Airborne Corridor-Mapping. Planning and documentation of company infrastructure: precise, rapid, and cost effective

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Airborne Corridor-Mapping Planning and documentation of company infrastructure: precise, rapid, and cost effective

Technology Airborne Laser-Scanning, digital orthophotos and thermal imaging: one flight all information Hansa Luftbild s modern corridor mapping is an ideal technique for the planning, documentation, survey and surveillance of corridors such as the electricity grid, pipeline networks, and the roads, and rail system. With a combination of laser scanning, digital and thermal imagery as well as Differential GPS (DGPS) Hansa Luftbild can complete many tasks quickly, cost effectively and accurately on the basis of only one flight. Hansa Luftbild flies corridors by helicopter, which makes low altitude flights and high resolution capture possible. The carrier platform is equipped with a laser scanner digital camera, thermal camera, and DGPS. These ensure accurate positioning (refer to figure left). The collected data is an ideal basis for generating 3D-terrain and surface models, which is of great advantage in surveying, documenting and planning routes for e.g. overhead power lines, pipelines, roads and rail track. The laser scanner captures terrain at a pulse rate of 100 khz, which at a flying altitude of 200 meters generates 15 points per square meter. The density of the points enables different perspectives cross-sectional and longitudinal profiles can be derived. The digital camera delivers either real colour or colour infrared images with a pixel resolution of 5 cm at a flying altitude of 200 meters. The digitally rectified aerial photos serve as the base information for a geographic information system and can at the same time be used to verify the classification of laser data. Fractures in overhead power lines, the illegal tapping of or leakages in pipelines, and heat loss from city heating networks can all be located with the aid of a thermal camera. Hansa Luftbild s thermal camera provides video output of 768 x 525 pixels with a resolution of 10 x 14 cm at a flight altitude of 200 meters. Image capture is at a frequency of 30 Hz, which corresponds to 30 full scenes per second. Helicopter flown corridor aerial surveys Airborne laser scanning Digital orthophotos (colour or CIR) Thermal imagery 3D-terrain modeling GIS-solutions

Overhead power lines One flight all the most important information. Powered by Hansa Luftbild Digital Orthophoto and the geo-referenced colour-coded laser data in a side view. Pylons and power lines from different perspectives. GIS-application showing transformer substation. Laser scanning is the ideal technique for utility providers in the planning, documentation, surveying and surveillance of corridors in the electricity grid. Crucial information can be acquired using the technique in combination with thermal imaging and digital orthophotos. In addition to providing exact surface height values, laser scanning delivers exact details of vegetation growth, and objects such as the individual elements of overhead power line networks, cabling, sagging, pylon position, and span length. By the same token, details such as bundle conductors can be discriminated. With the acquired data many different perspectives can be generated (see figure left). With the aid of thermal imagery, for example, fractures and breaks in power lines throughout the whole system can be traced and exactly located. High resolution digital orthophotos in colour or colour-infrared assist in the assessment of vegetation growth and types in overhead cable corridors. Once integrated into a GIS the distance between vegetation and cables can be determined, the basis for the secure and simple management of maintenance and vegetation. In planning routes for power lines, potential paths can be accurately captured and 3D models with all relevant terrain characteristics generated. Routes can be optimized, profiles generated and property boundaries adjusted. Secure, efficient, cost effective planning is ensured. Capture and registration of elements inside pylon safety zone. Digital terrain model (DTM) for corridor planning. Capture, documentation and monitoring of power line elements and objects in power lines corridors Vectorisation of power lines and objects in corridor Determine pylon centre points, cable sags, span length and clearances Determine distance between cables and vegetation Development and administration of Network Information System (NIS) Detection of fractures and breaks in system

Pipelines Plug information leaks Digital surface model (DSM) derived from laser data... and from a perspective view Digital terrain model (DTM) with/without contour lines. Orthophoto overlaid with contour lines. The planning, documentation, survey and surveillance of pipelines are a difficult business which can be made easier with the modern methodologies and techniques available at Hansa Luftbild. Using laser scanning, thermal imaging and digital orthophotos existent routes and pipelines can be surveyed and documented in a short time, in one flight. In fact, flight surveys of partial sections of pipelines are usually more time efficient and cost efficient than a terrestrial surveys. With the aid of a 3D terrain model generated by Hansa Luftbild, of the corridor, pipeline routes can be planned and laid in an optimal fashion. The exact quantities on the ground for example how many cubic meters of forest, tons of earth must be removed can be calculated. Using elevation models and terrain levels the necessary number and size of abutments can be determined, and hydraulics can be calculated, in order to adjust for terrain differences. Thermal cameras can be used to detect both leakages and illegal tapping. By the same means damage in the pipeline can be detected and repaired in a targeted manner to the economic advantage of the utility provider and environmental advantage of the natural surroundings. Orthophoto overlaid with laser data. Thermal image: pipeline with suspected leakage. Collection of planning data for feasibility and design studies Documentation of resources GIS-application. Vectorisation of pipelines and objects in corridor Development and administration of Network Information System (NIS) Detection of leaks in and illegal tapping of supply line

Infrastructure Road, rail, 3D town planning... A new perspective on infrastructure planning Digital surface model for analysis of noise dispersion. Cross section derived from laser data. Planned road modeled in 3D. Highway laser data: lane grooves and cross section. Highway and railway bridge: digital orthophoto A combination of laser scanning and digital photos also opens up new opportunities for infrastructure planning. Some typical examples follow: 3D modeling offers town planners a golden opportunity to simulate planned changes to the current town layout in terms that are as close as possible to reality. Properties, buildings, natural surroundings and infrastructure can be captured in detail and modeled using laser scanning data. When laser data and digital orthophotos are combined into 3D models all involved in the planning process can view every current cityscapes or planned development in virtual reality. New opportunities are also opened up in road construction, for planning and maintenance. For example with regard to the condition of roads, verges, median strips and embankments. A flight survey can be used to document both a road s original condition and changes over time e.g. carriageway depressions, surface rippling, carriageway sink, as well as lane grooves and ruts including the length and depth of these. Fundamental foundations in planning new routes are exact terrain models. Hansa Luftbild can deliver corridor mapping with exact data. The same technology also opens up new opportunities for planning, maintenance and documentation of rail systems. Complete details in all perspectives are available through laser scanning in combination with digital orthophotos: rails, sleepers, embankments, signals, masts, overhead lines. and laser data. Collection of planning data for feasibility and design studies Cross section of suspension bridge. Documentation of resources Vectorisation of objects Noise emission planning 3D city visualization GIS solutions

International Consulting Sensors and Photogrammetry Geo Information Systems Hansa Luftbild, founded in 1923, has since this date had as its core business geo information. This encompasses everything from aerial surveys, film development, and the restitution of aerial photos, to digital cartography, processing of spatial data, softwareengineering and implementation of geo information systems. Eighty years of experience and international partnerships make us the address of choice when it comes to geo-information in all its facets. Hansa Luftbild Geoinformationssysteme GmbH Nevinghoff 20 D-48147 Münster Germany Tel.: + 49. (0)2 51.23 30-0 Fax: + 49. (0)2 51.23 30-188 E-Mail: info@hansaluftbild.de www.hansaluftbild.de