Im Rahmen des beantragten Innovationsschecks gilt es, ein Konzept und eine Referenzimplementierung (iPhone und Android) zu erstellen, wie räumliche Daten von Gebäuden 3-Dimensional effizient auf mobilen Endgeräten dargestellt werden können. Auf die limitierten Systemressourcen bei mobilen Endgeräten ist besonders Rücksicht zu nehmen.

Die bestehenden Apps für Android, iPhone und iPad werden mit folgenden Funktionalitäten erweitert:

1. Anzeige des Qualitätssiegels bei den Ausflugszielen.

2. Anzeige der “geöffnet ab Tafel“ mit Öffnungsdatum bei den Auflade- und Ausgabestellen für Einheimische.

3. Ausflugsziele und Bonuspartner in der Übersicht links mit Bildern (wie beim iPad)

4. Anpassung auf iPhone 5, iPad Neu, iPad Mini, neue Android Version und Geräte

5. Startseite: weiterer Button News. News sind nur Text. Anzeige wie bei Kärnten Läuft App.

6. Google Analytics

7. Mehrere Bilder und Videos von Ausflugzielen und Bonuspartnern

8. Impressum/Einstellungen erweitern

9. Suchfunktion: Eingabe des Ortes und optional Straße und Hausnummer. Anhand dieses Ortes soll die Entfernungsanzeige bei den Ausflugszielen und Bonuspartnern basieren.

10. Intern iOS: Crittercism, Facebook native bei iOS6, Twitter native bei iOS6

11. Ausarbeitung von Konzepten

Im Rahmen des beantragten Innovationsschecks gilt es, ein Konzept und eine Referenzimplementierung (iPhone und Android) zu erstellen, wie räumliche Daten von Gebäuden 3-Dimensional effizient auf mobilen Endgeräten dargestellt werden können. Auf die limitierten Systemressourcen bei mobilen Endgeräten ist besonders Rücksicht zu nehmen.

Due to the incomparable popularity of the world wide web, the already enormous and stillrocketing bandwidth demand may only be satisfied by optical networks, particularly by using theWavelength Division Multiplexing (WDM) technology. To obtain WDM signals with high bit rates,multiple channels operating at a lower transmission speed can be supported on a single opticalfiber. This technology is currently applied exclusively in core and distributed networks.Subject of this thesis will be engineering cutting edge architectures offering each service providerhis own wavelength (e.g. via CWDM technology) to supply its service across the access network.It will be crucial to enable the migration of existing services on the one hand, and the integrationof new services on the other hand, in order to provide stubstantial value enhancement for thecustomer.This work deals with the system development, the structure and the optimization of economicaland transparent CWDM-NT (coarse wavelength division multiplex – network terminator) for theaccess network. A down-to-earth structure has to be designed and evaluated. Predicted data willbe analyzed. In particular, it is to point out that area-wide applications of “fiber to the home” willintroduce more easy structured systems that will in the short or middle run thus be cheaper.Thereby, access to this new technology will prompt market introduction as well as marketpenetration helping "multicolor to the home" to become reality.

Due to the incomparable popularity of the world wide web, the already enormous and stillrocketing bandwidth demand may only be satisfied by optical networks, particularly by using theWavelength Division Multiplexing (WDM) technology. To obtain WDM signals with high bit rates,multiple channels operating at a lower transmission speed can be supported on a single opticalfiber. This technology is currently applied exclusively in core and distributed networks.Subject of this thesis will be engineering cutting edge architectures offering each service providerhis own wavelength (e.g. via CWDM technology) to supply its service across the access network.It will be crucial to enable the migration of existing services on the one hand, and the integrationof new services on the other hand, in order to provide stubstantial value enhancement for thecustomer.This work deals with the system development, the structure and the optimization of economicaland transparent CWDM-NT (coarse wavelength division multiplex – network terminator) for theaccess network. A down-to-earth structure has to be designed and evaluated. Predicted data willbe analyzed. In particular, it is to point out that area-wide applications of “fiber to the home” willintroduce more easy structured systems that will in the short or middle run thus be cheaper.Thereby, access to this new technology will prompt market introduction as well as marketpenetration helping "multicolor to the home" to become reality.

Due to the incomparable popularity of the world wide web, the already enormous and stillrocketing bandwidth demand may only be satisfied by optical networks, particularly by using theWavelength Division Multiplexing (WDM) technology. To obtain WDM signals with high bit rates,multiple channels operating at a lower transmission speed can be supported on a single opticalfiber. This technology is currently applied exclusively in core and distributed networks.Subject of this thesis will be engineering cutting edge architectures offering each service providerhis own wavelength (e.g. via CWDM technology) to supply its service across the access network.It will be crucial to enable the migration of existing services on the one hand, and the integrationof new services on the other hand, in order to provide stubstantial value enhancement for thecustomer.This work deals with the system development, the structure and the optimization of economicaland transparent CWDM-NT (coarse wavelength division multiplex – network terminator) for theaccess network. A down-to-earth structure has to be designed and evaluated. Predicted data willbe analyzed. In particular, it is to point out that area-wide applications of “fiber to the home” willintroduce more easy structured systems that will in the short or middle run thus be cheaper.Thereby, access to this new technology will prompt market introduction as well as marketpenetration helping "multicolor to the home" to become reality.

Due to the incomparable popularity of the world wide web, the already enormous and stillrocketing bandwidth demand may only be satisfied by optical networks, particularly by using theWavelength Division Multiplexing (WDM) technology. To obtain WDM signals with high bit rates,multiple channels operating at a lower transmission speed can be supported on a single opticalfiber. This technology is currently applied exclusively in core and distributed networks.Subject of this thesis will be engineering cutting edge architectures offering each service providerhis own wavelength (e.g. via CWDM technology) to supply its service across the access network.It will be crucial to enable the migration of existing services on the one hand, and the integrationof new services on the other hand, in order to provide stubstantial value enhancement for thecustomer.This work deals with the system development, the structure and the optimization of economicaland transparent CWDM-NT (coarse wavelength division multiplex – network terminator) for theaccess network. A down-to-earth structure has to be designed and evaluated. Predicted data willbe analyzed. In particular, it is to point out that area-wide applications of “fiber to the home” willintroduce more easy structured systems that will in the short or middle run thus be cheaper.Thereby, access to this new technology will prompt market introduction as well as marketpenetration helping "multicolor to the home" to become reality.