Abstract
New computational methods provide means to deduce semantic information from measurements, such as range scans and photographs of building interiors. In this paper, we showcase a method that allows to estimate elements that are not directly observable – ducts and power lines in walls. For this, we combine information, which is deducted by algorithms from the
raw data, with implicit information that is publicly available: technical standards that restrict the placement of powerlines. These requirements define preferred installation zones, which are represented by a rule-based system in the proposed approach.
The approach is structured into the following steps: First, a coarse geometry is extracted from input measurements; i.e. the unstructured, laser-scanned point cloud is transformed into a simplistic building model. Then, visible endpoints of electrical appliances (e.g. sockets, switches) are detected from picture information using machine-learning techniques and a pre-trained
classifier. Afterwards, the positions of installation zones in walls are generated using the rulebased system mentioned above. Finally, a hypothesis of non-visible cable ducts is generated, under the assumption that (i) the real configuration obeys the rules of legal requirements and standards and (ii) the configuration connects all endpoints using as little as possible resources, i.e. cable length. Results of a first automatic pipeline are discussed.
raw data, with implicit information that is publicly available: technical standards that restrict the placement of powerlines. These requirements define preferred installation zones, which are represented by a rule-based system in the proposed approach.
The approach is structured into the following steps: First, a coarse geometry is extracted from input measurements; i.e. the unstructured, laser-scanned point cloud is transformed into a simplistic building model. Then, visible endpoints of electrical appliances (e.g. sockets, switches) are detected from picture information using machine-learning techniques and a pre-trained
classifier. Afterwards, the positions of installation zones in walls are generated using the rulebased system mentioned above. Finally, a hypothesis of non-visible cable ducts is generated, under the assumption that (i) the real configuration obeys the rules of legal requirements and standards and (ii) the configuration connects all endpoints using as little as possible resources, i.e. cable length. Results of a first automatic pipeline are discussed.
Original language | English |
---|---|
Title of host publication | Places and Technologies 2016 |
Subtitle of host publication | Conference Proceedings of the 3rd International Academic Conference on Places and Technologies |
Place of Publication | Belgrad |
Pages | 77-84 |
Number of pages | 8 |
ISBN (Electronic) | 978-86-7924-160-3 |
Publication status | Published - 2016 |
Event | 3rd International Academic Conference on Places and Technologies - Belgrad, Serbia Duration: 14 Apr 2016 → 15 Apr 2016 |
Conference
Conference | 3rd International Academic Conference on Places and Technologies |
---|---|
Country/Territory | Serbia |
City | Belgrad |
Period | 14/04/16 → 15/04/16 |