Differences

This shows you the differences between two versions of the page.

Link to this comparison view

Both sides previous revisionPrevious revision
Next revision
Previous revision
en:iot-open:remotelab:sut:rooftop [2018/03/19 13:14] Somepuben:iot-open:remotelab:sut:rooftop [2020/07/20 09:00] (current) – external edit 127.0.0.1
Line 1: Line 1:
-~~PB~~ 
-{{:en:iot-open:remotelab:logotyp_1_.png?200|}} 
  
-=====RoofTop Thermo Laboratory - intelligent house and heating management ======+===== VREL #7: RoofTop Thermo Laboratory - intelligent house and heating management =====
 The laboratory is located at Silesian Technical University, Poland, Gliwice on the roof of building at Akademicka street number 16. The roof is 38 meters above ground level. (255 meters above sea level). It is one of the highest places in the nearest area. The laboratory is located at Silesian Technical University, Poland, Gliwice on the roof of building at Akademicka street number 16. The roof is 38 meters above ground level. (255 meters above sea level). It is one of the highest places in the nearest area.
  
-===== Introduction  ===== +==== Introduction  ==== 
-The lab is model of a small, specific house. The house can be rotated around its own axis. A structure of walls allows changing infrared absorption factor.+The lab is model of a small house. The house can be rotated around its vertical axis. A structure of walls allows changing infrared absorption factor using curtains driven by servomotors.
  
-===== Prerequisites =====+==== Prerequisites ====
 User need know:  User need know: 
   * rules of heat propagation,   * rules of heat propagation,
Line 16: Line 14:
    
  
-===== Technical details ===== +==== Technical details ==== 
-House is a cube with dimensions 50x50x50 cm. Every wall is shadowed by a shutter. Sides of slats have different colours: white and black. Using servomotors is possible to change colour and angle slats which are lighted for sunlight. Rotating whole house increase possibility of control configuration house versus sunlight direction. Model is shielded against directly rain and bird droppings using the small roof.+House is a cube with dimensions 50x50x50 cm. Every wall is shadowed by a shutter. Sides of the slats have different colours: white and black. Using servomotors is possible to change colour and angle slats which are lighted for sunlight. Rotating whole house increase possibility of control configuration house versus sunlight direction. Model is shielded against directly rain and bird droppings using the small roof.
  
-==== Sensors ====+=== Sensors ===
 The IP camera provides the overview which can be used for verification of position house and slats. Independent camera gives information about actual weather. The IP camera provides the overview which can be used for verification of position house and slats. Independent camera gives information about actual weather.
  
-The house is equipped with many sensors temperature. They allow check temperature: inside of the house (at centre point), the temperature of every wall (separately) and temperature of ambient air. The sensor of humidity is useful for modelling heating house.+The house is equipped with many sensors temperature. They allow check temperature: inside of the house (at centre point), the temperature of every wall (separately) and the temperature of ambient air. The sensor of humidity is useful for modelling the heating house.
  
  
-==== Actuators ==== +=== Actuators === 
-The user can control lab with five servomotors. With using PWM, the user can realize the change of slats position (4 actuators) and house rotation (1 actuator).+The user can control the lab with five servomotors. With using PWM, the user can realize the change of slats position (4 actuators) and house rotation (1 actuator). 
 +{{:en:iot-open:remotelab:sut:iotbirdhouse_sch.jpg?600|}}
  
-==== Software, libraries and externals ====+=== Software, libraries and externals ===
 //Provide the list of software, software libraries and external resources (i.e. files) necessary during code development. Please note, write here only common for all hands-on-labs scenarios (there is a relevant section in scenario template. Remove this section if empty.// //Provide the list of software, software libraries and external resources (i.e. files) necessary during code development. Please note, write here only common for all hands-on-labs scenarios (there is a relevant section in scenario template. Remove this section if empty.//
  
-==== Communication ====+=== Communication ===
 //Describe communication if it is implemented and sealed (not intended to be implemented by students, or provided i.e. as default code). Present data flow. Describe protocols and details i.e. key-value pairs, etc. Provide how exceptions are handled.// //Describe communication if it is implemented and sealed (not intended to be implemented by students, or provided i.e. as default code). Present data flow. Describe protocols and details i.e. key-value pairs, etc. Provide how exceptions are handled.//
  
-==== Limits ==== +=== Limits === 
-At the same time, only one user can be programming the controller, although analysing the signal by others users makes sense. Model is provided to continuously work, with two service breaks (few hours) per year.+At the same time, only one user can be programming the controller, although analysing the signal by other users makes sense. Model is provided to continuously work, with two service breaks (few hours) per year.
  
-===== Hands-on labs ===== 
-//List study scenarios (hands-on labs), linking to the Dokuwiki pages with hands-on labs descriptions (there should be a separate page for each scenario). Classify each scenario and refer to the target group using starting keywords: 
-  * Beginners 
-  * Undergraduates 
-  * Masters 
-  * Professionals 
-Note, assume that more professional group automatically contains less professional ones. Note - use language and as appropriate to the target group, i.e.:// 
-<code> 
-  * Beginners: Elementary operations on the Arduino 2x16 LCD screen. 
-  * Undergraduates: Visualizing temperature and humidity on the remote screen. 
-  * Masters: Using power saving states to limit power consumption. 
-</code> 
-===== Support ===== 
-//Give some information how to access help, how to get support in case of the trouble etc.// 
  
-===== Project information ===== +==== Support ==== 
-This Intellectual Output was implemented under the Erasmus+ KA2: Strategic Partnership in the Field of Education, Training, and Youth - Higher Education.\\ +//Give some information about how to access help, how to get support in case of the trouble etc.//
-Project IOT-OPEN.EU – Innovative Open Education on IoT: improving higher education for European digital global competitiveness.\\ +
-Project number: 2016-1-PL01-KA203-026471.+
  
-**__Erasmus+ Disclaimer__**\\ 
-This project has been funded with support from the European Commission. \\ 
-This publication reflects the views only of the author, and the Commission cannot be held responsible for any use which may be made of the information contained therein. 
- 
-**__Copyright Notice__**\\ 
-This content was created by the IOT-OPEN.EU consortium, 2016,2019.\\ 
-The content is Copyrighted and distributed under CC BY-NC [[https://en.wikipedia.org/wiki/Creative_Commons_license|Creative Commons Licence]], free for Non-Commercial use.  
-<figure label> 
-{{:en:iot-open:ccbync.png?100|CC BY-NC}} 
-</figure> 
-In case of commercial use, please contact IOT-OPEN.EU consortium representative. 
  
en/iot-open/remotelab/sut/rooftop.1521465264.txt.gz · Last modified: 2020/07/20 09:00 (external edit)
CC Attribution-Share Alike 4.0 International
www.chimeric.de Valid CSS Driven by DokuWiki do yourself a favour and use a real browser - get firefox!! Recent changes RSS feed Valid XHTML 1.0