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Comparaison 1-10 V Analogique Et DALI Numérique Comparaison DALI-1 10V BE Gradables Pour Tubes Fluorescents Et Lampes Fluocompactes | OSRAM

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Comparaison 1-10 V Analogique Et DALI Numérique Comparaison DALI-1 10V BE Gradables Pour Tubes Fluorescents Et Lampes Fluocompactes | OSRAM Eclairage à graduation par jreihem » Ven 14 Oct 2016 18:03 Bonjour les experts, Je m’interroge sur l’éclairage à graduation (variation de la luminosité d’un luminaire via un BP). Je connais la variation « dimmable » (1-10 V) et je ne connais pas bien la variation « Dali ». Quelle est différence entre de ces 2 types de variations ? Et pouvez-vous me citer les 4 systèmes de graduations les plus utilisées en ce moment, les plus en « vogue », s'il vous plaît. Dans le cas d’une variation avec de la LED, est-ce que plusieurs systèmes de variations peuvent fonctionner avec le même type de LED ? Par avance, merci pour vos réponses et je vous souhaite un bon WE. Tous les systèmes de gradation connus sont en principe également utilisables pour l’éclairage à LED : • DALI • 1-10 V (application moins fréquente dans l’éclairage à LED) • TouchDim • DMX (moins appliqué pour l’éclairage, plutôt utilisé dans le monde du théâtre). comparaison 1-10 V analogique et DALI numérique comparaison DALI-1 10V_BE gradables pour tubes fluorescents et lampes fluocompactes | OSRAM Comparaison numérique/analogique : fonctions et connexions DALI 1...10V C ommande d’entrée isolée C ommande d’entrée isolée Deux fils (sans polarité) Deux fils (avec polarité +/-) C ourbe de gradation visuelle linéaire (= logarithmique), Courbe de gradation du flux correspond à la sensibilité de l’oeil humain linéaire Adressage possible : Individuellement (max. 64 adresses) Non adressable En groupe (max. 16) Câblage par groupe nécessaire Tous ensemble -> pas de câblage d’après les groupes Mémorisation de scènes (max. 16) Pas possible Retour d’information individuel du BE DALI Pas possible Rapport sur l’état des BE DALI Défaut de lampes Pas possible Durée de vie Etat de la gradation Options de gradation individuelle Enregistrement de l’état précédent de gradation comme Pas possible valeur de démarrage Interrupteur de la tension secteur intégré (utilisation de Interrupteur externe sur la l’interface DALI pour éteindre le BE, aucun relais nécessaire) tension secteur (par ex.: Relais) Puissance et câble de commande combinés à travers : Interface TouchDIM Puissance et câble de commande Commande avec la tension secteur sans tenir compte de la combinés à travers : Isolation polarité de la phase basique -> Pas de bus de commande spécifique Bouton poussoir standard courant voir page 27 La Gestion de l’Éclairage DALI _OSRAM attention fichier de 20 Mo Eclairage à graduation_jreheim_forum volta 1 / 11 02/11/16 systèmes de gestion de l’éclairage OSRAM_constructeur Technologies | Systèmes de gestion de l éclairage | OSRAM DALI | Technologies | OSRAM 1...10 V |Technologies| OSRAM DMX | Technologies | OSRAM e:bus | Technologies | OSRAM EnOcean | Technologies | OSRAM Eclairage extérieur gradable | OSRAM Powerline | Technologies | OSRAM Touch DIM | Connaissance des produits | OSRAM Gradation : théorie • Introduction • Les lampes et la gradation • La théorie de la gradation • Introduction • Le découpage de phase • PWM • La théorie de la commande • Le 1/10V (ou 0/10V) • Le Bouton Poussoir (appelé également BP ou "switch control") et fonction Corridor • Le DSI (Digital Serial Interface) Il s'agit d'un protocole propre à la société TRIDONIC • Le DALI (Digital Addressable Lighting Interface) • Le DMX • Le "sans fil" (wireless) • Les Courants Porteurs en Ligne (CPL) • Power over Ethernet (PoE) • La GTB/GTC • Synthèse La gradation consiste à pouvoir moduler le flux d'une source lumineuse à partir d'un dispositif de commande manuel (bouton poussoir par exemple) ou automatique (détecteur de luminosité par exemple) : ces deux notions de gradation et de commande sont indissociables, et les composants et les modes de fonctionnement s’entremêlent. → Voir le tableau synthétique ci-dessous. Commande : Gradation : transmission de l’information de gradation fonctionnement en lui-même C omposant Codage/décodage Mode de Composant principal C omposant annexe ou protocole fonctionnement - Variateur à - Interrupteur découpage bouton poussoir 1-10V de phase - Routeurs - Variation de - Potentiomètre 1/10V - Bouton poussoir - Ballast et fréquence - Relais alimentation - Interface tactile - DALI électronique - Découpage - Alimentation de phase gradable ( ) - Détecteur de présence - DSI ECG - Convertisseurs - PWM - Détecteur de mouvement - DMX... - Réducteur de puissance - Détecteur de luminosité.. avec magnétique spécifique Attention aux confusions Attention à ne pas confondre les différents termes qui sont souvent superposés/mélangés et qui peuvent désigner des composants et/ou des modes de fonctionnement. Electronic control gear ECG = ballasts électroniques Eclairage à graduation_jreheim_forum volta 2 / 11 02/11/16 Les lampes et la gradation Faire varier le flux d'une lampe peut être réalisé grâce à différentes techniques qui dépendent de la technologie de la source : - la variation à découpage de phase pour lampes incandescences/halogènes, → voir ci-dessous - la réduction de puissance associé à un ballast magnétique spécifique pour les lampes à décharge de forte puissance (c'est-à-dire >150 W) : il ne s'agit d'ailleurs pas à proprement parler de gradation mais plutôt de passer le flux de 100% à un seuil à 40/50% - l'augmentation de la fréquence du courant (passage de 40 à 90 000 Hz par exemple) pour augmenter l'impédance et donc diminuer l'intensité du courant et la puissance pour les lampes à décharge dont la puissance est ≤150 W - la modulation de largeur d’impulsions d’un signal (PWM) des alimentations électroniques gradable pour les LED, → voir ci-dessous. Gradations des sources Il parait peut-être naturel de pouvoir faire varier le flux lumineux des sources - car des habitudes ont été prises par le particulier pendant des années notamment avec les lampadaires halogènes - mais faire varier le flux à l'intérieur d'une lampe peut se révéler compliqué. En effet, suivant leur fonctionnement et leur année de création, les sources n'ont pas forcément été prévues pour la gradation (lampes sodium ou halogénures par exemple) ou n'ont pas un principe de fonctionnement qui leur permettent de changer la valeur de leur flux lumineux : il est par exemple impossible que les lampes sodium ou halogénures fonctionnent actuellement à petite puissance (elles "décrochent" - voir décrochage - aux alentours de 40% du flux). ( → voir la page de la performance) Voir le tableau récapitulatif ci-dessous : Type de Sous-type de Composant de la Principe de fonctionnement Particularité source source gradation de la gradation Lampe incandescence Variateur à découpage Découpage de phase ou halogène de phase Fluorescence Augmentation de la fréquence L'efficacité pour augmenter l'impédance diminue avec Sodium/halogénures Ballast électronique gradable donc diminuer l'intensité du la baisse du métalliques courant, donc la puissance et * flux (Puissance ≤150W) donc le flux lumineux Réducteur de puissance sur Lampes un unique seuil (de 100% à L'efficacité à décharge Sodium/halogénures environ 40/50%) avec un diminue avec métalliques Autre seuil de travail ballast magnétique la baisse du (Puissance >150W) spécifique à deux flux enroulements Sodium basse pression et vapeur de Impossible mercure Modulation de largeur L'efficacité Alimentation électronique d’impulsions (PWM) et/ou s'améliore LED / OLED gradable modulation d'amplitude (AM) avec la baisse d’un signal du flux * Décrochage vers 40% du flux donc attention au mode de commande (notamment bouton poussoir et 1/10V) : si la lampe décroche, il est alors nécessaire d'attendre qu'elle refroidisse pour la rallumer, ce qui peut durer quelques minutes Eclairage à graduation_jreheim_forum volta 3 / 11 02/11/16 La théorie de la commande A noter Ces différents protocole ou codage/décodage sont théoriquement adaptables à toutes les techniques de gradation mais la pratique rend certaines compatibilités peu pertinentes, se référer aux documentations des fabricants pour plus de détails. Voici un résumé des différents moyens de transmettre la c ommande de la gradation, sachant que chaque bâtiment a sa propre spécificité et que les solutions en constante évolution sont à appliquer au cas par cas (de plus, différents protocoles peuvent être utilisés de manière concomitante, par exemple du 1-10 V avec un bus DALI) Protocole Idée Type Perturbations C omplexité Performance Scenario Prix de d'utilisation commande Application Analogique Sensible Faible Faible Non Très faible 1-10 V très localisée Bouton Lampadaire, Peu sensible Moyen Moyenne Non Faible Poussoir petit bâtiment DSI Bâtiment de taille Numérique Peu sensible Moyen Bonne Possible Moyen DALI moyenne broadcast* Bâtiment de Numérique grande Peu sensible Forte Très bonne Possible C her DALI adressable taille Gestion Numérique dynamique de Peu sensible Forte Non applicable Possible C her DMX adressable la couleur Sans fil Variable Variable Variable Variable Variable Courant Eclairage Numérique Très sensible Moyen Bonne Possible Moyen Porteur en extérieur adressable Ligne Power Bâtiment du Numérique Peu sensible Forte Très bonne Possible Moyen Over futur ? adressable Ethernet DALI broadcast : utilisation de ballast dit "DALI" de façon simplifiée, c'est-à-dire sans adressage et avec flux monodirectionnel, → voir broadcast. Broadcast : en communication et informatique, diffusion de l'information à plusieurs récepteurs en même temps (opposée au point par point possible dès que les composants sont adressés, → voir adressage). Adresse IP : adresse d'un composant suivant le protocole IP (Internet Protocol). Cette adresse est de type xxx.xxx.xxx.xxx, par exemple pour
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