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Geomatics, also known as geospatial technology, geomatics engineering, or geomatic engineering is the discipline of gathering, storing, processing, and delivering geographic information, or spatially referenced information. In other words, it "consists of products, services and tools involved in the collection, integration and management of geographic data".
Overview and etymology
Michel Paradis, a French-Canadian surveyor, introduced geomatics as a new scientific term in an article published in 1981 in The Canadian Surveyor and in a keynote address at the centennial congress of the Canadian Institute of Surveying in April 1982. He claimed that at the end of the 20th century the needs for geographical information would reach a scope without precedent in history and in order to address these needs, it was necessary to integrate in a new discipline both the traditional disciplines of land surveying and the new tools and techniques of data capture, manipulation, storage and diffusion.
Geomatics includes the tools and techniques used in land surveying, remote sensing, cartography, geographic information systems (GIS), global-navigation satellite systems (GPS, GLONASS, Galileo, Compass), photogrammetry, geophysics, geography, and related forms of earth mapping. The term was originally used in Canada, because it is similar in origin to both French and English,[clarification needed] but has since been adopted by the International Organization for Standardization, the Royal Institution of Chartered Surveyors, and many other international authorities, although some (especially in the United States) have shown a preference for the term geospatial technology.[verification needed]
The related field of hydrogeomatics covers the area associated with surveying work carried out on, above or below the surface of the sea or other areas of water. The older term of hydrographics was considered[by whom?] too specific to the preparation of marine charts, and failed to include the broader concept of positioning or measurements in all marine environments.
A geospatial network is a network of collaborating resources for sharing and coordinating geographical data and data tied to geographical references. One example of such a network is the Open Geospatial Consortium's efforts to provide ready global access to geographic information. A number[quantify] of university departments which were once titled "surveying", "survey engineering" or "topographic science" have re-titled themselves using the terms "geomatics" or "geomatic engineering".
The rapid progress and increased visibility of geomatics since the 1990s has been made possible by advances in computer hardware, computer science, and software engineering, as well as by airborne and space observation remote-sensing technologies.
The science of deriving information about an object using a sensor without physically contacting it is called remote sensing, which is a part of geomatics.
Geomatics engineering 
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Geomatics Engineering, Geomatic Engineering, Geospatial Engineering or Surveying Engineering is a rapidly developing engineering discipline that focuses on spatial information (i.e. information that has a location). The location is the primary factor used to integrate a very wide range of data for spatial analysis and visualization. Geomatics engineers apply engineering principles to spatial information and implement relational data structures involving measurement sciences, thus using geomatics and acting as spatial information engineers. Geomatics engineers manage local, regional, national and global spatial data infrastructures.Geomatics Engineering also involves aspects of Computer Engineering, Software Engineering and Civil Engineering.
Geomatics is a field that incorporates several others such as the older field of land surveying along with many other aspects of spatial data management ranging from data science and cartography to geography. Following the advanced developments in digital data processing, the nature of the tasks required of the professional land surveyor has evolved and the term "surveying" no longer accurately covers the whole range of tasks that the profession deals with. Like how the profession of mechanics is a part of mechanical engineering, surveying is a part of geomatic engineering. As our societies become more complex, information with a spatial position associated with it becomes more critical to decision-making, both from a personal and a business perspective, and also from a community and a large-scale governmental viewpoint.
Therefore, the geomatics engineer can be involved in an extremely wide variety of information gathering activities and applications. Geomatics engineers design, develop, and operate systems for collecting and analyzing spatial information about the land, the oceans, natural resources, and manmade features. Geomatics engineering applications include integrating science and technology from both new and traditional disciplines:
- Global positioning system (GPS) or global navigation satellite system (GNSS)
- Surveying (including land, cadastral, aerial, mining and engineering surveying)
- Location-based services
- Cartography and digital mapping
- Geographic information systems (GIS), geographic information science (GIScience), spatial database management and geographic information technology (GeoIT)
- Spatial analysis, spatial data mining and knowledge discovery, and spatial statistics
- Computer-aided design (CAD) and scientific visualization
- Geovisualization, Geovisual Analytics, Visual communication design, graphic design and multimedia technology
- Remote sensing
- Image processing
- Computer vision
- Land information systems (LIS)
- Land management, cadastre, real property law
- Applications programming
- Project management
The more traditional land surveying strand of geomatics engineering is concerned with the determination and recording of boundaries and areas of real property parcels, and the preparation and interpretation of legal land descriptions. The tasks more closely related to civil engineering include the design and layout of public infrastructure and urban subdivisions, and mapping and control surveys for construction projects.
Geomatics engineers serve society by collecting, monitoring, archiving, and maintaining diverse spatial data infrastructures. Geomatics engineers utilize a wide range of technologically advanced tools such as digital theodolite/distance meter total stations, Global Positioning System (GPS) equipment, digital aerial imagery (both satellite and air-borne), and computer-based geographic information systems (GIS). These tools enable the geomatics engineer to gather, process, analyze, visualize and manage spatially related information to solve a wide range of technical and societal problems.
Geomatics engineering is the field of activity that integrates the acquisition, processing, analysis, display and management of spatial information. It is an exciting and new grouping of subjects in the spatial and environmental information sciences with a broad range of employment opportunities as well as offering challenging pure and applied research problems in a vast range of interdisciplinary fields.
In different schools and in different countries the same education curriculum is administered with the name surveying in some, and in others with the names geomatics, geospatial (information) engineering, or geodesy and geoinformatics. While these occupations were at one time often taught in civil engineering education programs, more and more universities include the departments relevant for geo-data sciences under informatics, computer science or applied mathematics. These facts demonstrate the breadth, depth and scope of the highly interdisciplinary nature of geomatics engineering.
Application areas include:
- Aeromagnetic surveys
- Airborne geophysics
- Air navigation services
- Archaeological excavation and survey for GIS applications
- Coastal zone management and mapping
- Disaster informatics for disaster risk reduction and response
- The environment
- Infrastructure management
- Land management and reform
- Natural resource monitoring and development
- Seismic Interpretation
- Subdivision planning
- Urban planning
- Resource Management
- Climate Change/Environmental Monitoring
- Geographic information systems
- Land Surveying
- Digital terrain modelling
- Applied Geomatics Research Laboratory, University of Waterloo
- Paradis, Michel (September 1981). "De l'arpentage à la géomatique". Le géomètre canadien (in French) 35 (3): 262.
- Geomatics Canada Ottawa: Natural Resources Canada ISSN 1491-5480
- Dermanis, Athanasios; Grün, Armin; Sansò, Fernando (2000). Geomatic Methods for the Analysis of Data in the Earth Sciences. New York: Springer. ISBN 978-3-540-67476-4.
- Kavanagh, Barry F. (2003). Geomatics. Prentice Hall. ISBN 978-0-130-32289-0.
- Yvan Bédard, "Geomatics" in Karen Kemp (2008), Encyclopedia of Geographic Information Science, Sage. 
- Gomarasca, Mario A. (2009). Basics of Geomatics. Springer. ISBN 978-1-402-09014-1.
- "Geomatics", Chap. 1 in Mario A. Gomarasca (2009) Basics of Geomatics, Springer.
- "Geomatics", sec. 1.3 in Mathias Lemmens (2011), Geo-information: Technologies, Applications and the Environment, Springer. 
- Bachelor of Science in Geomatics at Nicholls State University
- Geomatics program at the University of Florida
- Canada's Northwest Territories Centre for Geomatics
- UK's Environment Agency Geomatics Group
- GIM International Lemmer, the Netherlands: Geodetical Information & Trading Centre ISSN 1566-9076
- (French) Géomètres sans Frontières : Association de géometres pour aide au développement.
- Geomatics at DMOZ