https://wikifab.org/w/api.php?action=feedcontributions&feedformat=atom&user=PierreWikifab - Contributions de l’utilisateur [fr]2026-06-13T23:26:57ZContributions de l’utilisateurMediaWiki 1.31.3https://wikifab.org/w/index.php?title=Drone_aile_%C3%A0_double_empennage&diff=50115Drone aile à double empennage2018-08-03T14:05:58Z<p>Pierre : </p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|Main_Picture=Drone_aile_à_double_empennage_OIO_Wilbur_mai.png<br />
|Licences=Attribution-ShareAlike (CC BY-SA)<br />
|Description=<translate><!--T:1--> Drone pour réaliser de la cartographie aérienne.</translate><br />
|Area=Art, Electronics, Machines and Tools, Sport and Outside, Play and Hobbies, Recycling and Upcycling, Robotics, Science and Biology, Transport and Mobility<br />
|Type=Creation<br />
|Difficulty=Hard<br />
|Duration=4<br />
|Duration-type=day(s)<br />
|Cost=180<br />
|Currency=EUR (€)<br />
|Tags=Drone, Aile, Cartographie, Drone, Photographie, diy, Impression 3D, Découpe Laser<br />
|SourceLanguage=none<br />
|Language=fr<br />
|IsTranslation=0<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=<translate><!--T:2--><br />
"Ocean is Open" développe des solutions opensource et DIY pour les océans. Ce tutoriel décrit la fabrication d'un drone "lourd" pour pouvoir réaliser de la cartographie aérienne et d'un poids visé de 1500g. Cette version d'aile drone est qualifiée de "lourde" en raison de sa grande envergure et de son grand fuselage pour une grande capacité d'emport.<br />
<br />
<!--T:3--><br />
Dans le cadre de l'exploration "[https://www.we-explore.org/exploremag/nos-explorations/ocean-is-open/ Ocean is Open]", le projet Wilbur a pour objectif de développer des drones à faibles coûts et modulables pour le suivi temporel ortho-photographiques de milieux environnementaux littoraux (trait de côte, estuaires) et terrestres (bocages, zones humides, forêts, …). Les caractéristiques techniques des drones permettront de les construire localement (au sein de FabLabs, de lycées techniques, d’universités) et d’utiliser les données collectées (images et ortho-photographie) par les acteurs locaux impliqués dans le suivi de l’environnement (service de l’état, associations, collectivités...).<br />
<br />
<!--T:4--><br />
Une version "légère" de ce drone (inférieure à 800g) est décrite dans ce wiki : [[Drone aile à empennage double - version léger -]]</translate><br />
}}<br />
{{ {{tntn|Materials}}<br />
|Step_Picture_00=Drone_aile_à_double_empennage_WilburSpecter_Rendering2.JPG<br />
|Step_Picture_01=Drone_aile_à_double_empennage_OIO_Wilbur_mai_4_.jpg<br />
|Material=<translate><!--T:5--><br />
- 2 Feuilles de dépron 3mm (80x100mm) ,<br />
<br />
<!--T:6--><br />
- 2 Feuilles "carton-plume" 3 ou 5 mm (80 x 100mm idéal) ,<br />
<br />
<!--T:7--><br />
- 2 mètres linéaire tige diamètre 10 mm ( matériaux plutôt léger ) [ ici Aluminium creux en 2 section ] ,<br />
<br />
<!--T:8--><br />
- 1 kit électronique de vol [ [https://store.flitetest.com/power-pack-c-fixed-wing-large/ suggestion] + accu] ,<br />
<br />
<!--T:9--><br />
- Scotch d'emballage de couleur ou transparent ,<br />
<br />
<!--T:10--><br />
'''Facultatif'''<br />
<br />
<!--T:11--><br />
- Environ 500 grammes de PLA pour Impression 3D (peut faire sans),<br />
<br />
<!--T:12--><br />
- Scotch "armé",</translate><br />
|Tools=<translate><!--T:13--><br />
- 1 Pistolet à colle & ses recharges<br />
<br />
<!--T:14--><br />
- 1 Cutter<br />
<br />
<!--T:15--><br />
- Une règle de bonne taille <br />
<br />
<!--T:16--><br />
- Colle forte ( cyanoacrylate ) <br />
<br />
<!--T:17--><br />
- Un crayon feutre <br />
<br />
<!--T:18--><br />
'''Facultatif'''<br />
<br />
<!--T:19--><br />
- Imprimante 3D ( il faudra improviser sans mais ça le fait ! )<br />
<br />
<!--T:20--><br />
- Découpeuse laser (une imprimante [ oui pour papier ] & un cutter font l'affaire)</translate><br />
|Prerequisites={{ {{tntn|Prerequisites}}<br />
|Prerequisites=Imprimer un objet avec ULTIMAKER<br />
}}<br />
|Tuto_Attachments={{ {{tntn|Tuto Attachments}}<br />
|Attachment=Winglet.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=WingletBas.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=WIngletHaut.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=SupportAiledEmpennageGauche.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=SupportAiledEmpennage.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=NevureNacaN10.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=SupportSousAile.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Support moteur.STL<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Support tige plate.STL<br />
}}<br />
}}<br />
{{ {{tntn|Separator}}}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:21--> L'aile</translate><br />
|Step_Content=<translate><!--T:22--> On part sur aile de 1 mètre 20 d'envergure, en dépron laminé au scotch et avec un profil déterminé (NACA N-10). Le profil est faisable dans la mesure où on a accès à l'impression 3D.</translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_AIle.png<br />
|Step_Picture_01=Drone_aile_à_double_empennage_AileWilburSpecter.png<br />
|Step_Picture_02=Drone_aile_à_double_empennage_AileNervures.png<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:23--> Les nervures en Impression 3D</translate><br />
|Step_Content=<translate><!--T:24--><br />
C.F. page [[Marvin|tuto impression 3D]] si besoin<br />
# Le nombre de nervures à imprimer en 3D dépendra de l'espacement entre nervure et de l'envergure souhaité. Nous en avons imprimé 12 espacé de 10cm. <br />
# Il faut aussi imprimer les deux bloques qui viennent se placer entre deux nervures pour ensuite y venir fixer l'empennage. Prendre en compte dans l'espacement des nervures [voir 2ème image]</translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_Nervure.png<br />
|Step_Picture_01=Drone_aile_à_double_empennage_SupporAileEmpennage.png<br />
|Step_Picture_02=Drone_aile_à_double_empennage_AileNervures.png<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:25--> Ailette de bout d'aile en Impression 3D ( facultatif )</translate><br />
|Step_Content=<translate><!--T:26--> Imprimé en 3D en ayant été séparé en deux par soucis de hauteur d'impression.</translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_WingletRendered.png<br />
|Step_Picture_01=Drone_aile_à_double_empennage_IMAG0695.jpg<br />
|Step_Picture_02=Drone_aile_à_double_empennage_IMAG0696.jpg<br />
|Step_Picture_03=Drone_aile_à_double_empennage_WingletHaut.png<br />
|Step_Picture_04=Drone_aile_à_double_empennage_WingletBas.png<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:27--> Construction de l'aile</translate><br />
|Step_Content=<translate><!--T:28--><br />
'''Matériaux utilisés :'''<br />
<br />
<!--T:29--><br />
''- 2 Feuilles de dépron 3mm (80x100mm) ,''<br />
<br />
<!--T:30--><br />
''- 2 mètres linéaire tige diamètre 10 mm [ ici Aluminium creux en 2 section ] ,''<br />
<br />
<!--T:31--><br />
''- Scotch d'emballage de couleur ou transparent ,''<br />
<br />
<!--T:32--><br />
Les différentes pièces montrées dans les deux étapes précédentes <br />
<br />
<!--T:33--><br />
( ou pas si vous faites sans impression 3D )<br />
<br />
<!--T:34--><br />
<u>Assemblage</u><br />
<br />
<!--T:35--><br />
Les tiges creuses en aluminium servent de supports horizontaux des nervures et donnent de la rigidités à l'aile. L'aluminium est rigide et possède une bonne résistance à la flexion sur la longueur (1m20)<br />
<br />
<!--T:36--><br />
<u>Collage des nervures</u> sur la tige avec la colle forte.<br />
<br />
<!--T:37--><br />
{{Info|La colle se met après avoir espacé et assemblé les nervures (et les deux blocs !) sur la tige.}}<br />
<br />
<!--T:38--><br />
<u>Collage du dépron</u><br />
<br />
<!--T:39--><br />
{{Info|Le dépron aura été laminé (au scotch transparent) avant de le replier sur l'armature de l'aile}}<br />
<br />
<!--T:40--><br />
En repliant le dépron, ajuster la longueur de la plaque en la coupant au cutter. <br />
<br />
<!--T:41--><br />
Puis une fois tout aligné, coller au pistolet à colle chaude sur les nervures !</translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_IMAG0668.jpg<br />
|Step_Picture_01=Drone_aile_à_double_empennage_IMAG0669.jpg<br />
|Step_Picture_02=Drone_aile_à_double_empennage_IMAG0670.jpg<br />
|Step_Picture_03=Drone_aile_à_double_empennage_IMAG0667.jpg<br />
|Step_Picture_04=Drone_aile_à_double_empennage_IMAG0677.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:42--> Le fuselage</translate><br />
|Step_Content=<translate><!--T:43--><br />
* Le Fuselage est en "carton-plume" de 5 mm d'épaisseur (Dépron en "sandwich" entre deux feuilles).<br />
* A partir du modèle 3D ( ci-contre ) un patron a été créé en un fichier DXF. (découpe laser ou au cutter en imprimant le patron sur feuilles A4).<br />
<br />
<!--T:44--><br />
* A l'aide d'un pistolet à colle il faut ensuite tout replier et coller sur soi-même en découpant de l'épaisseur du matériaux sur le bord de replie ( ici 5 mm ) mais sans couper l'autre feuille de papier du côté extérieur du sandwich. Le fait de faire des rainures du côté intérieur de la courbure du fuselage, et pareil encore en coupant partiellement, permet de replier facilement le patron.<br />
* Ensuite coller au pisto-colle.<br />
* Il y la possibilité de rajouter un supporter</translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_Fuselage.png<br />
|Step_Picture_01=Drone_aile_à_double_empennage_FuselageDXF.png<br />
|Step_Picture_02=Drone_aile_à_double_empennage_IMAG0654.jpg<br />
|Step_Picture_03=Drone_aile_à_double_empennage_IMAG0665.jpg<br />
|Step_Picture_04=Drone_aile_à_double_empennage_IMAG0663.jpg<br />
|Step_Picture_05=Drone_aile_à_double_empennage_IMAG0712.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:45--> L'empennage</translate><br />
|Step_Content=<translate><!--T:46--><br />
* Pour l'empennage, une simple feuille de dépron pliée en deux et les deux tiges reliant à l'aile fixé sur deux petit blocs imprimés en 3D. <br />
* On voulais que l'empennage soit démontable et nous avons donc modélisées et imprimées deux pièces où la tige vient se glisser<br />
* Le servomoteur actionne le flap arrière.<br />
* 2 tiges ont été ajoutée pour renforcer</translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_OIO_Wilbur_EmpennageV2.jpg<br />
|Step_Picture_01=Drone_aile_à_double_empennage_OIO_Wilbur_mai_3_.jpg<br />
|Step_Picture_02=Drone_aile_à_double_empennage_RenderingblocEmpennage.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=<translate><!--T:47--> Résultat final</translate><br />
|Step_Content=<translate></translate><br />
|Step_Picture_00=Drone_aile_à_double_empennage_OIO_Wilbur_mai_4_.jpg<br />
}}<br />
{{ {{tntn|Notes}}<br />
|Notes=<translate></translate><br />
}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Published<br />
}}</div>Pierrehttps://wikifab.org/w/index.php?title=Batvision_:_dans_la_peau_d%27une_chauve-souris&diff=40557Batvision : dans la peau d'une chauve-souris2018-06-06T08:40:03Z<p>Pierre : </p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|Type=Creation<br />
|Area=Electronics, Sport and Outside<br />
|Tags=pédagogie, arduino, echolocation<br />
|Description=Fabriquer un dispositif pour se mettre dans la peau d'une chauve-souris, à partir d'un casque audio et d'une carte Arduino.<br />
|Difficulty=Medium<br />
|Cost=90<br />
|Currency=EUR (€)<br />
|Duration=5<br />
|Duration-type=hour(s)<br />
|Licences=Attribution-ShareAlike (CC BY-SA)<br />
|Main_Picture=_Echolocation_batvision_web.JPG<br />
|SourceLanguage=none<br />
|Language=fr<br />
|IsTranslation=0<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=Cette animation originale permet de comprendre le mode de déplacement de type "sonar" des chauve-souris par une approche sensorielle. C'est un outil ludique basé sur la coopération particulièrement adapté dans le cadre d'animations en extérieur. <br />
Muni d'un casque audio et les yeux bandés, l'enfant réalise un parcours en évitant des obstacles. Ces obstacles sont des panneaux que d'autres participants déplacent pour l'aider à rejoindre son point d'arrivée.<br />
Sur le casque, 2 "oreilles" accueillent des capteurs de distance qui émettent des "bips" à une fréquence qui s'accélère à mesure que l'on s'approche d'un obstacle, à la manière d'un signal de recul de voiture.<br />
Se déplaçant d'un obstacle à l'autre, l'enfant comprend qu'il est sur le bon chemin quand les "bips" disparaissent car cela signifie que la voie est libre.<br />
<br />
Le dispositif électronique est géré par une Arduino et un circuit imprimé comprenant quelques composants, alimentés en 5v par une batterie externe, l'ensemble est glissé dans la poche de l'enfant pendant le parcours.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Step_Picture_00=_Echolocation_chauve_souris.JPG<br />
|Material=Matériel électronique :<br />
<br />
1 casque stéréo <br />
<br />
2 capteurs infrarouge HC-RC04<br />
<br />
Ampli TDA1308<br />
<br />
1 Arduino Uno<br />
<br />
1 alimentation portable 5v + cordon USB/microUSB<br />
<br />
1 connecteur jack stereo femelle<br />
<br />
Accessoires :<br />
<br />
1 cape en tissu pour ressembler à une chauve-souris !<br />
<br />
1 masque de nuit occultant <br />
<br />
2 panneaux bois pour les obstacles de dimensions 1m x 1m (épaisseur au choix)<br />
<br />
1 plaque bois ou acrylique 400X400X3mm et 2 piquets d'1m50 pour fabriquer les drapeaux de départ et d'arrivée (bois, plastique ou métal)<br />
<br />
2 oreilles porte-capteurs (à imprimer 3D)<br />
<br />
1 boîtier pour loger la carte Arduino et l'ampli audio (à imprimer 3D)<br />
<br />
Fournitures diverses :<br />
<br />
gaine thermorétractable 10mm<br />
<br />
1m de cable<br />
<br />
colliers de serrage plastique Ø3mm<br />
<br />
petite visserie<br />
|Tools=fer à souder<br />
<br />
pinces coupantes, tournevis,...<br />
<br />
imprimante 3D pour les oreilles porte-capteurs et le boîtier<br />
<br />
scie sauteuse ou découpeuse laser ou grande fraiseuse numérique pour découper les panneaux obstacles et les drapeaux de départ et d'arrivée<br />
<br />
pistolet à colle pour fixer les capteurs aux supports.<br />
|Tuto_Attachments={{ {{tntn|Tuto Attachments}}<br />
|Attachment=Batvision-v2.ino<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Support HC SR04 v3.stl<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Support HC SR04 v3 SYM.stl<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Support HC SR04-gauche.stl<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Support HC SR04-Droite.stl<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Arduino case.stl<br />
}}{{ {{tntn|Tuto Attachments}}<br />
|Attachment=Couvercle Chauve souris.svg<br />
}}<br />
}}<br />
{{ {{tntn|Separator}}}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_panneaux_en_nature.JPG<br />
|Step_Picture_01=_Echolocation_panneau_obstacle_2.JPG<br />
|Step_Title=Fabrication des accessoires : les panneaux obstacles (graveuse laser ou fraiseuse numérique ou scie-sauteuse)<br />
|Step_Content=2 panneaux sont nécessaires pour créer les obstacles du parcours. Ces panneaux seront portés par les accompagnants ou d'autres participants pour guider l'enfant du point de départ au point d'arrivée. Ils peuvent être découpés à la main ou à la machine, puis décorés selon l'envie et les moyens : dessins d'arbres, d'animaux,... <br />
<br />
Il faut qu'ils soient de taille suffisamment importante pour que les capteurs de distance les détectent et donc qu'ils soient efficaces (1m x 1m par exemple). On perce un trou ovale au centre pour que les porteurs y glissent leurs têtes, ce qui rend l'animation d'autant plus ludique !<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=Echolocation_drapeaux_arriv_e_d_part.JPG<br />
|Step_Picture_01=Echolocation_panneau_obstacle_2.JPG<br />
|Step_Title=Fabrication des accessoires : les drapeaux de départ et d'arrivée (graveuse laser)<br />
|Step_Content=2 triangles à découper à la main ou à la découpeuse laser pour matérialiser le départ et l'arrivée du parcours. Une fois découpés, il suffit de les fixer à des piquets avec les colliers de serrage. Ils pourront ensuite être plantés directement dans la terre lors de l'animation.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=Echolocation_porte_capteur.png<br />
|Step_Picture_01=Echolocation_boitier.png<br />
|Step_Title=Fabrication des accessoires : les oreilles porte-capteurs et le boîtier Arduino (impression 3D)<br />
|Step_Content=<u>Les oreilles :</u> les capteurs de distance HC-SR04 vont se loger dans ces petits boîtiers en forme d'oreilles de chauve-souris, qui viendront se fixer par clip (ou avec des colliers de serrage) sur le casque audio. 2 formats dispos dans les fichiers attachés, dont l'un est adapté pour se clipper sur [https://www.cdiscount.com/high-tech/casques-baladeur-hifi/jvc-ha-kd5-casque-garcon-jaune-bleu/f-106542001-jvc4975769394836.html cette version] de casque.<br />
<br />
<u>Le boîtier pour la carte Arduino</u> : il servira à protéger la carte Arduino et l'ampli audio. Il se compose d'une boîte à imprimer en 3d et de son couvercle coulissant à découper à la laser.<br />
<br />
> Boîte :<br />
<br />
- matériau : PLA<br />
<br />
- temps d'impression : 4 heures avec 0,1mm de taille de couche, 10% de remplissge<br />
<br />
> Couvercle :<br />
<br />
- matériau : plexi ou medium 3mm<br />
<br />
- temps de découpe : 1 minute environ.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=Echolocation_sch_ma_chauve_souris.jpg<br />
|Step_Picture_01=_Echolocation_ampli_audio.JPG<br />
|Step_Picture_02=_Echolocation_arduino.png<br />
|Step_Picture_03=_Echolocation_capteur_ultrason.jpeg<br />
|Step_Picture_04=_Echolocation_jack_3_bagues.jpeg<br />
|Step_Picture_05=_Echolocation_ampli_sur_shield_arduino-2.JPG<br />
|Step_Title=Connecter l'ampli et les capteurs de distance à l'Arduino<br />
|Step_Content=Attention voilà le moment tricky à ne pas rater !<br />
<br />
Sur votre shield de test ou votre board classique :<br />
<br />
- soudez des fils depuis les bornes + et – de chacun des capteurs (prévoir une longueur d'au moins 1m)<br />
<br />
- entourez les fils et le cable jack audio ensemble de gaine thermo-rétractable puis chauffer la gaine pour rétractation<br />
<br />
- câblez les capteurs, l'ampli audio et le jack femelle en suivant le schéma (1)<br />
<br />
- le schéma (2) pour vous aider à souder les fils de la prise casque, à adapter en fonction de vos éléments<br />
<br />
- lors de vos tests après l'étape suivante, si vous constatez que les oreilles droite et gauche sont inversées, vous pouvez inverser les deux fils de sortie sur la prise casque (en jaune et orange sur le schéma 1).<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_arduino.png<br />
|Step_Title=Etape 5 : Chargement du code Arduino<br />
|Step_Content=Branchez la carte Arduino en USB au PC<br />
<br />
A l'aide du logiciel ArduinoIDE, uploadez le code "Batvision-v2.ino" dans l'Arduino.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_capteur_et_oreille.JPG<br />
|Step_Title=Insertion des capteurs dans les oreilles et fixation au casque<br />
|Step_Content=A l'aide du pistolet à colle, fixez les capteurs dans les oreilles.<br />
<br />
Attention à mettre le bon capteur dans la bonne oreille : celles-ci sont inclinées vers l'extérieur. <br />
<br />
Clippez les oreilles sur le casque ou fixez-les avec des colliers de serrage.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_DSC_8731bis.JPG<br />
|Step_Picture_01=Echolocation_chauve_souris.JPG<br />
|Step_Title=Test du dispositif<br />
|Step_Content=- Connectez le shield (ou la carte de test) sur l'Arduino.<br />
<br />
- Branchez le casque à la prise jack.<br />
<br />
- Branchez la batterie USB 5v à la carte Arduino.<br />
<br />
- Mettre le casque sur vos oreilles, approcher la main près de l'un des capteurs : des "bips" doivent retentir dans le casque du côté correspondant.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_IMG_1123.JPG<br />
|Step_Title=Aménagement de l'espace / lancement de l'animation<br />
|Step_Content=- Placez un drapeau "départ" à environ 10m de celui d'arrivée<br />
<br />
- enfilez la cape et le bandeau pour cacher les yeux de l'enfant<br />
<br />
- lui mettre le casque et faire tester le déclenchement des bips dans les oreilles en fonction des obstacles à droite ou à gauche<br />
<br />
- demander à 2 personnes de porter les panneaux pour devenir les obstacles qui se déplaceront pour guider l'enfant<br />
<br />
- laisser l'enfant partir dans la direction de son choix, les 2 "obstacles" se déplacent pour le guider jusqu'à l'arrivée.<br />
<br />
Ca y est La chauve-souris se déplace !<br />
}}<br />
{{ {{tntn|Notes}}<br />
|Notes=<br />
}}<br />
{{ {{tntn|Tuto Status}}}}</div>Pierrehttps://wikifab.org/w/index.php?title=Batvision_:_dans_la_peau_d%27une_chauve-souris&diff=40556Batvision : dans la peau d'une chauve-souris2018-06-06T08:23:04Z<p>Pierre : </p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|Type=Creation<br />
|Area=Electronics, Sport and Outside<br />
|Tags=pédagogie, arduino, echolocation<br />
|Description=Fabriquer un dispositif pour se mettre dans la peau d'une chauve-souris, à partir d'un casque audio et d'une carte Arduino.<br />
|Difficulty=Medium<br />
|Cost=90<br />
|Currency=EUR (€)<br />
|Duration=5<br />
|Duration-type=hour(s)<br />
|Licences=Attribution-ShareAlike (CC BY-SA)<br />
|Main_Picture=_Echolocation_batvision_web.JPG<br />
|SourceLanguage=none<br />
|Language=fr<br />
|IsTranslation=0<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=Cette animation originale permet de comprendre le mode de déplacement de type "sonar" des chauve-souris par une approche sensorielle. C'est un outil ludique basé sur la coopération particulièrement adapté dans le cadre d'animations en extérieur. <br />
Muni d'un casque audio et les yeux bandés, l'enfant réalise un parcours en évitant des obstacles. Ces obstacles sont des panneaux que d'autres participants déplacent pour l'aider à rejoindre son point d'arrivée.<br />
Sur le casque, 2 "oreilles" accueillent des capteurs de distance qui émettent des "bips" à une fréquence qui s'accélère à mesure que l'on s'approche d'un obstacle, à la manière d'un signal de recul de voiture.<br />
Se déplaçant d'un obstacle à l'autre, l'enfant comprend qu'il est sur le bon chemin quand les "bips" disparaissent car cela signifie que la voie est libre.<br />
<br />
Le dispositif électronique est géré par une Arduino et un circuit imprimé comprenant quelques composants, alimentés en 5v par une batterie externe, l'ensemble est glissé dans la poche de l'enfant pendant le parcours.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Step_Picture_00=_Echolocation_chauve_souris.JPG<br />
|Material=Matériel électronique :<br />
<br />
1 casque stéréo <br />
<br />
2 capteurs infrarouge HC-RC04<br />
<br />
Ampli TDA1308<br />
<br />
1 Arduino Uno<br />
<br />
1 alimentation portable 5v + cordon USB/microUSB<br />
<br />
1 connecteur jack stereo femelle<br />
<br />
Accessoires :<br />
<br />
1 cape en tissu pour ressembler à une chauve-souris !<br />
<br />
1 masque de nuit occultant <br />
<br />
2 panneaux bois pour les obstacles de dimensions 1m x 1m (épaisseur au choix)<br />
<br />
1 plaque bois ou acrylique 400X400X3mm et 2 piquets d'1m50 pour fabriquer les drapeaux de départ et d'arrivée (bois, plastique ou métal)<br />
<br />
2 oreilles porte-capteurs (à imprimer 3D)<br />
<br />
1 boîtier pour loger la carte Arduino et l'ampli audio (à imprimer 3D)<br />
<br />
Fournitures diverses :<br />
<br />
gaine thermorétractable 10mm<br />
<br />
1m de cable<br />
<br />
colliers de serrage plastique Ø3mm<br />
<br />
petite visserie<br />
|Tools=fer à souder<br />
<br />
pinces coupantes, tournevis,...<br />
<br />
imprimante 3D pour les oreilles porte-capteurs et le boîtier<br />
<br />
scie sauteuse ou découpeuse laser ou grande fraiseuse numérique pour découper les panneaux obstacles et les drapeaux de départ et d'arrivée<br />
<br />
pistolet à colle pour fixer les capteurs aux supports.<br />
|Tuto_Attachments={{ {{tntn|Tuto Attachments}}<br />
|Attachment=Batvision-v2.ino<br />
}}<br />
}}<br />
{{ {{tntn|Separator}}}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_panneaux_en_nature.JPG<br />
|Step_Picture_01=_Echolocation_panneau_obstacle_2.JPG<br />
|Step_Title=Fabrication des accessoires : les panneaux obstacles (graveuse laser ou fraiseuse numérique ou scie-sauteuse)<br />
|Step_Content=2 panneaux sont nécessaires pour créer les obstacles du parcours. Ces panneaux seront portés par les accompagnants ou d'autres participants pour guider l'enfant du point de départ au point d'arrivée. Ils peuvent être découpés à la main ou à la machine, puis décorés selon l'envie et les moyens : dessins d'arbres, d'animaux,... <br />
<br />
Il faut qu'ils soient de taille suffisamment importante pour que les capteurs de distance les détectent et donc qu'ils soient efficaces (1m x 1m par exemple). On perce un trou ovale au centre pour que les porteurs y glissent leurs têtes, ce qui rend l'animation d'autant plus ludique !<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=Echolocation_drapeaux_arriv_e_d_part.JPG<br />
|Step_Picture_01=Echolocation_panneau_obstacle_2.JPG<br />
|Step_Title=Fabrication des accessoires : les drapeaux de départ et d'arrivée (graveuse laser)<br />
|Step_Content=2 triangles à découper à la main ou à la découpeuse laser pour matérialiser le départ et l'arrivée du parcours. Une fois découpés, il suffit de les fixer à des piquets avec les colliers de serrage. Ils pourront ensuite être plantés directement dans la terre lors de l'animation.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=Echolocation_porte_capteur.png<br />
|Step_Picture_01=Echolocation_boitier.png<br />
|Step_Title=Fabrication des accessoires : les oreilles porte-capteurs et le boîtier Arduino (impression 3D)<br />
|Step_Content=<u>Les oreilles :</u> les capteurs de distance HC-SR04 vont se loger dans ces petits boîtiers en forme d'oreilles de chauve-souris, qui viendront se fixer par clip (ou avec des colliers de serrage) sur le casque audio. 2 formats dispos dans les fichiers attachés, dont l'un est adapté pour se clipper sur [https://www.cdiscount.com/high-tech/casques-baladeur-hifi/jvc-ha-kd5-casque-garcon-jaune-bleu/f-106542001-jvc4975769394836.html cette version] de casque.<br />
<br />
<u>Le boîtier pour la carte Arduino</u> : il servira à protéger la carte Arduino et l'ampli audio. Il se compose d'une boîte à imprimer en 3d et de son couvercle coulissant à découper à la laser.<br />
<br />
> Boîte :<br />
<br />
- matériau : PLA<br />
<br />
- temps d'impression : 4 heures avec 0,1mm de taille de couche, 10% de remplissge<br />
<br />
> Couvercle :<br />
<br />
- matériau : plexi ou medium 3mm<br />
<br />
- temps de découpe : 1 minute environ.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=Echolocation_sch_ma_chauve_souris.jpg<br />
|Step_Picture_01=_Echolocation_ampli_audio.JPG<br />
|Step_Picture_02=_Echolocation_arduino.png<br />
|Step_Picture_03=_Echolocation_capteur_ultrason.jpeg<br />
|Step_Picture_04=_Echolocation_jack_3_bagues.jpeg<br />
|Step_Picture_05=_Echolocation_ampli_sur_shield_arduino-2.JPG<br />
|Step_Title=Connecter l'ampli et les capteurs de distance à l'Arduino<br />
|Step_Content=Attention voilà le moment tricky à ne pas rater !<br />
<br />
Sur votre shield de test ou votre board classique :<br />
<br />
- soudez des fils depuis les bornes + et – de chacun des capteurs (prévoir une longueur d'au moins 1m)<br />
<br />
- entourez les fils et le cable jack audio ensemble de gaine thermo-rétractable puis chauffer la gaine pour rétractation<br />
<br />
- câblez les capteurs, l'ampli audio et le jack femelle en suivant le schéma (1)<br />
<br />
- le schéma (2) pour vous aider à souder les fils de la prise casque, à adapter en fonction de vos éléments<br />
<br />
- lors de vos tests après l'étape suivante, si vous constatez que les oreilles droite et gauche sont inversées, vous pouvez inverser les deux fils de sortie sur la prise casque (en jaune et orange sur le schéma 1).<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_arduino.png<br />
|Step_Title=Etape 5 : Chargement du code Arduino<br />
|Step_Content=Branchez la carte Arduino en USB au PC<br />
<br />
A l'aide du logiciel ArduinoIDE, uploadez le code "Batvision-v2.ino" dans l'Arduino.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_capteur_et_oreille.JPG<br />
|Step_Title=Insertion des capteurs dans les oreilles et fixation au casque<br />
|Step_Content=A l'aide du pistolet à colle, fixez les capteurs dans les oreilles.<br />
<br />
Attention à mettre le bon capteur dans la bonne oreille : celles-ci sont inclinées vers l'extérieur. <br />
<br />
Clippez les oreilles sur le casque ou fixez-les avec des colliers de serrage.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_DSC_8731bis.JPG<br />
|Step_Picture_01=Echolocation_chauve_souris.JPG<br />
|Step_Title=Test du dispositif<br />
|Step_Content=- Connectez le shield (ou la carte de test) sur l'Arduino.<br />
<br />
- Branchez le casque à la prise jack.<br />
<br />
- Branchez la batterie USB 5v à la carte Arduino.<br />
<br />
- Mettre le casque sur vos oreilles, approcher la main près de l'un des capteurs : des "bips" doivent retentir dans le casque du côté correspondant.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Picture_00=_Echolocation_IMG_1123.JPG<br />
|Step_Title=Aménagement de l'espace / lancement de l'animation<br />
|Step_Content=- Placez un drapeau "départ" à environ 10m de celui d'arrivée<br />
<br />
- enfilez la cape et le bandeau pour cacher les yeux de l'enfant<br />
<br />
- lui mettre le casque et faire tester le déclenchement des bips dans les oreilles en fonction des obstacles à droite ou à gauche<br />
<br />
- demander à 2 personnes de porter les panneaux pour devenir les obstacles qui se déplaceront pour guider l'enfant<br />
<br />
- laisser l'enfant partir dans la direction de son choix, les 2 "obstacles" se déplacent pour le guider jusqu'à l'arrivée.<br />
<br />
Ca y est La chauve-souris se déplace !<br />
}}<br />
{{ {{tntn|Notes}}<br />
|Notes=<br />
}}<br />
{{ {{tntn|Tuto Status}}}}</div>Pierrehttps://wikifab.org/w/index.php?title=Fichier:Batvision-v2.ino&diff=40555Fichier:Batvision-v2.ino2018-06-06T08:22:55Z<p>Pierre : </p>
<hr />
<div></div>Pierrehttps://wikifab.org/w/index.php?title=Aide:Create_account&diff=27505Aide:Create account2017-09-29T12:12:49Z<p>Pierre : </p>
<hr />
<div>__NOTOC__<br />
<div class="row"><br />
<div class="col-md-4 col-sm-12 col-xs-12"><br />
{{#ask:[[Category:Account]] | format=ul|?Language code}}<br />
</div><br />
<div class="col-md-8 col-sm-12 col-xs-12"><br />
<h2 class="contribuer-subtitle-first"><translate><!--T:1--> Créer un compte</translate></h2><br />
<br />
To do<br />
<br />
</div><br />
</div><br />
<br />
[[Category:Account]]</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Robot_%22ABC%22_en_bois/53/en&diff=24458Translations:Robot "ABC" en bois/53/en2017-08-23T10:01:38Z<p>Pierre : </p>
<hr />
<div>Let's start with the base by adding support with it's stack connected to the 3 green LEDs.</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Robot_%22ABC%22_en_bois/53/en&diff=24457Translations:Robot "ABC" en bois/53/en2017-08-23T09:55:22Z<p>Pierre : </p>
<hr />
<div>Let's start with the base by adding support with it's stack connected to the 3 green LEDs.</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Robot_%22ABC%22_en_bois/53/en&diff=24456Translations:Robot "ABC" en bois/53/en2017-08-23T09:54:19Z<p>Pierre : </p>
<hr />
<div>Let's start with the base by adding support with it's stack connected to the 3 green LEDs.</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Robot_%22ABC%22_en_bois/53/en&diff=24455Translations:Robot "ABC" en bois/53/en2017-08-23T09:53:52Z<p>Pierre : </p>
<hr />
<div>Let's start with the base by adding support with it's stack connected to the 3 green LEDs.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24452Horloge de Fibonacci/en2017-08-23T09:05:19Z<p>Pierre : Page créée avec « It is so 9:25 »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
and blue squares count for both hours and minutes.<br />
<br />
We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps.<br />
<br />
<br />
Exemple, on the below picture :<br />
<br />
We addition red and blue squares for hours, it gives :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
and green and blue squares for minutes, multiplied by 5, it gives : <br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
It is so 9:25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/112/en&diff=24451Translations:Horloge de Fibonacci/112/en2017-08-23T09:05:17Z<p>Pierre : Page créée avec « It is so 9:25 »</p>
<hr />
<div>It is so 9:25</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24450Horloge de Fibonacci/en2017-08-23T09:04:45Z<p>Pierre : Page créée avec « and green and blue squares for minutes, multiplied by 5, it gives : (1 + 1 + 3 ) * 5 = 25min »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
and blue squares count for both hours and minutes.<br />
<br />
We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps.<br />
<br />
<br />
Exemple, on the below picture :<br />
<br />
We addition red and blue squares for hours, it gives :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
and green and blue squares for minutes, multiplied by 5, it gives : <br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/111/en&diff=24449Translations:Horloge de Fibonacci/111/en2017-08-23T09:04:43Z<p>Pierre : Page créée avec « and green and blue squares for minutes, multiplied by 5, it gives : (1 + 1 + 3 ) * 5 = 25min »</p>
<hr />
<div>and green and blue squares for minutes, multiplied by 5, it gives : <br />
(1 + 1 + 3 ) * 5 = 25min</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/110/en&diff=24448Translations:Horloge de Fibonacci/110/en2017-08-23T09:04:02Z<p>Pierre : Page créée avec « 1 + 3 + 5 = 9h »</p>
<hr />
<div>1 + 3 + 5 = 9h</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24447Horloge de Fibonacci/en2017-08-23T09:03:51Z<p>Pierre : Page créée avec « We addition red and blue squares for hours, it gives : »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
and blue squares count for both hours and minutes.<br />
<br />
We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps.<br />
<br />
<br />
Exemple, on the below picture :<br />
<br />
We addition red and blue squares for hours, it gives :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/109/en&diff=24446Translations:Horloge de Fibonacci/109/en2017-08-23T09:03:50Z<p>Pierre : Page créée avec « We addition red and blue squares for hours, it gives : »</p>
<hr />
<div>We addition red and blue squares for hours, it gives :</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24445Horloge de Fibonacci/en2017-08-23T09:02:44Z<p>Pierre : Page créée avec « Exemple, on the below picture : »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
and blue squares count for both hours and minutes.<br />
<br />
We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps.<br />
<br />
<br />
Exemple, on the below picture :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/108/en&diff=24444Translations:Horloge de Fibonacci/108/en2017-08-23T09:02:42Z<p>Pierre : Page créée avec « Exemple, on the below picture : »</p>
<hr />
<div>Exemple, on the below picture :</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24443Horloge de Fibonacci/en2017-08-23T09:02:14Z<p>Pierre : Page créée avec « We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
and blue squares count for both hours and minutes.<br />
<br />
We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/107/en&diff=24442Translations:Horloge de Fibonacci/107/en2017-08-23T09:02:12Z<p>Pierre : Page créée avec « We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps. »</p>
<hr />
<div>We get hours and minute by addition of the matching squares values. For minutes the values must be multiplied by 5, because the clock count by 5 minutes steps.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24441Horloge de Fibonacci/en2017-08-23T09:00:28Z<p>Pierre : Page créée avec « and blue squares count for both hours and minutes. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
and blue squares count for both hours and minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/106/en&diff=24440Translations:Horloge de Fibonacci/106/en2017-08-23T09:00:26Z<p>Pierre : Page créée avec « and blue squares count for both hours and minutes. »</p>
<hr />
<div>and blue squares count for both hours and minutes.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24439Horloge de Fibonacci/en2017-08-23T08:59:39Z<p>Pierre : Page créée avec « Green squares count for minutes, »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Green squares count for minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/105/en&diff=24438Translations:Horloge de Fibonacci/105/en2017-08-23T08:59:37Z<p>Pierre : Page créée avec « Green squares count for minutes, »</p>
<hr />
<div>Green squares count for minutes,</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24437Horloge de Fibonacci/en2017-08-23T08:59:23Z<p>Pierre : Page créée avec « Red squares count for hours, »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Red squares count for hours, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/104/en&diff=24436Translations:Horloge de Fibonacci/104/en2017-08-23T08:59:22Z<p>Pierre : Page créée avec « Red squares count for hours, »</p>
<hr />
<div>Red squares count for hours,</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/103/en&diff=24435Translations:Horloge de Fibonacci/103/en2017-08-23T08:58:56Z<p>Pierre : Page créée avec « 1 1 2 3 5 »</p>
<hr />
<div>1 1 2 3 5</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24434Horloge de Fibonacci/en2017-08-23T08:58:51Z<p>Pierre : Page créée avec « Squares have values of the Fibonacci sequence : »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Squares have values of the Fibonacci sequence : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/102/en&diff=24433Translations:Horloge de Fibonacci/102/en2017-08-23T08:58:49Z<p>Pierre : Page créée avec « Squares have values of the Fibonacci sequence : »</p>
<hr />
<div>Squares have values of the Fibonacci sequence :</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24432Horloge de Fibonacci/en2017-08-23T08:58:23Z<p>Pierre : Page créée avec « How to read time ? »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
How to read time ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/101/en&diff=24431Translations:Horloge de Fibonacci/101/en2017-08-23T08:58:21Z<p>Pierre : Page créée avec « How to read time ? »</p>
<hr />
<div>How to read time ?</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24430Horloge de Fibonacci/en2017-08-23T08:58:15Z<p>Pierre : Page créée avec « You can plug your clock, and learn how to read time. :) »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=You can plug your clock, and learn how to read time. :)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/100/en&diff=24429Translations:Horloge de Fibonacci/100/en2017-08-23T08:58:14Z<p>Pierre : Page créée avec « You can plug your clock, and learn how to read time. :) »</p>
<hr />
<div>You can plug your clock, and learn how to read time. :)</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24428Horloge de Fibonacci/en2017-08-23T08:57:41Z<p>Pierre : Page créée avec « It's done »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=It's done<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/99/en&diff=24427Translations:Horloge de Fibonacci/99/en2017-08-23T08:57:40Z<p>Pierre : Page créée avec « It's done »</p>
<hr />
<div>It's done</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24426Horloge de Fibonacci/en2017-08-23T08:57:35Z<p>Pierre : Page créée avec « Idealy one unique white plexy board non opaque would fit, but I didn't have any. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idealy one unique white plexy board non opaque would fit, but I didn't have any.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/98/en&diff=24425Translations:Horloge de Fibonacci/98/en2017-08-23T08:57:33Z<p>Pierre : Page créée avec « Idealy one unique white plexy board non opaque would fit, but I didn't have any. »</p>
<hr />
<div>Idealy one unique white plexy board non opaque would fit, but I didn't have any.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24424Horloge de Fibonacci/en2017-08-23T08:56:26Z<p>Pierre : Page créée avec « Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/97/en&diff=24423Translations:Horloge de Fibonacci/97/en2017-08-23T08:56:25Z<p>Pierre : Page créée avec « Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles. »</p>
<hr />
<div>Thus, it is enough opaque to transmit light homogeneously. And LEDs aren't directly visibles.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24422Horloge de Fibonacci/en2017-08-23T08:54:09Z<p>Pierre : Page créée avec « To get good opacity, i place a tracing-paper between two transparent plexi. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=To get good opacity, i place a tracing-paper between two transparent plexi.<br />
<br />
Ainsi, c'est suffisamment opaque pour diffuser la lumière de manière homogène, sans voir directement les LEDs.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/96/en&diff=24421Translations:Horloge de Fibonacci/96/en2017-08-23T08:54:08Z<p>Pierre : Page créée avec « To get good opacity, i place a tracing-paper between two transparent plexi. »</p>
<hr />
<div>To get good opacity, i place a tracing-paper between two transparent plexi.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24420Horloge de Fibonacci/en2017-08-23T08:53:10Z<p>Pierre : Page créée avec « Add the plexi windows »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Add the plexi windows<br />
|Step_Content=Afin d'avoir l'opacité souhaitée, j'ai mis une feuille de papier calque entre 2 plaques de plexiglass transparent.<br />
<br />
Ainsi, c'est suffisamment opaque pour diffuser la lumière de manière homogène, sans voir directement les LEDs.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/95/en&diff=24419Translations:Horloge de Fibonacci/95/en2017-08-23T08:53:08Z<p>Pierre : Page créée avec « Add the plexi windows »</p>
<hr />
<div>Add the plexi windows</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24418Horloge de Fibonacci/en2017-08-23T08:52:51Z<p>Pierre : Page créée avec « Plug the arduino board with the usb wire, et upload the program from the IDE. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Plug the arduino board with the usb wire, et upload the program from the IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Ajouter la vitre de plexiglas<br />
|Step_Content=Afin d'avoir l'opacité souhaitée, j'ai mis une feuille de papier calque entre 2 plaques de plexiglass transparent.<br />
<br />
Ainsi, c'est suffisamment opaque pour diffuser la lumière de manière homogène, sans voir directement les LEDs.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/94/en&diff=24417Translations:Horloge de Fibonacci/94/en2017-08-23T08:52:50Z<p>Pierre : Page créée avec « Plug the arduino board with the usb wire, et upload the program from the IDE. »</p>
<hr />
<div>Plug the arduino board with the usb wire, et upload the program from the IDE.</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24415Horloge de Fibonacci/en2017-08-23T08:52:14Z<p>Pierre : Page créée avec « Download it, and open it with the Arduino IDE »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Download it, and open it with the Arduino IDE<br />
<br />
Branchez la carte Arduino avec le cable USB, et téléversez le programme depuis l'IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Ajouter la vitre de plexiglas<br />
|Step_Content=Afin d'avoir l'opacité souhaitée, j'ai mis une feuille de papier calque entre 2 plaques de plexiglass transparent.<br />
<br />
Ainsi, c'est suffisamment opaque pour diffuser la lumière de manière homogène, sans voir directement les LEDs.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/93/en&diff=24414Translations:Horloge de Fibonacci/93/en2017-08-23T08:52:12Z<p>Pierre : Page créée avec « Download it, and open it with the Arduino IDE »</p>
<hr />
<div>Download it, and open it with the Arduino IDE</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24413Horloge de Fibonacci/en2017-08-23T08:51:51Z<p>Pierre : Page créée avec « The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock<br />
<br />
Télechargez le et ouvrez le avec l'IDE arduino<br />
<br />
Branchez la carte Arduino avec le cable USB, et téléversez le programme depuis l'IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Ajouter la vitre de plexiglas<br />
|Step_Content=Afin d'avoir l'opacité souhaitée, j'ai mis une feuille de papier calque entre 2 plaques de plexiglass transparent.<br />
<br />
Ainsi, c'est suffisamment opaque pour diffuser la lumière de manière homogène, sans voir directement les LEDs.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierrehttps://wikifab.org/w/index.php?title=Translations:Horloge_de_Fibonacci/92/en&diff=24412Translations:Horloge de Fibonacci/92/en2017-08-23T08:51:49Z<p>Pierre : Page créée avec « The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock »</p>
<hr />
<div>The Arduino program of the clock is available on Github : https://github.com/pierreboutet/fibonacciClock</div>Pierrehttps://wikifab.org/w/index.php?title=Horloge_de_Fibonacci/en&diff=24411Horloge de Fibonacci/en2017-08-23T08:51:23Z<p>Pierre : Page créée avec « After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation. »</p>
<hr />
<div>{{ {{tntn|Tuto Details}}<br />
|SourceLanguage=fr<br />
|Language=en<br />
|IsTranslation=1<br />
|Type=Creation<br />
|Area=Electronics, Decoration<br />
|Tags=Arduino,<br />
|Description=This strange clock use the Fibonacci sequence to display time.<br />
Each square represents a value of the sequence. We must add the square's values to get the hour and the minutes. Hours are red squares, minutes are green squares and blue squares count for hour and minutes.<br />
|Difficulty=Medium<br />
|Cost=80<br />
|Currency=EUR (€)<br />
|Duration=2<br />
|Duration-type=day(s)<br />
|Licences=Attribution (CC BY)<br />
|Main_Picture=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Introduction}}<br />
|Introduction=This tutorial is inspired from the creation of Philippe Chrétien. Here is his website : http://geekoclock.com/<br />
<br />
This version is base on an Arduino UNO board.<br />
<br />
This project use a addressable RGB LEDs strip. It enable to control color and intensity of each LED individually, using only one control pin on the Arduino.<br />
}}<br />
{{ {{tntn|Materials}}<br />
|Material=* plywood 5mm thick<br />
* plexi<br />
* Arduino UNO board<br />
* Real Time clock module RTC DS1307<br />
* addressable RGB LED strip<br />
* 4 push buttons<br />
* power supply for arduino<br />
* supply connector<br />
* electric wires<br />
<br />
Warning : check that your RGB LED strip is addressable. The strip I used has the following reference : WS2812B<br />
|Tools=* scie<br />
* fer à souder<br />
* perceuse<br />
* cutter<br />
* lime à bois<br />
* colle à bois<br />
}}<br />
{{Separator}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut the plywood<br />
|Step_Content=Cut 4 plywood board for outside walls, 2 others for bottom and double-bottom, and 4 littles more for inside walls to split squares. Dimensions are the following : <br />
<br />
For outside walls :<br />
* 2 boards 85mm * 221mm<br />
* 2 boards 85mm * 138mm<br />
<br />
for bottom and double-bottom :<br />
* 2 boards 128mm * 211mm<br />
<br />
for inside walls:<br />
* 1 board 50mm * 128mm<br />
* 1 board 50mm * 78mm<br />
* 1 board 50mm * 50mm<br />
* 1 board 50mm * 26mm<br />
|Step_Picture_00=horloge fibo 1.JPG<br />
|Step_Picture_01=horloge fibo 2.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut sides to fit together<br />
|Step_Content=Cut 4mm slots to fit together the four sides.<br />
<br />
Use a wood file for the finishing.<br />
|Step_Picture_00=horloge fibo 13.jpg<br />
|Step_Picture_01=horloge fibo 14.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Cut and weld the LED strip<br />
|Step_Content=Cut the LED strip into 3 strips of 1 LED and 3 strips of 2 LEDS.<br />
<br />
Weld with small wires with good length, to place them into squares, as shown on the picture.<br />
<br />
Then glue the strip on the wood board of the double-bottom.<br />
<br />
Put a hole to pass wires to the other side of the double-bottom.<br />
|Step_Picture_00=horloge fibo 3.jpg<br />
|Step_Picture_01=horloge fibo 4.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Assemble and glue the box<br />
|Step_Content=Glue the 4 sides with the double-bottom, positioning it at 5cm from the front.<br />
<br />
Wait until the glue dries. (20 min minimum)<br />
|Step_Picture_00=horloge fibo 15.jpg<br />
|Step_Picture_01=horloge fibo 5.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue the separation walls<br />
|Step_Content=Once dry, glue the separations.<br />
|Step_Picture_00=horloge fibo 6.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Glue a support board for the electronic board<br />
|Step_Content=Prepare now the other side of the double-bottom :<br />
<br />
To fix the electronic board, and avoid screw exceed from the wood board, we add wood thickness where we want to place the electronic board.<br />
|Step_Picture_00=horloge fibo 7.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Fix the Arduino board<br />
|Step_Content=Put small pre-holes for the srew, then fix the arduino board on the double-bottom.<br />
|Step_Picture_00=horloge fibo 8.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Weld components<br />
|Step_Content=Follow the given scheme to weld wires. I tape wires in order that they stay in place. Only wire on the Arduino board aren't weld.<br />
|Step_Picture_00=Horloge_de_Fibonacci_clock-fritzing_bb.png<br />
|Step_Picture_01=Horloge_de_Fibonacci_01155236.JPG<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Load the program<br />
|Step_Content=Download Arduino IDE : https://www.arduino.cc/en/Main/Software<br />
<br />
<br />
Install the NeoPixel Library, available here : https://github.com/adafruit/Adafruit_NeoPixel<br />
<br />
After download it, rename the directory to 'Adafruit_NeoPixel' and place it into the directory 'librairie' into the directory of your IDE installation.<br />
<br />
<br />
Le programme Arduino de l'horloge est disponible sur github :: https://github.com/pierreboutet/fibonacciClock<br />
<br />
Télechargez le et ouvrez le avec l'IDE arduino<br />
<br />
Branchez la carte Arduino avec le cable USB, et téléversez le programme depuis l'IDE.<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=Ajouter la vitre de plexiglas<br />
|Step_Content=Afin d'avoir l'opacité souhaitée, j'ai mis une feuille de papier calque entre 2 plaques de plexiglass transparent.<br />
<br />
Ainsi, c'est suffisamment opaque pour diffuser la lumière de manière homogène, sans voir directement les LEDs.<br />
<br />
Idéalement une seule plaque de plexiglass blanc non opaque suffirait, mais je n'en ai pas trouvé.<br />
|Step_Picture_00=horloge fibo 10.jpg<br />
|Step_Picture_01=horloge fibo 11.jpg<br />
|Step_Picture_02=horloge fibo 12.jpg<br />
}}<br />
{{ {{tntn|Tuto Step}}<br />
|Step_Title=C'est fini<br />
|Step_Content=Vous pouvez brancher votre horloge,et ré-apprendre à lire l'heure ;)<br />
<br />
Comment lire l'heure ?<br />
<br />
Les carrés ont les valeurs de la suite de fibonacci (du plus petit au plus grand) : <br />
<br />
1 1 2 3 5<br />
<br />
<br />
Les carrés rouges sont pour les heures, <br />
<br />
Les carrés vert pour les minutes,<br />
<br />
et les carrés bleu comptent pour les heures et les minutes.<br />
<br />
On trouve les heures et les minutes en faisant la somme des valeurs des carrés correspondants.<br />
Pour les minutes, il faut multiplier la valeur obtenue par 5, car l'horloge ne compte par pas de 5 minutes.<br />
<br />
<br />
Exemple, sur la photo ci contre :<br />
<br />
il faut additionner les valeur des carrés rouge et bleu pour les heures, cela fait donc :<br />
<br />
1 + 3 + 5 = 9h<br />
<br />
et les valeurs des carrés vert et bleu pour les minutes , que l'on multiplie par 5 :<br />
(1 + 1 + 3 ) * 5 = 25min<br />
<br />
<br />
il est donc ici 9h25<br />
|Step_Picture_00=horloge fibo.JPG<br />
}}<br />
{{ {{tntn|Notes}}|}}<br />
{{ {{tntn|Tuto Status}}<br />
|Complete=Yes<br />
}}<br />
{{Separator}}</div>Pierre