Faro Pointsense Plant Crack

Faro Pointsense Plant Crack Key

Michael and All Angles Parish Church in Diseworth.The Digital Building Heritage Group is a multi-disciplinary research cluster of staff and research students at De Montfort University specialising in scanning of historic buildings. The survey of this church is part of a current Arts & Humanities Research Council (AHRC) funded Connected Communities initiative in conjunction with the Trust’s ongoing All our Stories Heritage Lottery Funded (HLF) project called “A Thousands Years of History – Diseworth Parish Church from Mercia to Modern Times”.St. Michael’s and All Angels was a prime candidate for laser scanning because of its complexity and delightful geometric “irregularities” which Successful scanning of Diseworth Parish Church to build digital 3D models arise from the many changes and additions that have been made to the building over its one thousand year history. Diseworth also has a superb little heritage centre in a recently restored Baptist Chapel. It was an ideal location for the field base for examination of the documentary evidence the Trust has collected about the history of their church and for discussing the detailed survey of the building fabric and the 3D modelling work.

“This is a central part of the co-production process of this project, working together with the Trust volunteers and their experts not only to add value and a further dimension to their work but to enable them to adopt and use some of our digital technologies at a number of levels”, said Douglas Cawthorne.The laser scanning process was started inside of the building and then moved to the exterior. “A major advantage of laser scanning is that you can accurately measure features dozens of meters away which makes measuring church spires and high vaults much easier and less risky,” added Douglas Cawthorne. “TheFARO Focus3D is particularly suited to capturing the complex forms of historic buildings at a level of detail that is particularly useful” highlights the leader of the Digital Building Heritage Group at De Montfort University. Before using the Laser Scanner time consuming traditional hand-survey measurements would have been needed but with the Faro Focus this time was cut substantially. To supplement the laser scans the Diseworth Heritage Trust had also undertaken a detailed photographic survey, focusing specifically on individual architectural features and materials.

High quality photographs have for a long time been an important aspect of historic building documentation but photographs specifically of materials like wall surfaces and floors as well as of specific architectural features can also be used to produce digital “texture maps” which can then be applied to the 3D digital models to give them a realistic appearance.“This is something we are keen to do with St. Michael’s and All Angels because the variation in materials, particularly in the stonework is important in communicating the developmental sequence of the building” highlights Dr. The technology of modern laser scanning makes the process of acquiring dimensional data relatively straight-forward if planned properly.

It’s the processing of that data and then using it to then build one or more 3D digital models of the building that takes time. The aim of using the 3D model is to show the building in a series of developmental phases from its earliest Saxon form in the early 11th century AD to its form as it is now. This is intended to assist the Diseworth Heritage Trust in explaining the history of St. Michael’s and All Angels through illustrations for a forthcoming book to be published by the Trust towards the end of the year. Relicarte uses both FARO Laser ScanArm Quantum V3 and FARO Laser Scanner Focus3D to digitize divers heritage itemsRelicarte have been working with museums in creating digital output for a varied range of outcomes, since 2006. Since then they have seen that the interest in digital content as a resource across the heritage market grow exponentially.When Relicarte first operated in this sector, digitization in any form was largely unknown to anyone but the archaeologists who had recognized its potential as a tool for documentation and research, however the importance of creating digital content and its dissemination is now quickly becoming central to the industries future development.

This is due to the ability of information rich digital content to be incorporated into Pushing the next generation of digitizing heritage both ‘on-site’ and ‘on-line’ supporting and supplementing heritage organisations collections and their targets in audience outreach and education. Relicarte have been in a strong position to observe the growing importance of digitized cultural items and continue to develop its services to deliver digital content of the highest standard and the platforms that allow the largest audience to interact with it in meaningful and exciting ways.First steps into digitized scansThe first laser-scanning project was undertaken for the National Museum of Scotland, where a hired Konika-Minolta was used to digitize the iconic Lewis chessmen. These scans took an average of 6 hours of processing per chessmen to stitch together successfully back in those days, luckily things have moved on rather a lot since!

The scans were then used to create a range of retail products through 3D printing, which was a largely unheard of process in 2006 and had to be done by a university. The retail products are a huge success and can still be bought from the museum to this day with no signs of their popularity waning.The first purchased scanner of Relicarte was a first generation Next-Engine which served well but was of course very limited in the size of the object that could be digitized and still required a great deal of post processing to acquire a quality outcome. Due to the growing business of Relicarte they were looking for a new scanner which would allow to digitize larger subjects with increased accuracy and with less processing time and the search began. After kissing a few frogs Relicarte was introduced to the FARO range and in the end they purchased a Laser ScanArm Quantum with Geomagics package.

Ideal for quickly capturing highly accurate and detailed as-built conditions of historical structures and buildings, the FARO Laser Scanner constructs 360-degree point clouds of scanned surfaces to create 3D models used in building restoration or historic preservation plans.Providing researchers and scientists with 3D CAD models of as-built plans used to determine structural integrity, the FARO Laser Scanner offers a robust solution for restoration or scientific analysis purposes.Return to Industry Overview. 3D virtual reality tours are a growing phenomenon, which allow the general public to experience the fascination of remote and inaccessible or delicate and dangerous locations. One such place is the D.F. Woudagemaal pumping station. Built in 1920 to drain floodwaters from the province of Friesland in low-lying Holland, it is the largest operational steam pumping station in the world with a mind-boggling capacity of one million litres per minute. Being a UNESCO world heritage site, the pumping station fondly called ‘the Cathedral of Steam’ has started a 3-year program of extensive renovations with engineering and consultant service provider Royal HaskoningDHV managing the work.The first idea was to use 3D scans to create accurate ‘As-Built Documentation’ for the renovation work. But the project quickly developed to include solutions that also support the visitor centre during the long period of renovation.

“We spent 10 working days collecting about 185 scans with a FARO Laser Scanner Focus3D. Together with some conventional surveying information these were registered in the software SCENE from FARO and then exported to the FARO WebShare environment,” explains Eric Borst of Royal HaskoningDHV. Web- Share allows any authorized user to log in to the server and explore the processed scans of the whole site.

“So you can navigate around the pumping station and look at the full 360° colour views from each scan position. Then there are various user tools for in-depth examinations.”“With more than 10,000 visitors per year and the building covered in scaffolding or with whole areas closed-off due to the renovation work, it was important to have an exciting exhibit in the visitor centre. We also wanted to maintain the interest ofmore casual visitors.” So the next step was to export the data to Autodesk 3D Studio Max, with the Alice Labs Point Cloud plugin. This was used to create a virtual tour – a 6 minute film that visitors can watch on 32-inch touch screens. It is a virtualflight through the building, with the option to stop in different places and see detailed information about the actual progress of the renovation work.” Borst and his team have also been able to take the visitors into places that you could otherwise never enter – like inside a steam boiler or down into the pitch dark areas below the waterline.

“Because the Focus3D is so compact and light, we often acquire unusual perspectives. Dispensing with the tripod, we can stick the scanner down a drain or into a boiler casing – obviously something you could not do if the scanner was bigger or heavier,” notes Borst with satisfaction.

Faro Pointsense Plant Crack Key

Archaeology A Neolithic rock-painting site in remote Somaliland has now been captured in 3D with the FARO Focus3D to facilitate scientific study and virtual tourism.Thousands of years ago, our ancestors from the Neolithic age, decorated the walls of rock shelters at a place called Laas Geel with paintings of animals and humans. Little did they know that their work would last for perhaps 5,000 years and one day attract the attention of a team of Frenchmen armed to the teeth with 21st century advanced measuring technology.

Discovered in 2002 by Professor Xavier Gutherz, from Paul Valery University (in Montpellier, France), Laas Geel is probably the most significant Neolithic rock-painting site in the Eastern part of Africa. But it is located in Somaliland, an autonomous region of war-torn Somalia – not the kind of place that you can easily investigate as an archaeologist or visit as a tourist. That is why the decision was made to create an accurate 3D model of the now endangered archaeological treasure.

Having complete 3D measurements of the site will contribute to heritage preservation efforts, facilitate archaeological studies and allow the creation of immersive virtual tourism applications.In April 2012, a team of five undertook the long journey from Paris to Laas Geel in the Horn of Africa to capture the necessary data. The expedition, manned by 3 archaeologists from the Paul Valery University and 2 scanning experts from the company Art Graphique et Patrimoine (AGP), scanned all 24 rock shelters and the cave paintings they contain. They also captured the site topography with a Total Station and made sub-millimetre level scans of the pre-eminent rock paintings. The French firm AGP has been a keen user of FARO scanners for over six years and are experts in immersive virtual reality for heritage preservation and promotion. “We use 2 FARO Laser Scanner Focus3D on a daily basis,” explains Didier Happe, CEO of AGP.

“The Focus3D was perfect for the Laas Geel expedition because it is so light and portable, works on batteries for up to 6 hours and scans very fast. We also shot 36 mega-pixel images using a highresolution digital camera.”“What you can do with the data really dependson how objectively you can integrate data from different scan positions and sources into a single database.So we developed a rigorous method using targets and reference spheres as well as chromatic cards for colometric calibration,” explains Happe. “We also had laptops equipped with point cloud and 3D modelling software so we could validate and begin processing all the data. That involved some night shifts but we wanted to make sure we had everything before flying home.” “We are heavy FARO users so we are very grateful for the close support of the FARO team in France.

They have always been a great help and the R&D department is always very interested in customer feedback,” says Happe with enthusiasm. GIM Geomatics, a company specialised in the management of information about civil, industrial, historical and environmental heritage, relies on FARO and its Faro Focus3D product for restoration. Structural changes to historic buildings depend on the precise recording of existing conditions – an ideal application for modern 3D laser scannersCoventry, April 2012. The church of St. Michael the Archangel (1735) stands in the centre of Borgo di Terzo, near Bergamo, Italy. Cracks were clearly visible in the front elevation masonry, indicating serious building damage. Due to its irregular architecture, the church – like all historic buildings – required a precise analysis of existing conditions as a basis for the renovation work.Image: University of Bergamo, Faculty of EngineeringExact measurements are enormously important, especially with structural intervention, and they form the foundation for structural analysis using the finite element method (FEM).

3D laser scanning is superb for the accurate recording of existing conditions. Comprehensive spatial data that can be used for structural analysis with standard software solutions is quickly and easily available.

At the same time, all data is available for CAD design of the restoration. Compared with classic measurement methods, laser scanning is more accurate and efficient. The equipment is easy to operate and enables 360° data capture.

Laser scanning provides records in which every individual point shows the same accuracy in the spatial coordinate system. Thus, it is possible to use the generated cloud of individual points (point cloud) not only for the investigation of a building component – as would be the case in measurement with a total station – but also to automatically record structural deformations of additional building components at the same time.As a basis for the forthcoming structural improvements to the church in Borgo di Terzo, the engineering faculty of Bergamo University made use of a FARO laser scanner and was able to record the interior of the building in a single day. A graphical approach was chosen to filter and interpolate the scanning data for the detailed investigations that followed before the renovation. This enabled use of normal architectural procedures for the building analysis: for example, systematic investigation of crack patterns in the masonry to display the damage in the orthogonal projection or a comparison of the actual geometry of a vault deformed under its own weight with its ideal geometry.In order to be able to use the church scan data with FEM, the point cloud had to be converted from a continuous model to a numerical model. Subsequently, sections relevant to the damage investigation and orthogonal to each other could be selected.

Here, element grids with a uniform spacing of 30 x 30 x 30 cm proved to be a good compromise in representing significant parts of the building structure.In the course of 3D documentation with the FARO laser scanner, the cause of the observed damage became clear: The timber roof framework had settled as a result of earlier restoration. Both a tie anchor and upper spines resting on the vault were affected. This led to heavy deflection and severe damage to the underlying vault masonry.

The current load distribution in the vault was evaluated and distribution following the planned restoration was checked, using FEM analysis. It showed that both the arched buttress supports and the corresponding anchors required renovation. In addition, the middle arch must be reinforced with a steel grid and lime mortar. The deformation of the vault under load also showed that a tie member of the vault spine had given way, suggesting replacement of this anchor. After these reinforcement measures were incorporated into the FEM model of existing conditions, a general improvement in the entire structural condition became apparent. Scanning a 10th century church for English Heritage with the FARO Laser Scanner. English Heritage asked Geospatial Survey Solutions and Deri Jones & Associates (GSS/DJA) to provide a laser survey of St.

Peters church, in Barton- upon-Humber, England. The requirement was a full laser scan survey of the interior of the site to produce a record of the floor heights for monitoring of subsidence, and to allow photographs of the 1980’s archaeological excavations to be used for photogrammetry. The initial survey was undertaken in August 2007 and they returned in 2008 to capture a further set of data to allow comparison and identify areas of subsidence. Saint Peter’s Church in Barton-upon-Humber can be dated back to the late tenth century and is among one of the most important historic buildings in Northern England.

The structure combines an Anglo- Saxon tower and baptistery, with a high medieval nave and chancel all including a wide range of architectural styles. Saint Peter’s church is in the care of English Heritage who took over the building in 1978 and carried out a detailed excavation between 1978 and 1984. On both visits to St. Peters, a single day’s scanning was all that GSS/DJA required to compile the data they needed. As there was uncertainty on the long term stability of the building, survey references were placed outside the church on separate structures to minimise movement. These could also be used if an external survey was required in the future.

The FARO Laser Scanner was used to capture the points, the separate scans were tied together using references gathered by their Total Station. The 2007 survey was used to create a detailed flagstone CAD drawing of the floor, elevations of the interior walls and reference data for the creation of photogrammetry models. Sections were taken through key points in the building to show the change in level of the floor along the length of the building. In 2008, the new survey data was aligned to the previous years data and a comparison drawing made of the relative levels, highlighting any subsidence. Height data for all of the 1600 flagstones in the main area of the church was processed, giving a very detailed survey of the relative movement of the floor over time.About GS / DJADjA & GSS supply laser scanning, dimensional control, 3D CAD engineering and visualisationservices.

Working with a variety of software packages, they provide the skills and experience to enable projects to go from 2D sketches to 3D components ready for manufacture and the abilityto capture existing structures for reverse engineering. As early investors in FARO’s large scale scanning equipment, GSS/DJA have gained a wide range of experience, from reverse engineering ship hulls to recording Roman sarcophagi. DJA/GSS’s team pride themselves on providing the highest accuracy of data and presenting the data in the most useful format to the client. With 15 years experience of 3D CAD and Digital content systems, DJA/GSS have theability to transform the massively detailed information recorded by laser scanning in to the correct end product for the client, whether it be IGES CAD surfaces, 2D CAD drawings or HDTV animated walkthroughs.More Information:www.djaweb.co.ukwww.geo-spatial.co.ukAbout FAROFARO develops and markets computer-aided coordinate measurement systems and measurement software worldwide. The portable measurement equipment can be used forproduction planning, and inventory documentation, as well as for the investigationand reconstruction of accident sites and crime scenes. They are also used for digital scanning of historical sites.4 good reasonsA portable non-contact measurement system using laser technology to accurately capture measurements.

The system rotates 360° and automatically measures everything within the line of sight from the scanner´s position.Optical Measurement: The intelligent laser system carries out optical non-tactile measurements.Resolution: The scanner creates an image with an extremely high resolution of up to 711 mio. Pixel per scan.Measuring Volume: The laser scanner captures measurements within a spherical radius range of up to 76 metres.Portability: With a weight of 14.5kg the laser scanner is easy to transport.