Project Image Pool
There are 406 results.
Terms of use: The pictures on this site originate from the projects in the frame of the programmes City of Tomorrow, Building of Tomorrow and the IEA Research Cooperation. They may be used credited for non-commercial purposes under the Creative Commons License Attribution-NonCommercial (CC BY-NC).
Stand of the different baterry technologies (IEA 4E EDNA Task on Batteries).
This graphic shows the state of the art of different battery technologies. 14 types are organized according to their state of development. 10 are lithium-based batteries, the other 4 use various chemistry compositions (Zinc or carbon nano-tubes), or use new concepts to increase their capacity.
Copyright: 4E EDNA
Terminology used for demand response within the framework of IEA EBC Annex 84
EBC Annex 84 distinguished between different "action types" and "control types".
Copyright: Authors of final report IEA EBC Annex 84
Overview demand response types
Combining the two action and control types there can be four different demand response types: 1) Direct Automated (e.g. action and control types are characterised by high reliability; 2) Indirect Automated (e.g. model predictive control in the building reacting to the DHC broadcasted signal), action and control types are characterised by low & high reliability, respectively; 3) Direct Manual (e.g. DHC operator vising the house or sitting in the control room and pressing the button), action and control types are characterised by high & low reliability, respectively; 4) Indirect Manual (e.g. end users changing the settings physically of via using the remote technology (walking in the house, sitting on the sofa and using app) as the reaction to the broadcasted signal), action and control types are characterised by low reliability.
Copyright: Authors of final report IEA EBC Annex 84
Joint workshop IEA EBC Annex 84 & IEA ES Task 43 („Standardized Use of Building Mass as Storage for Renewables and Grid Flexibility“)
Joint workshop IEA EBC Annex 84 & IEA ES Task 43 („Standardized Use of Building Mass as Storage for Renewables and Grid Flexibility“)
Copyright: Ingo Leusbrock
Reductive Approach toward new window concepts for vacuumglass windows
Reductive Approach for different vacuum-glass-windows: concepts - sketches - specimen - prototypes - mock-ups
Copyright: Team Projekt MOTIVE (Abt. Bauphysik und Bauökologie, TU Wien & Holzforschung Austria)
Different Window-Concepts
Different Design-Sketches of unconventional Windows with Vacuumglazing. All of them do feature unconventional opening / operation schemes
Copyright: Team Projekt MOTIVE (Abt. Bauphysik und Bauökologie, TU Wien & Holzforschung Austria)
Vacuum-glazing-window with opening direction to inside and indoor-sided vacuum glazing
A set of illustrations of a window-prototype with vacuum-glazing interface on the inside and opening direction to the inside.
Copyright: Team Projekt MOTIVE (Abt. Bauphysik und Bauökologie, TU Wien & Holzforschung Austria)
Vacuum-glazing-window in fully-glazed appearance, opening direction to the outside.
This non-conventional window was concepted during the MOTIVE-project. It's attractive architectural appearance is based on a fully-glazed impression. However, the opening direction to the ouside needs to be furtherly worked on, regarding user acceptance, maintenance, and sun protection.
Copyright: Team Projekt MOTIVE (Abt. Bauphysik und Bauökologie, TU Wien & Holzforschung Austria)
Panel discussion on "energetic transformations in urban quarters" - E_PROFIL
Within the final event of the project E_PROFIL at Ars Electronica Deep Space. Left to right: Claudia Dankl (ÖGUT. Moderation), Johannes Pointner (Enerquent), Sonja Pitscheider (City of Innsbruck), Gunter Amesberger (Planning Director, City of Linz).