefficient;
- a coefficient of solar gains.
Là encore, comme pour les paramètres résultant des données météorologiques, ils sont traités distinctement, en vue d'obtenir des valeurs matricielles correctives répondant à des objectifs spécifiques et différenciés.Here again, as for the parameters resulting from the meteorological data, they are treated separately, in order to obtain corrective matrix values meeting specific and differentiated objectives.
Plus précisément, le coefficient environnemental peut notamment être calculé à partir du coefficient d'isolation du bâtiment et de sa localisation géographique en ou hors site urbain.More specifically, the environmental coefficient can in particular be calculated from the insulation coefficient of the building and its geographical location in or out of the urban site.
Le coefficient des apports solaires peut être calculé à partir de l'orientation / exposition de la maison et du rapport des m2 de vitrage ensoleillés aux m2 à chauffer.The solar heat gain coefficient can be calculated from the orientation / exposure of the house and the ratio of m 2 sunny glazed m 2 to be heated.
Il agit donc comme un correctif visant à individualiser la situation propre de la maison, en termes d'implantation sur site, de construction, etc..., par rapport à la situation d'ensoleillement possible.It acts as a corrective aiming at individualizing the specific situation of the house, in terms of implantation on site, construction, etc ..., compared to the situation of possible sunshine.
Le but de l'invention est bien une opération d'optimisation, prenant en compte toute les caractéristiques simplement modélisables directement ou indirectement et susceptibles d'avoir une influence sur la température intérieure du bâtiment, et donc sur le mode de chauffage.The object of the invention is indeed an optimization operation, taking into account all the features that can be modeled directly or indirectly and that can have an influence on the interior temperature of the building, and therefore on the heating mode.
En reprenant l'exemple ci-dessus, l'apport solaire, par exemple un jour d'hiver, n'est clairement pas le même dans une maison équipée de grandes baies vitrées donnant sur le sud que dans un habitat aux ouvertures de surface réduite et doté de murs épais conférant une bonne isolation à la maison.Using the example above, the solar input, for example on a winter day, is clearly not the same in a house with large windows overlooking the south as in a habitat with reduced surface openings. and with thick walls providing good insulation at home.
Le système d'optimisation de l'invention peut être mis en oeuvre avec plusieurs types de dispositifs de régulation. Ces régulateurs électroniques sont en général basés sur un algorithme de régulation et comportent alors selon l'invention des entrées recevant des paramètres correctifs des variables utilisées dans l'algorithme, lesdits paramètres étant issus du bloc auxiliaire.The optimization system of the invention can be implemented with several types of control devices. These electronic regulators are generally based on a regulation algorithm and then comprise according to the invention inputs receiving corrective parameters variables used in the algorithm, said parameters being derived from the auxiliary block.
Selon une possibilité, le régulateur électronique peut être basé sur la loi et la courbe correspondante de chauffe, les paramètres d'entrée correctifs issus du bloc auxiliaire consistant alors respectivement en une valeur de correction de la pente et une valeur de décalage de la courbe.According to one possibility, the electronic regulator can be based on the law and the corresponding heating curve, the corrective input parameters coming from the auxiliary block then respectively consisting of a slope correction value and an offset value of the curve.
L'approche générale est basée sur la connaissance des prévisions météorologiques à t + At, par exemple t + 12 heures ou à t + 18 heures, et qui peuvent susciter des modifications de la courbe de chauffe.The general approach is based on the knowledge of the weather forecast at t + At, for example t + 12 hours or at t + 18 hours, which can cause changes in the heating curve.
Cette approche a notamment pour objectif d'éviter de trop chauffer pendant une nuit précédant une journée ensoleillée, ou au contraire de ne pas assez chauffer la maison alors qu'il est prévu qu'un vent fort soufflera le lendemain.One of the aims of this approach is to avoid overheating for a night before a sunny day, or not enough heat for the house when a strong wind is expected to blow the next day.
Les valeurs de correction de la pente et de décalage de la courbe sont obtenues par lecture des différents paramètres d'entrée du bloc auxiliaire, puis sélection de valeurs correspondantes dans les matrices, permettant d'obtenir directement ou en une à deux étapes de calcul les valeurs de correction en question à destination du régulateur.The values of correction of the slope and of the shift of the curve are obtained by reading the different input parameters of the auxiliary block, then selecting corresponding values in the matrices, making it possible to obtain directly or in one or two calculation steps the correction values in question to the controller.
Ainsi, le coefficient de décalage de la courbe peut être obtenu par sélection d'une valeur matricielle dans une matrice dite produit dont les valeurs sont préétablies au moyen de paramètres caractérisant la puissance solaire, le coefficient des apports solaires et l'ensoleillement prévu.Thus, the shift coefficient of the curve can be obtained by selecting a matrix value in a so-called product matrix whose values are pre-established by means of parameters characterizing the solar power, the coefficient of solar gains and the expected irradiation.
Le paramètre caractérisant la puissance solaire est lui-même issu d'une matrice dite solaire construite à partir de la date du jour, la plage horaire et la zone géographique.The parameter characterizing the solar power is itself derived from a so-called solar matrix built from the current date, the time slot and the geographical area.
Toutes ces données sont soit fournies automatiquement, par exemple par une centrale météo, soit paramétrées par l'utilisateur ou l'installateur (notamment la zone géographique).All these data are either provided automatically, for example by a weather station, or set by the user or the installer (especially the geographical area).
Le coefficient de correction de la pente peut être obtenu par une matrice dite des vents dont les valeurs matricielles préétablies et la valeur sélectionnée sont obtenues sur la base de la vitesse prévisible du vent et du coefficient environnemental.The slope correction coefficient can be obtained by a so-called wind matrix whose pre-established matrix values and the value selected are obtained on the basis of the predictable wind speed and the environmental coefficient.
Il est à noter que le bloc auxiliaire peut au surplus comporter une sortie émettant un signal de fermeture / ouverture de volets automatisés. Ainsi, le système agit de l'intérieur pour modifier ses propres conditions d'utilisation, en quelque sorte à la manière d'un système autoréférentiel. L'ouverture /fermeture des volets automatisés modifie en effet certains paramètres liés au bâtiment, notamment pour ce qui concerne l'isolation, les apports solaires, ... etc.It should be noted that the auxiliary unit may further include an output emitting a signal closing / opening automated shutters. Thus, the system acts from the inside to modify its own conditions of use, in a manner similar to a self-referential system. The opening / closing of the automated shutters indeed modifies certain parameters related to the building, in particular as regards the insulation, solar gains, etc.
De même, le bloc auxiliaire peut comporter une sortie émettant un signal de commande d'une ventilation mécanique contrôlée, c'est-à-dire qu'il agit également de manière interne sur le paramétrage du système.Similarly, the auxiliary unit may comprise an output emitting a control signal of a controlled mechanical ventilation, that is to say that it also acts internally on the system setting.
De telles actions ne sont bien entendu possibles que dans une maison domotisée, c'est-à-dire disposant de systèmes de contrôle permettant un traitement des informations issues de dispositifs automatisés, influençant en l'occurrence les conditions intérieures de température.Such actions are of course only possible in a home domotized, that is to say having control systems for processing information from automated devices, influencing in this case the internal temperature conditions.
Selon une variante, le système d'optimisation de l'invention peut être appliqué à un régulateur électronique basé sur une commande de type PID, et qui comporte alors sur ses entrées des paramètres correctifs respectivement des valeurs proportionnelle, dérivée et intégrée, lesdits paramètres étant selon l'invention issus du bloc auxiliaire.According to a variant, the optimization system of the invention can be applied to an electronic controller based on a PID type control, and which then comprises on its inputs corrective parameters respectively proportional, derived and integrated values, said parameters being according to the invention from the auxiliary block.
La présente invention repose donc sur ce bloc auxiliaire de correction de la régulation contenant en mémoire différentes matrices, c'est-à-dire en pratique des tableaux à deux ou trois dimensions dont une simple consultation à l'aide des paramètres qui ont permis sa constitution permet d'avoir une valeur de sortie, sans aucun calcul.The present invention is therefore based on this auxiliary regulation correction unit containing in memory different matrices, that is to say in practice tables with two or three dimensions including a simple consultation using parameters that have allowed its constitution allows to have an output value, without any calculation.
Le contenu de ces matrices est le fruit d'un travail complexe réalisé en amont, et basé sur des calculs, de l'étalonnage et de l'expérience. Il permet de gérer en permanence le système de régulation du chauffage en fournissant pour les situations qui peuvent se présenter des paramètres correctifs anticipant leurs incidences sur le comportement du système de chauffage par modélisation de leur impact sur le bâtimentThe content of these matrices is the result of complex work done upstream, and based on calculations, calibration and experience. It allows to constantly manage the heating control system by providing for the situations that can present parameters corrective measures anticipating their impact on the behavior of the heating system by modeling their impact on the building
De préférence, le chauffage est produit pendant les périodes où le coût de l'énergie est réduit, puis restitué via des moyens de chauffage à accumulation, de manière à optimiser encore le fonctionnement du système sur un plan économique.Preferably, the heating is produced during periods when the cost of energy is reduced, and then restored via storage heating means, so as to further optimize the operation of the system economically.
L'invention concerne également un procédé d'optimisation de la régulation du chauffage d'un bâtiment en fonction de prévisions météorologiques basé sur un système tel que ci-dessus, ladite régulation étant basée sur un régulateur électronique comportant un algorithme de régulation et fournissant une consigne de température de l'eau de chauffage du bâtiment produite par une chaudière à partir de la température extérieure et d'une température de consigne pour l'air ambiant intérieur, et caractérisé en ce qu'il présente à titre principal les étapes suivantes :
- acquisition via un bloc auxiliaire de correction connecté au régulateur électronique de paramètres fonctions de caractéristiques propres au bâtiment ou issus de prévisions météorologiques,
- sélection au moyens de ces paramètres d'au mois une valeur d'une ou plusieurs matrices prédéterminées stockées dans le bloc auxiliaire,
- envoi au régulateur électronique en sortie du bloc auxiliaire d'un ou plusieurs paramètres correctifs correspondant à des valeurs directement issues des matrices ou traitées par le bloc auxiliaire.
- acquisition via an auxiliary correction unit connected to the electronic controller of parameters characteristics of characteristics specific to the building or derived from weather forecasts,
- selecting by means of these parameters of the month a value of one or more predetermined matrices stored in the auxiliary block,
- sending to the electronic regulator at the output of the auxiliary block of one or more correction parameters corresponding to values directly derived from the matrices or processed by the auxiliary block.
Dans l'hypothèse où le régulateur électronique est basé sur la loi et la courbe correspondante de chauffe, les paramètres d'entrée correctifs issus du bloc auxiliaire sont bien entendu les mêmes que pour le système ci-dessus, et consistent respectivement en une valeur de correction de la pente et une valeur de décalage de la courbe.Assuming that the electronic regulator is based on the law and the corresponding heating curve, the corrective input parameters coming from the auxiliary block are of course the same as for the system above, and consist respectively of a value of correction of the slope and an offset value of the curve.
Dans ce cas, et toujours pour correspondre au système de régulation de l'invention :
- le coefficient de décalage de la courbe est obtenu par sélection d'une valeur matricielle dans une matrice produit dont les valeurs sont préétablies au moyen de paramètres caractérisant la puissance solaire, le coefficient des apports solaires et l'ensoleillement prévu par les prévisions météorologiques ;
- la puissance solaire est issue d'une matrice dite solaire dont les valeurs sont préétablies à partir de la date du jour, la plage horaire et la zone géographique ;
- le coefficient des apports solaires est calculé à partir de l'orientation/exposition de la maison et du rapport des m2 de vitrage ensoleillés aux m2 à chauffer ; et
- le coefficient de correction de la pente est obtenu par sélection d'une valeur matricielle dans une matrice dite des vents dont les valeurs sont préétablies sur la base de la vitesse prévisible du vent et du coefficient environnemental.
- the offset coefficient of the curve is obtained by selecting a matrix value in a product matrix whose values are pre-established by means of parameters characterizing solar power, the coefficient of solar gain and the amount of sunshine forecast by weather forecasts;
- the solar power comes from a so-called solar matrix whose values are pre-established from the current date, the time slot and the geographical area;
- the solar gain coefficient is calculated from the orientation / exposure of the house and the ratio of m 2 sunny glazed m 2 to be heated; and
- the slope correction coefficient is obtained by selecting a matrix value in a so-called wind matrix whose values are pre-established on the basis of the predictable wind speed and the environmental coefficient.
L'invention va à présent être décrite plus en détail, en référence aux figures annexées, pour lesquelles :
- la
figure 1 est une représentation schématique de l'application de l'invention à un dispositif de régulation électronique basé sur la loi et la courbe de chauffe ; - la
figure 2 représente un exemple de structure, sur une base matricielle, du bloc auxiliaire de lafigure 1 ; - la
figure 3 est une représentation schématique éclatée de l'une des matrices utilisées dans lafigure 2 ; - la
figure 4 montre un exemple d'application de la solution de l'invention à un régulateur électronique basé sur une commande de type PID ; et - la
figure 5 représente le cas général d'un système dont le régulateur électronique est basé sur un algorithme de régulation.
- the
figure 1 is a schematic representation of the application of the invention to an electronic regulation device based on the law and the heating curve; - the
figure 2 represents an exemplary structure, on a matrix basis, of the auxiliary block of thefigure 1 ; - the
figure 3 is an exploded schematic representation of one of the matrices used in thefigure 2 ; - the
figure 4 shows an example of application of the solution of the invention to an electronic controller based on a PID type command; and - the
figure 5 represents the general case of a system whose electronic regulator is based on a regulation algorithm.
En référence à la
Le signal de contrôle issu du contrôleur (2) agit sur la vanne (3) en sortie d'une chaudière (4). Dans l'exemple représenté, qui n'est cependant pas limitatif de l'invention, le chauffage s'effectue via un plancher chauffant (5).The control signal from the controller (2) acts on the valve (3) at the outlet of a boiler (4). In the example shown, which is however not limiting of the invention, the heating is effected via a heating floor (5).
Dans les dispositifs de l'art antérieur, ce qui vient d'être décrit constituait dans la plupart des cas la totalité du dispositif de régulation de chauffage intégré à une habitation.In the devices of the prior art, what has just been described was in most cases the entire heating control device integrated into a dwelling.
L'invention, permettant d'optimiser le dispositif de régulation, se caractérise par l'ajout d'un bloc auxiliaire (6) agissant comme un système de correction des paramètres de régulation en fonction notamment des prévisions météorologiques.The invention, making it possible to optimize the regulation device, is characterized by the addition of an auxiliary unit (6) acting as a system for correcting the regulation parameters as a function, in particular, of meteorological forecasts.
Ce bloc de correction ne travaille cependant pas uniquement sur la base de caractéristiques météorologiques proprement dites : d'autres paramètres liés à l'habitation et à son implantation sont également pris en compte. Ainsi, l'apport du chauffage émanant du soleil est pris en considération, par le biais d'un coefficient dit solaire qui reflète par exemple la surface des vitres, et/ou leur exposition par rapport aux directions cardinales.This correction block, however, does not work solely on the basis of meteorological characteristics proper: other parameters related to housing and its implementation are also taken into account. Thus, the contribution of heating from the sun is taken into account, by means of a so-called solar coefficient which reflects for example the surface of the windows, and / or their exposure with respect to the cardinal directions.
Par ailleurs, un coefficient dit environnemental permet une pondération résultant notamment des caractéristiques d'isolation du bâtiment, et/ou de l'implantation en milieu urbain ou rural, etc...In addition, a so-called environmental coefficient allows a weighting resulting in particular from the insulation characteristics of the building, and / or the implantation in an urban or rural environment, etc.
Enfin, la zone géographique, qui a une influence directe sur l'ensoleillement et les températures, est également prise en compte.Finally, the geographical area, which has a direct influence on the sunshine and the temperatures, is also taken into account.
Dans l'hypothèse de la
Il s'agit d'une valeur corrective de la pente (Δpente) de la courbe de chauffe d'une part, et d'une valeur de décalage (Δoffset) de ladite courbe d'autre part, ces deux valeurs prenant en considération les éléments précités liés aux situations météorologiques et à l'environnement / localisation / nature du bâtiment.It is a corrective value of the slope (Δ slope ) of the heating curve on the one hand, and an offset value (Δ offset ) of the other curve, these two values taking into consideration the aforementioned elements related to meteorological situations and to the environment / location / nature of the building.
Comme déjà mentionné, le bloc auxiliaire (6) effectuant la correction des paramètres de régulation est basé sur des matrices précalculées donnant, en fonction des paramètres d'entrée de ce bloc (6), des valeurs utilisables directement, sans passer par des calculs complexes par exemple basés sur des algorithmes ou des ensembles d'algorithmes.As already mentioned, the auxiliary block (6) carrying out the correction of the regulation parameters is based on precomputed matrices giving, according to the input parameters of this block (6), values that can be used directly, without going through complex calculations. for example based on algorithms or sets of algorithms.
Un exemple de traitement à l'aide de matrices est donné en
La valeur choisie dans cette matrice est utilisée dans une seconde matrice dite produit, dont les autres paramètres sont l'ensoleillement prévu et un coefficient (ksoleil) déjà mentionné, et qui prend en considération notamment l'exposition, la surface des vitres, etc... Cette matrice produit peut, selon une alternative, être remplacée par une formule de calcul simple.The value chosen in this matrix is used in a second matrix called product, whose other parameters are the expected sun exposure and a coefficient (k sun ) already mentioned, and which takes into account in particular the exposure, the surface of the windows, etc. This matrix produced may, according to an alternative, be replaced by a simple calculation formula.
En sortie, elle fournit une valeur de correction (Δoffset) globalement due aux apports solaires, et qui permet un décalage adéquat de la courbe de chauffe. Cette valeur de correction (Δoffset) est envoyée en entrée du bloc principal de régulation électronique (1).At the output, it provides a correction value (Δ offset ) generally due to the solar gains, and which allows an adequate offset of the heating curve. This correction value (Δ offset ) is sent to the input of the main electronic control unit (1).
Il est à noter qu'une sortie du bloc auxiliaire (6) liée à cette matrice peut également être utilisée pour la commande des volets de l'habitation, dans la mesure où cette commande est automatisée. Les variations des positions des volets peuvent à leur tour modifier le calcul de la valeur corrective, par exemple en procédant à une ouverture des volets des baies vitrées orientées au sud en plein hiver.It should be noted that an output of the auxiliary block (6) linked to this matrix can also be used for the control of the shutters of the house, insofar as this command is automated. Variations in flap positions may in turn alter the calculation of the corrective value, for example example by opening the windows shutters facing south in winter.
La valeur de correction de la pente (Δpente) de la courbe de chauffe est obtenue en sortie d'une matrice dite vent, dont les valeurs sont obtenues sur la base de la vitesse du vent telle que prévue par la station météorologique, ainsi que d'un coefficient environnemental (kenvironnemental) prenant en compte l'isolation, le milieu d'implantation de l'habitation, etc...The slope correction value (Δ slope ) of the heating curve is obtained at the output of a so-called wind matrix, the values of which are obtained on the basis of the wind speed as predicted by the meteorological station, as well as an environmental coefficient (k environmental ) taking into account the insulation, the environment of the dwelling, etc.
Il est à noter que le bloc auxiliaire, via cette matrice, peut également fournir une information à un dispositif de ventilation mécanique contrôlée (VMC) intégré à l'habitation.It should be noted that the auxiliary block, via this matrix, can also provide information to a controlled mechanical ventilation device (VMC) integrated into the dwelling.
La
Les schémas des
Dans ces deux dernières
Les différents exemples illustrés à l'aide des figures ne sont bien entendu pas exhaustifs de l'invention, qui englobe des variantes notamment liées au type de régulation.The various examples illustrated with reference to the figures are of course not exhaustive of the invention, which includes variants related in particular to the type of regulation.
Claims (20)
- System for optimizing a device for regulating the heating of a building based on weather forecasts, said device comprising an electronic regulator (1, 1', 1") supplying a temperature setpoint for the water heating of the building produced by a boiler from the outdoor temperature and from a setpoint temperature for the indoor ambient air, and comprising an auxiliary correction block (6, 6', 6") connected to the electronic regulator (1, 1', 1"), said block (6, 6', 6") being provided with inputs that can be parameterized based on characteristics specific to the building and that are linked to a weather centre, characterized in that said auxiliary block (6, 6', 6") comprises storage means for a plurality of predetermined matrices whose values are established from variables corresponding to the input parameters linked to the weather forecasts and to the building, a value of each matrix being selected and used directly or combined by processing means with values from other matrices in order to supply to the electronic regulator (1, 1', 1") as output from the auxiliary block (6, 6', 6") one or more corrective input parameters.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to Claim 1, characterized in that the auxiliary block (6, 6', 6") is connected to a weather centre supplying it with the period of time and at least one of the following information items:- a forecasted temperature;- a forecasted wind speed;- a forecasted sunshine.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to one of Claims 1 or 2, characterized in that the input parameters linked to the building comprise:- the geographic area corresponding to the administrative zoning;- an environmental coefficient (kenvironnemental);- a solar input coefficient (ksoleil).
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to Claim 3, characterized in that the environmental coefficient (kenvironnemental) is calculated from the insulation coefficient of the building and its geographic location in or outside of an urban site.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to one of Claims 3 and 4, characterized in that the solar input coefficient (ksoleil) is calculated from the orientation/exposure of the house and the ratio of m2 of glazing in sunlight to the m2 to be heated.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to any one of Claims 1 to 5, characterized in that the electronic regulator (1, 1', 1") is based on a regulation algorithm and comprises inputs receiving corrective parameters (ΔK1, ΔK2) for the variables used in the algorithm, said parameters being obtained from the auxiliary block (6, 6', 6").
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to any one of Claims 1 to 6, characterized in that the electronic regulator (1) is based on the heating law and the corresponding heating curve, the corrective input parameters obtained from the auxiliary block (6) consisting respectively of a slope correction value (Δpente) and a curve offset value (Δoffset).
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to Claim 7, characterized in that the curve offset coefficient (Δoffset) is obtained by selection of a matrix value in a so-called product matrix whose values are pre-established by means of parameters characterizing the solar power, the solar input coefficient and the forecast sunlight.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to Claim 8, characterized in that the parameter characterizing the solar power is obtained from a so-called solar matrix whose values are pre-established from the day's date, the period of time and the geographic area.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to any one of Claims 7 to 9, characterized in that the slope correction coefficient is obtained by a so-called wind matrix whose pre-established matrix values and the selected value are obtained on the basis of the wind speed that can be forecast and the environmental coefficient (kenvironnemental).
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to one of Claims 1 to 10, characterized in that the auxiliary block (6, 6', 6") comprises an output emitting an automated shutter closure/opening signal.
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to any one of Claims 1 to 11, characterized in that the auxiliary block (6, 6', 6") comprises an output emitting a control signal for a controlled mechanical ventilation (VMC).
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to any one of Claims 1 to 6 and 11-12, characterized in that the electronic regulator (1') is based on a control of PID type and comprises, on its inputs, corrective parameters respectively for the proportional (Δcoeff. produit), derivative (Δcoeff. dérivation) and integral (Δcoeff. intégration) values, said parameters being obtained from the auxiliary block (6').
- System for optimizing a device for regulating the heating of a building based on weather forecasts according to any one of Claims 1 to 13, characterized in that the heating is produced during periods in which the energy cost is reduced, then restored via accumulation heating means.
- Method for optimizing the regulation of the heating of a building based on weather forecasts based on a system according to the preceding claims, said regulation being based on an electronic regulator (1, 1', 1") comprising a regulation algorithm and supplying a temperature setpoint for the heating water of the building produced by a boiler from the outdoor temperature and from a setpoint temperature of the indoor ambient air, characterized in that it has the following steps:- acquisition, via a correction auxiliary block (6, 6', 6") connected to the electronic regulator (1, 1', 1") of parameters that are functions of characteristics specific to the building or derived from weather forecasts,- selection, by means of these parameters, of at least one value of one or more predetermined matrices stored in the auxiliary block (6, 6', 6"),- sending, to the electronic regulator (1, 1', 1") as output from the auxiliary block (6, 6', 6"), of one or more corrective parameters corresponding to values directly obtained from the matrices or processed by the auxiliary block (6, 6', 6").
- Method for optimizing the regulation of the heating of a building based on weather forecasts according to Claim 1, characterized in that, the electronic regulator (1) being based on the heating law and the corresponding heating curve, the corrective input parameters obtained from the auxiliary block (6) consist respectively of a slope correction value (Δpente) and a curve offset value (Δoffset).
- Method for optimizing the regulation of the heating of a building based on weather forecasts according to Claim 16, characterized in that the curve offset coefficient (Δoffset) is obtained by selection of a matrix value in a so-called product matrix whose values are pre-established by means of parameters characterizing the solar power, the solar input coefficient (ksoleil) and the sunlight forecast by the weather forecasts.
- Method for optimizing the regulation of the heating of a building based on weather forecasts according to Claim 17, characterized in that the parameter characterizing the solar power is obtained from a so-called solar matrix whose values are pre-established from the day's date, the periode of time and the geographic area.
- Method for optimizing the regulation of the heating of a building based on weather forecasts according to one of Claims 17 and 18, characterized in that the solar input coefficient (ksoleil) is calculated from the orientation/exposure of the house and the ratio of the m2 of glazing in sunlight to the m2 to be heated.
- Method for optimizing the regulation of the heating of a building based on weather forecasts according to one of Claims 16 to 19, characterized in that the slope correction coefficient (kpente) is obtained by selection of a matrix value in a so-called wind matrix whose values are pre-established on the basis of the wind speed that can be forecast and the environmental coefficient (kenvironnemental).
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FR2969742A1 (en) * | 2010-12-28 | 2012-06-29 | Oze En | Installation for control and regulation of heating, air treatment and cooling devices in e.g. residential building, has information capture and analysis unit to capture and analyze information relating to weather forecasts in building site |
CH707054A2 (en) * | 2012-10-03 | 2014-04-15 | Pronoó Gmbh | predictive control method, eg heating, and apparatus for implementing the method. |
CN107166504A (en) * | 2017-04-18 | 2017-09-15 | 青岛海尔空调器有限总公司 | Method of heating regulation and device |
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DE102016015503A1 (en) | 2016-12-24 | 2018-06-28 | Consolar Solare Energiesysteme Gmbh | Heating and / or cooling system with predictive energy management |
DE102016015503B4 (en) | 2016-12-24 | 2022-09-08 | Consolar Solare Energiesysteme Gmbh | Process for temperature control of at least one room in a building with prognosis and optimization of energy consumption |
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