This document provides information on the course structure and syllabus for an M.Tech in Geomatics program offered by the Survey Training Institute in collaboration with Jawaharlal Nehru Technological University.
The program is spread over 4 semesters. Each semester is approximately 20-21 weeks with classes typically 4 sessions per day of around 100 minutes each. There are normally 15 theory and 4 laboratory sessions per week.
The syllabus covers subjects in the areas of surveying, geodesy, photogrammetry, remote sensing, GIS, and cartography. Some example subjects listed are topographical surveying and mapping, introduction to geodesy, elements of photogrammetry, and remote sensing
This document provides an overview of cartography and mapmaking. It discusses the cartographic process, which involves collecting and organizing data, designing maps, and reproducing maps. It also describes the uses and functions of maps, different map types and symbols, various map projections, and technological changes in the field. The document outlines advantages and limitations of maps and concludes that cartography involves the theory and practice of mapmaking to effectively communicate spatial information.
Digital cartography involves the generation, storage, and editing of maps using computers. It has advantages over analog cartography like easier storage, updating, and access to data. Data is collected through remote sensing, aerial photography, scanning, and digitizing. GPS is also used. Digital databases store spatial and non-spatial data. Analysis and representation of data is facilitated using GIS tools. Digital cartography has made mapping accessible to non-specialists.
Presentació realitzada a l'ICC (27/09/2013) en el marc de la conferència magistral, a càrrec del Prof. Georg Gartner, president de l'Associació Cartogràfica Internacional (ICA/ACI)
This document discusses the definition, nature, and scope of cartography. It can be summarized as follows:
1) Cartography is the science and art of making maps. It combines elements of geography, earth science, and communication to graphically portray spatial information about the earth or other celestial bodies.
2) Cartography relies on techniques from fields like surveying, remote sensing, and geography to collect and generalize data, which is then designed and constructed into maps to convey messages and facts to users.
3) Advances in technology like satellites, computers, and the internet have significantly impacted cartographic processes by providing new data sources, analysis tools, and modes of map production and sharing. However, traditional
Maps are graphic representations that help spatially understand things, concepts, or events. There are three main types of maps: topographic, thematic, and special maps. A geographic information system (GIS) integrates hardware, software, and data to capture, manage, analyze and display geographically referenced information. Modern cartography, or map making, largely uses computers and GIS technology.
The document provides an overview of cartography and the key elements involved in mapmaking. It discusses important concepts like map projections, datums, geographic coordinates, and the common elements of maps such as titles, legends, scales, and directional indicators. It also examines different types of map projections including conic, cylindrical, and planar projections; and factors to consider in map design like the target audience, level of detail to include, appropriate use of symbols, colors and labeling. In the end, it shares some examples of excellent maps created by cartographers and acknowledges the sources of information.
Cartography is the science and art of map making. Maps are representations of areas of the earth on a flat surface and include titles, scales, legends, and source statements. Scale expresses the ratio between distances on a map and in real life using statements of scale, representative fractions, and linear scales. There are different units of measurement for distances and scales can be small, showing larger areas with less detail, or large, showing smaller areas with more detail. Maps are also classified based on their communicative objectives like reference maps or thematic maps, and by their subject matter and function like cadastral, topographic, soil, weather, and population maps.
This document provides an overview of cartography and mapmaking. It discusses the cartographic process, which involves collecting and organizing data, designing maps, and reproducing maps. It also describes the uses and functions of maps, different map types and symbols, various map projections, and technological changes in the field. The document outlines advantages and limitations of maps and concludes that cartography involves the theory and practice of mapmaking to effectively communicate spatial information.
Digital cartography involves the generation, storage, and editing of maps using computers. It has advantages over analog cartography like easier storage, updating, and access to data. Data is collected through remote sensing, aerial photography, scanning, and digitizing. GPS is also used. Digital databases store spatial and non-spatial data. Analysis and representation of data is facilitated using GIS tools. Digital cartography has made mapping accessible to non-specialists.
Presentació realitzada a l'ICC (27/09/2013) en el marc de la conferència magistral, a càrrec del Prof. Georg Gartner, president de l'Associació Cartogràfica Internacional (ICA/ACI)
This document discusses the definition, nature, and scope of cartography. It can be summarized as follows:
1) Cartography is the science and art of making maps. It combines elements of geography, earth science, and communication to graphically portray spatial information about the earth or other celestial bodies.
2) Cartography relies on techniques from fields like surveying, remote sensing, and geography to collect and generalize data, which is then designed and constructed into maps to convey messages and facts to users.
3) Advances in technology like satellites, computers, and the internet have significantly impacted cartographic processes by providing new data sources, analysis tools, and modes of map production and sharing. However, traditional
Maps are graphic representations that help spatially understand things, concepts, or events. There are three main types of maps: topographic, thematic, and special maps. A geographic information system (GIS) integrates hardware, software, and data to capture, manage, analyze and display geographically referenced information. Modern cartography, or map making, largely uses computers and GIS technology.
The document provides an overview of cartography and the key elements involved in mapmaking. It discusses important concepts like map projections, datums, geographic coordinates, and the common elements of maps such as titles, legends, scales, and directional indicators. It also examines different types of map projections including conic, cylindrical, and planar projections; and factors to consider in map design like the target audience, level of detail to include, appropriate use of symbols, colors and labeling. In the end, it shares some examples of excellent maps created by cartographers and acknowledges the sources of information.
Cartography is the science and art of map making. Maps are representations of areas of the earth on a flat surface and include titles, scales, legends, and source statements. Scale expresses the ratio between distances on a map and in real life using statements of scale, representative fractions, and linear scales. There are different units of measurement for distances and scales can be small, showing larger areas with less detail, or large, showing smaller areas with more detail. Maps are also classified based on their communicative objectives like reference maps or thematic maps, and by their subject matter and function like cadastral, topographic, soil, weather, and population maps.
The Discipline of Cartography – philosophical basis and modern transformationsProf Ashis Sarkar
The discipline of cartography includes the art, science, technology and commerce of maps. It is a scientific discipline that was developed in the ancient period based on geometry, mathematics, and astronomy. Since then it has undergone a sea change in map making, preservation and user interface.
This document provides an overview of cartography and mapmaking. It discusses the processes involved, such as data collection, design, and reproduction. It covers the uses and functions of maps, different types of maps and symbols used. It also explains important concepts like map projections and technological changes in the field. The document highlights both the advantages of maps in conveying spatial information efficiently, as well as their limitations in providing complete accuracy.
Candidates are expected to develop a variety of basic, investigative, cartographic, graphical, applied ICT and statistical skills. These include skills such as annotating maps and diagrams, literacy skills, identifying geographical questions, collecting and analyzing evidence through primary and secondary sources, presenting and interpreting data, and evaluating conclusions. Specific skills involve using atlases, maps, graphs, geospatial technologies, and statistical analysis techniques. The level of proficiency for these skills increases between GCSE, AS, and A2 levels.
Gives details about maps, projections,their uses and also about data presentation. Made for students for 11th and 12th standard. Also helpful for competitive examinations. This file is made from NCERT books of class 11th and 12th books titled "Practical work in Geography"
This article is talking about the importance of maps. It tells us the history and usage of map. After reading the map, you will learn how important the maps is in our daily life. It brings us much convenience.
The document discusses map reading and interpretation. It covers relief representation using contour lines on maps, drainage patterns, and human-made features. Students will learn about contour lines, how they represent 3D relief on 2D maps, and how to draw contour lines and cross sections. Contour lines connect points of equal elevation and come in three types: index lines with elevation numbers every fifth line, intermediate lines between the index lines, and supplementary dashed lines for half-interval changes in elevation.
This document provides an overview of cartography. It begins with definitions of cartography and discusses the importance and history of maps. The history section outlines some of the earliest maps from ancient civilizations like Babylonia, Egypt, and Greece. It also describes important contributions from figures like Ptolemy, including his world map and map projections. The document emphasizes that cartography has progressed from early conceptual maps to more accurate representations incorporating scientific principles.
Comparison among Height Observation of GPS, Total Station and Level and their...IRJET Journal
This document compares the accuracy of GPS, total station, and level instruments for measuring elevation in mining works by using GIS technology. Statistical analysis showed the level measurements had the lowest variation while GPS had the highest. Topographic maps were created from observations from each instrument, showing they produced similar overall elevation patterns. The document concludes that while GPS and total station measurements have some error, their accuracy is sufficient for mining works. GIS allows easy analysis and use of elevation data from any of the three instruments.
This document provides an introduction to maps, including what maps are, why they are made, and how to read them. It discusses that maps are generalized views of areas seen from above that represent spatial relationships in a concise manner. It also covers map scales, symbols, projections, and how topographic maps specifically show both 2D and 3D features through the use of contour lines.
Surveying for Civil engineering is a
particular type of surveying known as "land surveying", it is the
detailed study or inspection, as by gathering information through
observations, measurements in the field, questionnaires, or
research of legal instruments, and data analysis in the support of
planning, designing, and establishing of property boundaries.
Land surveying can include associated services such as mapping
and related data accumulation, construction layout surveys,
precision measurements of length, angle, elevation, area, and
volume, as well as horizontal and vertical control surveys, and
the analysis and utilization of land survey data. Surveyors use
various tools to do their work successfully and accurately, such
as total stations, robotic total stations, GPS receivers, prisms, 3D
scanners, radio communicators, handheld tablets, digital levels,
and surveying software.
Survey data can be directly entered into a GIS from digital
data collection systems on survey instruments. When data is
captured, the user should consider if the data should be captured
with either a relative accuracy or absolute accuracy, since this
could not only influence how information will be interpreted but
also the cost of data captured.
In this paper GIS maps were developed depending on the
field surveying data made for a two traverses. First one has ribs
less than 50m length and the other larger than 50m. Each
traverse is holding five times using five equipments and
instruments: Tape, Level, Digital level, Digital theodolite and
Laser tape. Also those maps were drawn by using both of ACAD
and ArcView softwares. Then a detail surveying map was
produced. The precision was computed for both traverses in each
method. Its value is range from 1/140 to 1/10000.
This document discusses topographic map design and layout. It begins with definitions of topographic maps and their typical contents, which include elevation, slope, land use, hydrographic features, and man-made structures. The presentation then covers the design process, including conceptualization, visualization, and construction of maps. Key aspects of design like legibility, visual contrast, figure-ground organization, and hierarchical structure are explained. The document concludes with discussions of map layout conventions and factors that influence effective design.
Topics:
1. Mapping Concepts
2. Analysis with paper based Maps
3. Limitations of Paper based Maps
4. Computer Aided Cartography History and Development
5. GIS Definition
6. Advantage of Digital Maps
1) Maps are essential tools for military planning and operations as they show terrain features, routes, and other details that cannot be directly observed.
2) Users must understand how to read, interpret, care for, and securely handle maps. Proper map reading skills allow the user to visualize locations and plan movements.
3) Maps contain marginal information to guide the reader, such as the scale, edition number, legend, grids, and coordinates which are used to accurately reference locations. Military symbols overlay tactical information.
e-SOTER Regional pilot platform as EU contribution to a Global Soil Observing...FAO
The document discusses testing the e-SOTER approach for soil mapping in Morocco. The e-SOTER method aims to standardize soil data collection and mapping across countries. For Morocco, the project involved characterizing landforms and parent materials from remote sensing data, correlating local soil classifications to international standards, and mapping soils at large and medium scales. Field validation found 56% accuracy for medium-scale mapping. While e-SOTER provides a framework, it has some limitations for processes like decarbonation in semi-arid areas. Overall, the project helped build soil mapping capacity in Morocco and established a database to inform projects on climate change, erosion, and land use.
This document provides an overview of key concepts in mapping, including:
1) It describes the shape and size of the Earth and different ways of representing it, such as globes and maps.
2) It explains what maps are, different types of maps, and factors to consider like scale and purpose.
3) It discusses important concepts like map projections, elements of maps, and considerations for cartography like scale, accuracy, and resolution.
International Journal of Engineering and Science Invention (IJESI)inventionjournals
International Journal of Engineering and Science Invention (IJESI) is an international journal intended for professionals and researchers in all fields of computer science and electronics. IJESI publishes research articles and reviews within the whole field Engineering Science and Technology, new teaching methods, assessment, validation and the impact of new technologies and it will continue to provide information on the latest trends and developments in this ever-expanding subject. The publications of papers are selected through double peer reviewed to ensure originality, relevance, and readability. The articles published in our journal can be accessed online.
Data Visualization GIS and Maps, The Visualization Process Visualization Strategies: Present or explore? The cartographic toolbox: What kind of data do I have?, How can I map my data? How to map?: How to map qualitative data, How to map quantitative data, How to map the terrain elevation, How to map time series Map Cosmetics, Map Dissemination
SREELEKSHMI.R.S is presenting on the topic of latitudes and longitudes for her Social Science option. Latitudes are angular measurements from the center of the Earth that run parallel east to west. They are drawn at specific angular distances from the equator, which is considered 0 degrees latitude. Longitudes run north to south and connect the North and South Poles. The 0 longitude passes through parts of Africa and Europe. The distance between longitude lines decreases the closer they are to the poles.
This document discusses map projections and their characteristics. It defines map projections as systematic transformations of a spherical surface to a flat surface for mapping purposes. Several types of map projections are described, each with specific properties and distortions. An ideal map projection is defined as one that accurately represents distances, angles, great circles and coordinates without any distortions, but in practice no single projection can achieve this. Key factors like scale, scale factor and representing scale on maps are also covered.
The Discipline of Cartography – philosophical basis and modern transformationsProf Ashis Sarkar
The discipline of cartography includes the art, science, technology and commerce of maps. It is a scientific discipline that was developed in the ancient period based on geometry, mathematics, and astronomy. Since then it has undergone a sea change in map making, preservation and user interface.
This document provides an overview of cartography and mapmaking. It discusses the processes involved, such as data collection, design, and reproduction. It covers the uses and functions of maps, different types of maps and symbols used. It also explains important concepts like map projections and technological changes in the field. The document highlights both the advantages of maps in conveying spatial information efficiently, as well as their limitations in providing complete accuracy.
Candidates are expected to develop a variety of basic, investigative, cartographic, graphical, applied ICT and statistical skills. These include skills such as annotating maps and diagrams, literacy skills, identifying geographical questions, collecting and analyzing evidence through primary and secondary sources, presenting and interpreting data, and evaluating conclusions. Specific skills involve using atlases, maps, graphs, geospatial technologies, and statistical analysis techniques. The level of proficiency for these skills increases between GCSE, AS, and A2 levels.
Gives details about maps, projections,their uses and also about data presentation. Made for students for 11th and 12th standard. Also helpful for competitive examinations. This file is made from NCERT books of class 11th and 12th books titled "Practical work in Geography"
This article is talking about the importance of maps. It tells us the history and usage of map. After reading the map, you will learn how important the maps is in our daily life. It brings us much convenience.
The document discusses map reading and interpretation. It covers relief representation using contour lines on maps, drainage patterns, and human-made features. Students will learn about contour lines, how they represent 3D relief on 2D maps, and how to draw contour lines and cross sections. Contour lines connect points of equal elevation and come in three types: index lines with elevation numbers every fifth line, intermediate lines between the index lines, and supplementary dashed lines for half-interval changes in elevation.
This document provides an overview of cartography. It begins with definitions of cartography and discusses the importance and history of maps. The history section outlines some of the earliest maps from ancient civilizations like Babylonia, Egypt, and Greece. It also describes important contributions from figures like Ptolemy, including his world map and map projections. The document emphasizes that cartography has progressed from early conceptual maps to more accurate representations incorporating scientific principles.
Comparison among Height Observation of GPS, Total Station and Level and their...IRJET Journal
This document compares the accuracy of GPS, total station, and level instruments for measuring elevation in mining works by using GIS technology. Statistical analysis showed the level measurements had the lowest variation while GPS had the highest. Topographic maps were created from observations from each instrument, showing they produced similar overall elevation patterns. The document concludes that while GPS and total station measurements have some error, their accuracy is sufficient for mining works. GIS allows easy analysis and use of elevation data from any of the three instruments.
This document provides an introduction to maps, including what maps are, why they are made, and how to read them. It discusses that maps are generalized views of areas seen from above that represent spatial relationships in a concise manner. It also covers map scales, symbols, projections, and how topographic maps specifically show both 2D and 3D features through the use of contour lines.
Surveying for Civil engineering is a
particular type of surveying known as "land surveying", it is the
detailed study or inspection, as by gathering information through
observations, measurements in the field, questionnaires, or
research of legal instruments, and data analysis in the support of
planning, designing, and establishing of property boundaries.
Land surveying can include associated services such as mapping
and related data accumulation, construction layout surveys,
precision measurements of length, angle, elevation, area, and
volume, as well as horizontal and vertical control surveys, and
the analysis and utilization of land survey data. Surveyors use
various tools to do their work successfully and accurately, such
as total stations, robotic total stations, GPS receivers, prisms, 3D
scanners, radio communicators, handheld tablets, digital levels,
and surveying software.
Survey data can be directly entered into a GIS from digital
data collection systems on survey instruments. When data is
captured, the user should consider if the data should be captured
with either a relative accuracy or absolute accuracy, since this
could not only influence how information will be interpreted but
also the cost of data captured.
In this paper GIS maps were developed depending on the
field surveying data made for a two traverses. First one has ribs
less than 50m length and the other larger than 50m. Each
traverse is holding five times using five equipments and
instruments: Tape, Level, Digital level, Digital theodolite and
Laser tape. Also those maps were drawn by using both of ACAD
and ArcView softwares. Then a detail surveying map was
produced. The precision was computed for both traverses in each
method. Its value is range from 1/140 to 1/10000.
This document discusses topographic map design and layout. It begins with definitions of topographic maps and their typical contents, which include elevation, slope, land use, hydrographic features, and man-made structures. The presentation then covers the design process, including conceptualization, visualization, and construction of maps. Key aspects of design like legibility, visual contrast, figure-ground organization, and hierarchical structure are explained. The document concludes with discussions of map layout conventions and factors that influence effective design.
Topics:
1. Mapping Concepts
2. Analysis with paper based Maps
3. Limitations of Paper based Maps
4. Computer Aided Cartography History and Development
5. GIS Definition
6. Advantage of Digital Maps
1) Maps are essential tools for military planning and operations as they show terrain features, routes, and other details that cannot be directly observed.
2) Users must understand how to read, interpret, care for, and securely handle maps. Proper map reading skills allow the user to visualize locations and plan movements.
3) Maps contain marginal information to guide the reader, such as the scale, edition number, legend, grids, and coordinates which are used to accurately reference locations. Military symbols overlay tactical information.
e-SOTER Regional pilot platform as EU contribution to a Global Soil Observing...FAO
The document discusses testing the e-SOTER approach for soil mapping in Morocco. The e-SOTER method aims to standardize soil data collection and mapping across countries. For Morocco, the project involved characterizing landforms and parent materials from remote sensing data, correlating local soil classifications to international standards, and mapping soils at large and medium scales. Field validation found 56% accuracy for medium-scale mapping. While e-SOTER provides a framework, it has some limitations for processes like decarbonation in semi-arid areas. Overall, the project helped build soil mapping capacity in Morocco and established a database to inform projects on climate change, erosion, and land use.
This document provides an overview of key concepts in mapping, including:
1) It describes the shape and size of the Earth and different ways of representing it, such as globes and maps.
2) It explains what maps are, different types of maps, and factors to consider like scale and purpose.
3) It discusses important concepts like map projections, elements of maps, and considerations for cartography like scale, accuracy, and resolution.
International Journal of Engineering and Science Invention (IJESI)inventionjournals
International Journal of Engineering and Science Invention (IJESI) is an international journal intended for professionals and researchers in all fields of computer science and electronics. IJESI publishes research articles and reviews within the whole field Engineering Science and Technology, new teaching methods, assessment, validation and the impact of new technologies and it will continue to provide information on the latest trends and developments in this ever-expanding subject. The publications of papers are selected through double peer reviewed to ensure originality, relevance, and readability. The articles published in our journal can be accessed online.
Data Visualization GIS and Maps, The Visualization Process Visualization Strategies: Present or explore? The cartographic toolbox: What kind of data do I have?, How can I map my data? How to map?: How to map qualitative data, How to map quantitative data, How to map the terrain elevation, How to map time series Map Cosmetics, Map Dissemination
SREELEKSHMI.R.S is presenting on the topic of latitudes and longitudes for her Social Science option. Latitudes are angular measurements from the center of the Earth that run parallel east to west. They are drawn at specific angular distances from the equator, which is considered 0 degrees latitude. Longitudes run north to south and connect the North and South Poles. The 0 longitude passes through parts of Africa and Europe. The distance between longitude lines decreases the closer they are to the poles.
This document discusses map projections and their characteristics. It defines map projections as systematic transformations of a spherical surface to a flat surface for mapping purposes. Several types of map projections are described, each with specific properties and distortions. An ideal map projection is defined as one that accurately represents distances, angles, great circles and coordinates without any distortions, but in practice no single projection can achieve this. Key factors like scale, scale factor and representing scale on maps are also covered.
This document discusses different coordinate systems used to describe points in 2D and 3D space, including polar, cylindrical, and spherical coordinates. It provides the key formulas for converting between Cartesian and these other coordinate systems. Examples are given of converting points and equations between the different coordinate systems. The key points are that polar coordinates use an angle and distance to specify a 2D point, cylindrical coordinates extend this to 3D using a z-value, and spherical coordinates specify a 3D point using a distance from the origin, an angle, and an azimuthal angle.
History of geodetic measurement. Description of the geodetic model of the earth. Relationship between the ellipsoid, geoid, and earth’s surface. Measurement of long baselines. Gravity and the geoid. Relationship between terrestrial observations and grid coordinates.
Longitudes are vertical lines that run from the North to South Pole. They are used along with latitude to give the exact position of places on Earth. Latitudes are horizontal lines parallel to the equator, with 0° at the equator. Latitudes are not all the same length, getting shorter closer to the poles. Together, latitude and longitude allow any location on Earth to be precisely identified.
The Earth is not a perfect sphere, but is slightly flattened at the poles. The Earth rotates daily on its tilted axis, causing seasons and influencing climate. Parallels of latitude and meridians of longitude form a grid system to locate positions on the Earth's surface. The Earth revolves around the Sun annually in an elliptical orbit, with the seasons resulting from the tilt of its axis of rotation. Precise geodetic coordinates define locations on the reference ellipsoid used to model the oblate spheroid shape of the Earth.
This document summarizes key concepts from a GIS training session, including:
1) It discusses how to manipulate map views and import coordinate data from files.
2) It covers concepts of geodesy and map projections, explaining that projections transform the curved Earth into a flat map and introduce distortions.
3) The three main types of map projections are described as conic, cylindrical, and azimuthal, each preserving different earth properties like shape, area, distance or direction.
Introduction to MAPS,Coordinate System and Projection SystemNAXA-Developers
This document discusses key concepts in GIS including maps, coordinate systems, map projections, and their application in Nepal. It defines analog and digital maps, and explains that the earth is an ellipsoid rather than a perfect sphere. It introduces geographic and rectangular coordinate systems, and defines map projections as methods to represent the curved earth on a flat surface. The document outlines the Everest ellipsoid and UTM/MUTM projection systems used in Nepal.
1) Geodesy is the science of measuring and mapping the Earth's surface, including determining its shape, size, and gravity field.
2) Early Greek scholar Eratosthenes used simple observations and geometry to estimate the circumference of Earth to within 1% accuracy over 2000 years ago.
3) While the Earth is approximated as an oblate spheroid, its true shape, called the geoid, is irregular due to density variations underground. Precise positioning and heights require accounting for geoid undulations.
The document discusses geographic coordinate systems (GCS) and projected coordinate systems (PCS). It explains that a GCS uses latitude and longitude to define locations on Earth based on the equator and prime meridian. A PCS projects locations onto a flat surface using x,y coordinates defined by a grid. It also discusses datums, which define ellipsoids and their position relative to Earth's center, providing a reference frame. Map projections transform locations from the ellipsoid to the flat grid using mathematical formulas that can distort shapes, areas, or distances.
Geographic coordinate system & map projectionvishalkedia119
The document discusses geographic coordinate systems and map projections. It defines key concepts like geoid, spheroid, datum, latitude and longitude, projections, and the UTM coordinate system. The UTM system divides the globe into 60 zones, each 6 degrees wide, and uses a Transverse Mercator projection within each zone. UTM coordinates express a point's easting and northing distances in meters from the central meridian and equator/south pole.
The document discusses properties of reference ellipsoids used in geodesy. It describes how an ellipsoid is a surface of revolution created by rotating an ellipse about its minor axis, with meridians of longitude being ellipses and parallels of latitude being circles. It then provides details on the mathematical definition of an ellipse as a conic section, including Cartesian equations relating the distances from two fixed points (foci) and parametric equations derived by considering intersections with auxiliary circles.
This document discusses geodetic systems and how they represent the Earth mathematically. It defines key concepts like datums, ellipsoids, and coordinate systems. Specifically, it explains that datums define geodetic systems using reference ellipsoids that approximate the geoid and Earth's irregular shape. Common datums like NAD27, NAD83, and WGS84 are described that use different ellipsoids and reference points. It also outlines how latitude, longitude, and elevation are used in geographic coordinate systems to specify locations on Earth.
Understanding Coordinate Systems and Projections for ArcGISJohn Schaeffer
Everything you need to know to work with coordinate systems and projecting data in ArcGIS. The presentation starts by explaining the terminology, and then discusses the details you need to know to actually work successfully with coordinate systems, use the proper projections, and geographic transformations. This is a very practical look at a complex subject.
This document discusses various coordinate systems used to define positions in satellite navigation. It describes geocentric systems like ECEF and ECI that use the Earth's center as the origin, as well as topocentric systems that use the observer's location. It also discusses spherical coordinate systems that define positions using radial distance, elevation and azimuth angles. Key systems covered include WGS-84 used in GPS and PZ-90.02 used in GLONASS. While definitions are close, realized coordinates between the two systems can differ by up to 0.5 meters.
Geodesy is the science of measuring and representing the Earth, including its gravity field. It has applications in monitoring climate change, natural hazards, volcanoes, water resources, soil moisture, glaciers, and landslides using space-based technologies like GNSS, altimetry, and gravity missions. Some key technologies are GPS, GLONASS, altimetry missions like TOPEX and JASON-1, and gravity missions like GRACE and CHAMP. Geodesy has its origins in ancient Greece and has evolved into a modern discipline using satellites to study Earth systems and processes.
Remote sensing and GIS techniques are useful tools for civil engineering projects. There are several models that can be used to represent the shape of the Earth, including flat, spherical, and ellipsoidal models. The ellipsoidal model is needed for accurate measurements over long distances. A geodetic datum defines the parameters of the reference ellipsoid and the orientation of the coordinate system grid. Common datums include NAD27 and NAD83, and transformations allow conversion between them. Map projections, such as Mercator and UTM, are used to represent the 3D Earth on a 2D surface, inevitably distorting some spatial properties like shape, area, or distance.
Location. Location. Location. With so many maps and datums out there, how does a person know what datum is correct? How come my GPS coordinates don\'t match up on my map? Why is there a shift of 100 metres? How do I transform between different datums? What is a datum? What is the EPSG? Why have GIS Vendors and Oracle adopted them? Does offshore or onshore make a difference? How come there are so many datums? This presentation looks to provide some answers to some of these questions and to point out that latitude and longitude are not absolute.
Over the decades that surveyors have been trying to map the Earth, history and politics have shaped the way we see the world. Are the borders actually there? What if one nation adopts a standard, but the other does not? Does really matter what the co-ordinate system is? Why when I draw the a UTM Projection, the lines are curved, not in a grid? Is the OGC adopting these standards? So many questions and this presentation aims to answer some of them and provide some light on a complicated and sometimes unclear topic.
Surveying is used at various stages of a construction project from conceptual planning to maintenance. It involves measuring positions and elevations to determine spatial relationships and enable engineering design and construction. Common surveying methods include chain, compass, theodolite, plane table, tachometric, aerial photographic, and remote sensing surveys. Levelling specifically refers to determining relative elevations and is important for engineering works like establishing rail and road alignments and profiles. Key levelling instruments are dumpy level, tilting level, automatic level, and digital level.
This document presents a landslide susceptibility map created for Sri Lanka using a bivariate statistical method. Six factors that influence landslide susceptibility are identified: lithology, soil type, landuse, slope, aspect, and curvature. GIS software is used to generate weighted maps for each factor based on statistical analysis of landslide occurrences. These weighted maps are then combined through map algebra to create a final landslide hazard susceptibility map for Sri Lanka. The workflow involves data preparation steps like rasterization of vector data, reclassification of aspect, slope and curvature, followed by zonal statistics analysis and calculation of weight values to produce individual weighted maps for each factor, which are then summed to obtain the final susceptibility map.
This document provides an outline for a presentation on geospatial technologies including remote sensing, GPS, mapping, surveying, and GIS. It begins with an introduction to the geomatic umbrella and defines key geospatial concepts. It then discusses remote sensing platforms and sensors, and provides examples of agricultural and forestry applications. It also summarizes GPS systems and applications. The document defines mapping and surveying and provides examples. It concludes with an overview of GIS hardware, software, data, and functions and discusses example applications in emergency management, petroleum management, and utilities.
This document summarizes a study that evaluated the accuracy of GPS and automatic level instruments for topographic surveying. The study collected elevation data using both instruments at points in a study area in Iraq. The data was input into GIS software to create contour maps and digital elevation models (DEMs) from each dataset. The accuracy of the DEMs was then evaluated and compared. The results showed the effect that the source data, DEM resolution, and ground control point distribution had on accuracy. This allowed the study to assess the relative accuracy and effectiveness of GPS versus automatic leveling for topographic data collection and DEM generation.
This document summarizes a study that evaluated the accuracy of GPS and automatic level instruments for topographic surveying. Researchers collected elevation data for 25 points in the study area using both a GPS receiver and an automatic level. They then used ArcGIS to create contour maps and digital elevation models from each dataset. The results showed that the GPS data had lower standard deviation and was therefore more accurate than the automatic level data. However, automatic leveling remains a cost-effective method for small study areas. The integration of GPS and GIS techniques allows for efficient processing and analysis of spatial data to produce high accuracy topographic maps and DEMs.
Fundamentals of GIS and Database Management for Disaster ManagementSyadur Rahaman
A geographic information system (GIS) integrates hardware, software, and data for capturing, managing, analyzing, and displaying all forms of geographically referenced information. It allows users to visualize, analyze, and interpret data to understand relationships and patterns. GIS uses both vector and raster data models - vector uses points, lines, and polygons to represent discrete objects, while raster divides the world into a grid of cells with continuous values. Key components include layers to display different datasets, as well as remote sensing techniques and GPS for data collection. GIS has many applications including disaster management, land use planning, and natural resource management.
This document provides information about an advanced surveying course. The course aims to teach students to apply geometric principles to solve surveying problems, use modern instruments to obtain and analyze geospatial data, analyze geodetic data to solve survey problems, integrate surveying with geospatial tools, and evaluate different land and satellite survey methods. The course outcomes and program outcomes are also listed, covering topics like engineering knowledge, problem analysis, design skills, investigation skills, tool usage, societal and environmental awareness, ethics, teamwork, communication, project management, and lifelong learning.
Geographic information system(GIS) and its applications in agricultureKiranmai nalla
This document presents a seminar on geographic information systems (GIS) given by Nalla Anthony Kiranmai. The seminar discusses the principles, components, functions, applications and advantages of GIS. It covers topics such as the linkage between remote sensing and GIS, vector vs raster data representation, spatial data analysis functions including overlays and buffers, and applications of GIS in fields like agriculture, land suitability analysis, and groundwater assessment. The seminar aims to provide an introduction to GIS concepts and demonstrate how GIS can be used as an integrated technology for spatial analysis and decision support.
This document provides an overview of photogrammetry, including a brief history of aerial photography, definitions of key terms, and descriptions of different types of photogrammetry and imaging. It discusses the general photogrammetric process and products that can be created. Specific topics covered include the development of aerial photography from the 1850s onwards, definitions of photogrammetry, close range, terrestrial, aerial, and space photogrammetry, types of aerial images, photogrammetric mapping techniques, and historical photogrammetric plotting instruments.
This document provides an overview of geographic information systems (GIS). It discusses key GIS concepts including:
- The 5 components of a GIS - data, hardware, software, people, and methods.
- Types of geospatial data - spatial data that indicates location and attribute data that describes characteristics.
- Common GIS operations - data input, storage and management, manipulation and analysis, and data output/visualization.
- Coordinate systems used in GIS, including geographic coordinate systems based on latitude and longitude that approximate the Earth's shape.
The document is intended as training material for GIS and covers topics such as the definition of GIS, its applications, and techniques for inputting and
This document provides an overview of geographic information systems (GIS). It discusses key GIS concepts including:
- The 5 components of a GIS - data, hardware, software, people, and methods.
- Types of geospatial data - spatial data that indicates location and attribute data that describes characteristics.
- Common GIS operations and tasks like data input, storage and management, manipulation and analysis, and data output/visualization.
- Coordinate systems including geographic coordinate systems based on latitude and longitude that approximate the earth's shape, and map projections that are used to translate locations on the earth's curved surface to flat maps.
GST - First Class Intro, Unit 1 and Unit 2 Part.pptxpoola2015
This document provides information about a Geospatial Technology course being offered at Anurag University. The course will run from June 12, 2023 to October 7, 2023 and will cover topics like introduction to photogrammetry, remote sensing, basics of photogrammetry, stereoscopy, aerial photographs, and map vs mosaic. It includes details of the academic calendar, units that will be covered, faculty information and commencement and last dates of instructions.
This document provides an introduction to Geographic Information Systems (GIS). It defines GIS as a system designed to store, manipulate, analyze and display spatially referenced data. The key components of a GIS are hardware, software and data. Common GIS software includes desktop programs like ArcGIS and open-source options like QGIS. GIS can incorporate different types of spatial data like raster, vector and remote sensing data along with associated attribute tables. Example applications discussed are in hydrology, including watershed analysis and flood modeling.
THE NATURE AND SOURCE OF GEOGRAPHIC DATANadia Aziz
The document discusses various topics related to geographic data, including data formats, data capture, and data management. It describes the differences between raster and vector data formats and when each is generally used. It outlines methods for primary and secondary geographic data capture, including remote sensing, surveying, scanning, and digitizing. It also covers managing data capture projects, data editing, data conversion between formats, and linking geographic data.
The document discusses topics in engineering mathematics, geo-engineering, remote sensing, and GIS concepts. In engineering mathematics, it covers topics in linear algebra, calculus, and complex variables. In geo-engineering, it discusses the composition of Earth, rocks, minerals, and surveying methods. It then explains concepts in remote sensing such as electromagnetic radiation, sensors, and satellite systems. Finally, it outlines components of GIS including hardware, software, data types, data structures, data transformation techniques, and applications in resource management.
The document provides an overview of photogrammetry, which is the science and technology of obtaining reliable spatial information about physical objects and the environment through analyzing photographs. It discusses the different types of photogrammetry including aerial/spaceborne photogrammetry and close-range photogrammetry. It also summarizes the key techniques, applications, and products of photogrammetry such as digital terrain models, orthophotos, and 3D models.
The document provides an overview of geographical information systems (GIS). It defines GIS as a system for capturing, storing, manipulating, analyzing and presenting spatial or geographic data. It describes the core components of GIS as hardware, software, data, people and methods. It outlines several applications of GIS in fields such as agriculture, natural resource management, transportation, military, business and more. It also discusses concepts such as data types, map scale and resolution, and key GIS terminologies.
The document provides an overview of geographical information systems (GIS). It defines GIS as a system for capturing, storing, manipulating, analyzing and presenting spatial or geographic data. It describes the core components of GIS as hardware, software, data, people and methods. It outlines several applications of GIS in fields such as agriculture, natural resource management, transportation, military, business and more. It also discusses concepts such as data types, map scale and resolution, and provides examples of GIS terminology.
1. COURSE STRUCTURE
Each semester is approximately 20-21 weeks duration including examination. Each
period about 15 minutes duration. There will be normally 4 sessions per day each about 100
minutes duration. 2 sessions of laborator is equivalent to 1 session of theory.
Total contact constitutes 15 sessions of theory and 4 sessions of laboratory per week.
M.TECH. (GEOMATICS)
COURSE SYLLABUS
ACADEMIC YEAR 2013-15
Offered by Survey Training Institute
(in collaboration with Jawaharlal Nehru Technological University)
2. M Tech (Geomatics)
SL.No.
Code
No. Subject Theory Practical
Semester I
Theory
1 GM 1.1 Topographical Surveying and Mapping 4
2 GM 1.2 Introduction to Geodesy 4
3 GM 1.3 Elements of Photogrammetry 4
4 GM 1.4 Remote Sensing 4
5 GM 1.5 Object Oriented Programming System & DBMS for GIS 4
Lab
6 GM 1.6 OOPS & DBMS Lab 4
7 GM 1.7 Photogrammetry and Remote Sensing Lab 4
20 8
Semester II
Theory
8 GM 2.1 Digital Photogrammetry 4
9 GM 2.2 Advanced Geodesy 4
10 GM 2.3 Geographical Information System (GIS), Spatial Analysis and Modelling 4
11 GM 2.4 Digital Cartography, Visualization and Web GIS 4
12 GM 2.5 Project Management and Organizational Development 4
Lab
13 GM 2.6 Surveying and Geodesy Lab 4
14 GM 2.7 Geomatics Lab 4
20 8
Semester III & IV
Theory
15 GM 3.1 Elective 1 4
16 GM 3.2 Elective 2 4
17 GM 3.3 Project Work and Seminar
8
3. 8
Electives 1
1 Spatial Data Infrastructures
2 Cadastre & Land Administration
3 Natural Resource and Disaster Management
4 Water Resource Management
Electives 2
1 Word Wide Web Creation for Spatial Data Dissemination
2 Urban Planning & Land Administration
3 Environment Management
4 Space & Marine Geodesy
4. GM 1.1 TOPOGRAPHICAL SURVEYING AND MAPPING
Fundamental of Surveying:-Principles and methods of Surveying, Classification of
Surveying, Maps design and Map Contents. Classification Control Survey:- Horizontal and
vertical controls of different orders and their Accuracy standards. Horizontal Control:-
Traverse: Principle of traverse, angular and linear measurements, corrections
to observed values, Computations. Triangulation:- Principle of Triangulation, Reconnaissance,
laying out of Geometrical figures on the ground, intervisibility, Mid-latitude, Short line and
long line formulae, Computation of Coordinates, Satellite Station and its Computation.
Vertical Control:- Classification of Vertical Controls, and their principles. Sources of Errors in
Single and Double Tertiary Levelling and their accuracy standards. Adjustment of level net
work. Instruments:- Instruments for Horizontal Control :- Chain, Tape, Theodolite, EDM,
Total Station and GPS; their testing, adjustment. For Vertical Control :- Level, Clinometer and
their testing and adjustment.
Large Scale Surveys:- Method and Planning of large Scale Survey viz. Chain Survey, Large
Scale Planetabling Survey, Command Area Development and Project Surveys. Town utility
Surveys. Engineering Survey:- Computation of Areas and Volumes. Setting out of Simple
Circular, transition and vertical curves on ground. Setting out of alignments of roads, railways,
pipelines and canals on ground. Mine Survey and setting out of Tunnels and Shafts. Cadastral
Surveys:- Maintenance of Cadastral records, numerical and geographical data, land
management information in digital environment.
Application of Photogrammetry and Remote Sensing in Cadastral Survey. Use of GPS and
Palm – Top in the Modern trend in data acquisition in Cadastral Survey. Rectangulation and
relocation of missing boundary pillars. Topographical Survey / Plane tabling:- Methods of
Plane tabling Survey, data capture and ancillary records.
Total Station Survey:-Recording, down-loading, processing and final out put.
Fundamentals of Cartography: Definition and History of Cartography, Problems and their
solutions in Map Making; Source data used in Map making; Classification of maps; Scale and
different types of scales in map; Enlargement and Reduction of maps; Uses of maps;
Numbering system of Topographical maps in India and Adjacent countries; International
Numbering System.
Cartographic Techniques:- Principles of Drawing and Scribing of maps; Instruments for Fair
drawing and Scribing; Symbol cards; Details of stages involved in Fair drawing and Scribing;
Preparation of Mosaic, Guides, Originals, Scribed Negatives and Tint plates; Examination of
Originals / Negatives / Proofs; History sheets and Publication Instructions.
Depiction of Names:-Standardization of Geographical names; Huntarian system of
transliteration of Geographical names; Methods of lettering and style of lettering in maps.
Representation of Relief:-Importance of Relief representation in maps; Different methods of
relief representation i.e. Contours, Hatchures, Layering, Hill shading, Spot height and their
relative merits and demerits; Concepts of Cliff, Spur, Ridge, Saddle etc.,
Symbology:-Map contents and their methods of communications; Symbols; Classification of
symbols(Qualitative and Quantitative); Creation of Symbols.
5. Map Compilation:-Geographical maps; Scale and Specifications of Geographical maps;
Compilation of Geographical maps from existing Topographical maps; Generalization of
details; Steps of compilation of Geographical maps.
Thematic mapping:-Definition of Thematic maps; Preparation of Thematic maps with Base
map and Data; Qualitative mapping and Quantitative mapping; Isopleth, Chloropleth and
Dasymetric mapping; Socio Economic theme.
Grid:-Use of Rectangular Grid in mapping; Advantages and disadvantages of grid projection
in a map; Lambert Grid and UTM Grid; Indian Grids; Gridded maps of Survey of India.
Map Deign:-Basic elements of maps and their placement on maps; Clarity, Legibility and
Balance in a map; Theory of Colours(Additive and Substrative); Visual variables.
Map Reproduction:-Basic Physics and Chemistry of Printing; Surface tension, Inks,
Formation of solutions, Ph factors, Light sensitivity, Densitometry, Filters, Etchers,
Developers, Toners, Process Cameras, Reflectometers, Densitometers, Sensitometers,
Photographic filters; Papers and their characteristics.
Map Reproduction Techniques:-Plates-Metallic, Plastic, Anodized, Screen, Xerography,
Principles of Lithography, Letter press, Silk screen, Electro static printing process; Wet & Dry
plate photography, Process Camera, Screens, Colour separation Photography, Duplication of
negatives, Powder process, Improvement of negatives, Retouching, Stripping in, Layering.
Printing Facility:-Plate making; Capacity and limitations of proving presses and Printing
presses; Multicolour maps by four colour process, Modern computerized map printing process
and Machines(BARCO map publishing system, Heidelberg printing machine).
Digitisation of Cartographic Documents:- Spatial Database(Concept of DTDB); Elements of
Computer Assisted Cartography, Vector and Raster representation of Geographic Data;
Different sources of data for creation of DTDB, Digitizing Softwares, Digital data collection
from Cartographic documents and processing(Methods and Phases of digitization); Principles
to be followed during digitization, Editing.
Digital Data Quality:-Sources of errors in Digital data, Quality control of Digital data by
Softcopy checks, Hardcopy checks and using Programs(Data validation); Data maintenance /
Updation.
Digital plotting:-Vector and Raster plotters and their applications for producing check plots,
Plot drivers, Creation of plots for printing.
Data formats:-Different types of Vector and Raster data formats, Conversion from one format
to another format, DVD format.
Georeferencing of Digital data:- Reference systems, Concept of Datum and Projection,
Defining of Coordinate system to a file, Coordinate transformation(Affine 1) using control
points.
Data Integration:-Data integration, Possible cases of data integration, Transformation of
various projections, On-fly map projection, Datum shift, Map compilation in Digital
environments from various sources.
6. Scanners and Digitizing Equipments:-Input and Output devices, PC based digital systems,
Digitizers, Scanners, Plotters, Working principle of Scanner and its use for Onscreen
digitization.
Data Presentation:-Concept of DCDB, Principles of digital representation of Cartographic
data, Data extraction, Generalization, Symbolization including Patterning, Cell and creation of
Cell Library, Font library, Annotation, Map Design and Publishing.
Database and Outputs:-Non spatial database, Basics of dBase V & MSAccess.
Text Books :
1. Surveying & Levelling Vol. I & II - By R. Agor
2. David Clark Volume I & II
3. Surveying Vol. I, II - Punmia
4 Cartography by Robinson
5 Notes on Digital Cartography -Survey of India
7. GM 1.2 – INTRODUCTION TO GEODESY
Basic Mathematics for Geodesy : Spherical Trignometry : Difinitions, Properties of
great circle, spherical angle, spherical triangle and its properties, som theorems on spherical
triangle, some fo;rmulae in spherical trigonometry like sine casine formula, sine formula, sine
half a angle formula, casine half side formula, tangent half side formulae etc. Four part
formula, Right angled and quadrant triangle, Napier rule of
Circular parts.
Map Projection :Introduction to Map Projection, Purpose and methods of map projection,
classification of map projection. Some simple projection, stereographic colar Azimuthal
projection, construction of simple cylindrical projection and conical projection. Polyconic
projection, properties and drawbacks of polyconic projection, Formulae of polyconic
projection. Conformal map projections, Isometric Latitude, Scale factor, Conditions of
conformality, Scale factor evaluation, Geometry of projected curve, Meridian convergence.
Lambers conformal conic projection, properties of LCC projection, Indian Grid System,
Construction of LCC projection, Formulae of LCC Projection. Mercator projection, Tranverse
mercator projection, Universal tranverse Mercator projection, construction of UTM projection,
Formulae of UTM Projection.
Astronomy :Celestial Sphere, Definition of various terms used in Astronomy. Celestial
coordinate system. Special position of stars. Variations in celestial coordinates, precession and
nutation. Time System – Sidereal time, ephemeris time, Atomic time, local sidereal Time,
equation of equinoxes, sidereal day, Universal (solar) time, Apparent and mean solar time,
equation of time, Rotational time system UTO,UT1,UT2, Conversion of time and problems.
Geomatric Geodesy :Datums – Everest spheroid, GRS-80, WGS-84,ITRF, Transformation of
coordinates from one datum to another. Mean sea level, Geoid and MSL in India. Coordinate
system in Geodesy. Geometry of ellipsoid, Radii of curvature etc. Level surface & Plumbline
deflection of vertical Geodal separation, Natural coordinates, Astrogeodetic deflection,
Potential number and orthometric height, different height system.
Physical Geodesy : Newtonian Attraction and Potential, Laplace equation in spherical
coordinates, solution of Laplace equation. Legendre’s polynomicals, Legendre’s Associated
function, Finding the values of Po,P Ellipsoidal coordinates system in space.Normal ellipsoid,
Normal Gravity, International Gravity formula.
Satellite Geodesy:- Introduction to Satellite Geodesy, Keplerian motion, Geometry of ellipse,
Kepler ellipse in space.
Global Positioning System/Global Navigation Satellite System:-Introduction to GPS, space,
control and user segment.Fundamentals of GPS signal and data, GPS signal characteristics,
signalStructure, code and pseudo-range measurement, Ambigious carrier phase,Ionospheric
and topospheric delay, Multipath effects, Ambiguity, Ambiguity Resolution, RINEX format.
Satellite Geometry and AccuracyMeasures, UERE,GDOP,PDOP etc,High Accuracy GPS
surveying technique, Rapid Static surveying, Stop and Go, Kinematic GPS surveying, Real
time GPS surveying technique,DGPS and TRK GPS surveying technique, RTCM data
transmission, DGPS/RTK services.Field observation and Processing.
Mobile GPS – Principles of Mobile GIS and Positioning Techniques:- Introduction to
Mobile Mapping, Overview on Mobile Mapping S/W, Pre-processing and field verification,
Data Integration/post processing.
8. Referebces - Map projection use by US Geological Survey by John.P.Snyder
. Notes on Map Projection by B.P.Nainwal
Conformal map projection by Edward J.K.Krakiwsky
Spherical and Practical Astronomy – by Ivan I.Mueller
Notes on Astronomy – by Shri Bachi Ram
Geodesy by Wolfgang Torge
Physical Geodesy by Helmut Moritz and W.Heiskanen
Notes on Physical Geodesy by B.P.Nainwal
Satellite Geodesy by G.Seeber
Note on Satellite Geodesy and GPS by B.P.Nainwal
Geodesy by G.Seaber
9. GM 1.3 INTRODUCTION TO ELEMENTS OF PHOTOGRAMMETRY
Functions of human eye :- Structure and function of human eye. Angular resolution
(Acuity) of human eye, accommodation and convergence. Parallactic angle. Stereofusion
practice.
Optics of Photogrammetry:- Optics of Photogrammetry: Reflection, refraction, mirror, lens,
prism and their use in photogrammetric instruments. Image rotation, lens equation, lens errors, Optical
trains and their manipulation. Lens distortion – radial symmetric, radial asymmetric and tangential
components, Lens aberration – different types and causes. Effect in image quality. Basic concept of
interference, diffraction, polarization. Laser radiation and coherent beams.
Aerial Camera /Digital scanner:- Geometry of Analog aerial camera. Construction and
working. Lens cone assembly. Shutter, Film flattening device. Pressure plate. Interior and exterior
Nodal points. Exposure time. Exposure Cycle. Exposure interval and control of Exposure time.
Camera cone Narrow angle, Wide-angle and Super wide-angle cameras – applications. GPS, INS and
other auxiliary devices. Atmospheric scattering. Minus blueM filter. Forward motion compensation
technique, Camera calibration – Measuring. Calibrated and equivalent focal length. Principal point
position. Fiducial marks. Effect of atmospheric refraction and earth curvature. (Without mathematical
formulation and derivations). Digital camera – a brief overview, Difference between the geometry of
digital frame camera and digital linear array sensors
Photography& Proessing of Aerial Films :- Conventional Black and White Processing,
Characteristics of photo emulsions, Colour film processing technique, Assessment of the quality of
photography, Imperfections in the output during pre-processing and postprocessing, physical
imperfections and their remedies, Printing and Duplication, Printing of Diapositives.
Aerial Photo Indexing and Planimetric mapping:- Indexing of aerial photograph on a map.
Difference between aerial photo and map.Photo mosaics and photo maps. Compilation of
topographical details from aerial photograph.
Basic Photogrammetry:- Definition of Photogrammetry and general applications. Role of
Photogrammetry in mapping.Geometry of vertical aerial photograph. Photo Centre, Principle
of Perspective Geometry. Photogrammetric bundle of rays. Colinearity condition. Overlaps -
fore and aft overlaps. Concept of a model. Types of aerial photograph. Basic definitions,
scale of a vertical aerial photograph. Distortion in a photograph. Radial line assumption.
Effect of Relief and Tilt displacements and their rectification. Effect of shadow. Scale of
tilted aerial photograph. Oblique photography.
Analogue Instruments:- Classification of analogue instruments as per projection system,
application and use, according to performance and accuracy IO, RO ,AO in analogue plotters
Basics of Stereo Photogrammetry: - Stereoscopic depth perception. Stereoscope – construction
and principle. Stereoscopy and Pseudoscopy. Difference between direct and indirect stereovision.
Methods for indirect stereo vision, Anaglyph. Principle of floating mark. Geometry of
Stereoscopic coverage, concept of Stereoscopic parallax, Elevation determination by parallax
formulae, Contouring and numerical adjustments from parallax observations on stereopair,
parallax bar.
Terrestrial Photogrammetry:- Brief description of photo Theodolite and Stereometric Camera.
Applications of terrestrial and close range Photogrammetry. Special problems in close range
Photogrammetry. Accuracy standards. Close range camera calibration. Torlegard’s method. Direct
linear transformation. Use of non-metric camera.
Basic Mathematics for Photogrammetry:- Quadratic roots and values, classes.
500
10. Transformation geometry:- Crossratio, principle of duality, projectivity and Perspectivity.
Projective, Affine, Linear Conformal (similarity) and Orthogonal Transformations and their
properties.
Statistics:- Measures of Central tendency : Mean, median, mode, standard deviation,
histograms, variance, covariance, correlation and regression. Types of errors, weights, standard
deviation, accuracy and precision, method of Least squares, parametric method and method of
condition equations.
Adjustment Calculus:- Frequency distribution, sample and population mean, Normal
distribution, binominal distribution, Poission’s distribution, Chy square Test, Pearsono
distribution.
Text Books :
Elements of Photogrammetry by Paul R. Wolf
References :
- Modern Photogrammetry - Edward M. Mikhail
- Photogrammetry Vol I - Kranss
- Mannual Photogrammetry - ALBERT D
- Principles and Application of Photo Geology - Shiv Pandey
- Aerial Photographic Interpretation - Luedar D.R. M.C. Graw hill
11. GM 1.4 REMOTE SENSING
Concepts and Foundation of R.S::- Stages of Remote Sensing, Energy sources, radiation
principles, electromagnetic spectrum, major divisions of E.M.S., Interaction with atmosphere,
interaction with surface.
Remote Sensing platforms and sensors:-Platforms – Geostationary – Sun-synchronous /
polar / land observation satellites, (RS, IRS system, LISS images, Landsat Thematic Mapper,
ETM plus, SPOT, ERS, JERS, Radarsat, IKONOS, QUICKBIRD, Resourcesat, cartosat
etc.,Types of sensors as per the source of energy and scanning mode – whisk broom – push
broom sensors.
Characteristics / Parameters of Sensor:-Spatial, spectral, radiometric and temporal
resolutions, data storage formats – BIL, BIP, BSQ., Radiometric aspects and its
corrections:Periodic line dropouts, periodic line strippings, filtering of Random noise.
Geometric aspects and its corrections:Systematic and non-systematic geometric
corrections.Atmospheric aspects and its corrections.
Image Enhancement Techniques:-Contrast enhancements – linear, non-linear – Square root
stretch, square stretch, logarithmic stretch, exponential stretch, arc tangent stretch, Guassian
stretch, histogram equalization, pseudo-coloring, density slicing, principal component analysis
etc.,Visual image interpretation, key elements in visual image interpretation –Topographic –
flat surface, sloping surface and high hill surfaceGeologic - rough surface, smooth surface,
surface created by witheringVegetation - trees, forests, bushes, natural grass,Visual
interpretation aids – shape, size, shadow, site, tone, texture, pattern, Association, Resolution
etc.
Classification:-Supervised classification – training stage, classification stage, output stage,
parallelepiped classifier / Box classifier, minimum distance to means classifier, Gaussian
maximum likelihood classifier,Un-supervised classification.,Classification accuracy. Image
transforms: Arithmetic operations, principal component Analysis (PCA), IHS transform,
Fourier transform, wavelet transform.Filtering techniques: Spatial domain low-pass
(smoothing) filters, high-pass (sharpening) filters, spatial domain detectors, frequency domain
filters, Hyperspectral Remote Sensing – Spectroscopy, image cube, AVIRIS, Spectral
Matching, spectral Mixing Analysis, Data Libraries, MODIS, Processing of hyper spectral data
application, Thermal radiometry, microwave radiometery, Thermal scanners, thermal
properties of objects, geometry of images, thermal image and its interpretation, heat capacity
mapping mission, TM Thermal data, Active Microwave – Geometry of the radar image,
wavelength, penetration of the radar signal, polarization, look direction and look angle, real
aperture systems, synthetic aperture systems, interpreting brightness values, satellite image
radars, LIDAR, Introduction of advanced classification and pattern recognition methods in
image analysis, image segmentation based classification, Subpixel classification, introduction
to fuzzy vs crisp classification, Expert classification – Artificial Neutral Networks (ANN),
Evaluation of the results of data processing.
Text Books :
Introductory Digital Image Processing by John R. Jenson
References :
Remote Sensing Principle and Interpretation - Floyed F. Sabins
Remote Sensing and Image Interpretation - Thomas Lilles and Ralph W. Kiefer
Remote Sensing of Environment - Lintz J and Simonatt
Remote Sensing - Dr. Anji Reddy
12. GM 1.5 OBJECT ORIENTED PROGRAMMING AND DBMS
INTRODUCTION TO C++ :- C vsC++, Object Based Vs Object Oriented Programming
Languages, OOP Concepts, Structure of the C++ program. Abstract Data types, Classes and
Objects, Data Encapsulation, Data Abstraction and Data Hiding, Functions in C++ - Main
function, Inline function, Static Member function, Constant Member function, Friend function,
Constructor-characteristics of a constructor – types of Constructors, Destructors –
Characteristics of a destructor, Polymorphism – types of Polymorphism, Function
Overloading, Operator Overloading, Virtual functions, inheritance – types of Inheiritance,
Managing Console I/O operations – C++ streams and stream classes. Working with Files,
Templates, Exception Handling, Namespaces, Data structure with Linked lists.
SQL:-Query language, Types of Query Language, Origin of SQL, Sub languages of SQL,
Creating and managing tables, Identifying keys in tables, Implementing Data Integrity,
retrieving data from multiple tables using joins, Types of Joins, Creating Views, types of
views, Implementing Transaction, Table space, Oracle Data block, Implementing Indexes,
Package, Creating Triggers, Types of triggers, Designing database using an Entity Relationship
diagram, Normalizing and Denormalizing data.
Textbooks :-Object Oriented Analysis and Design with Application-GRADY BOOCH.
References :- Stephen Prata – C++ Primes plus
Programming in C++ by Balaguruswamy,
Problem Solving in C++, The OOP, fourth edition,W .Savitch, Pearson
education.
Websites : www.orafaq.com
13. DATABASE MANAGEMENT SYSTEMS
Database Systems – Definition, Purpose, Data abstraction, Instances and Schemes, Data
independence, introduction to DDL, DML, Database manager, Database administrator,
Database users, Overall system structure.
Entry Relationship Model – Entities, Entity sets, Relationships, Relationship sets, Mapping
constraints, Primary keys, E.R. diagram, Reduction of E.R diagram to tables, Generalization,
Aggregation.
Relational Model – Structure, Relational algebra, Relational calculus, Commercial query
languages, SQL, QUEL , Query by examples.
Relational Database Design – Pitfalls in design, Functional dependency, Normal forms 1NF, 2NF,
3NF, BCNF, Multi value dependency, 4NF.
Indexing and Hashing – Basic Concepts, Indexing, B+ - Tree Index files, B-Tree Index files,
Static Hash functions, Dynamic hash functions, Comparison of indexing & hashing, Index
definition in SQL, Multiple-Key Access.
Network Data Model – Basic concepts, Tree structured diagrams, Mapping of hierarchies to files,
Virtual records.
Hierarchical Data Model – Basic concepts, Tree structured diagrams, Mapping of hierarchies to
files, Virtual records.
Crash Recovery – Failure classification, Shadow paging Concurrency control – Serializability,
Locking Validation techniques, Multiple Granularity.
Textbooks :
1. Database Systems concepts by HENRY F. KORTH, Abraham Siberschatz Mc
Graw 1988.
2. Database Management Systems by Raghurama Krishnan, Johannes Gehrke,
TATA McGrawHill 3rd
Edition.
Refernces :
1. Database Management Systems by P.Radha Krishna HI-TECH Publications2005.
2. Database Management System by Mathew Leon, Leon Vikas.
3. Principles of Database Systems – Jaffery D. Ullman – Galgotia
4. An Introduction to Database Systems Vol 1, 3rd
Edition – C J Date, - Narosa
5. Database Management Systems – Arun K. Majundar and P.Bhatta Charya – Tata
Mc. Grall Hill Publications, New Delhi.
LABORATORY AND PRACTICALS
GM 1.6 LABORATORY ON OOPS AND DBMS
Practical & Programming on C++, JAVA
GM 1.7 LABORATORY ON ANALOGUE PHOTOGRAMMETRY, REMOTE SENSING
PHOTOGRAMMETRY
15. GM 2.1 DIGITAL PHOTOGRAMMETRY
Analytical Photogrammetry : Coordinate systems for image measurements : Simple
scales for photographic measurements, Measurement of Photo coordinates with tablet digitizer,
Mono and Stereo comparator measurements of photo coordinates. Model coordinates in case of
analogue instruments. Scanner coordinate system. Refinement of photo coordinates. Film
distortions, failure of fiducial axis to inter intersect at PP, lense distortions, atmospheric
refraction distortions, earth curvature distortions.
Orientation Procedures : Purpose of fiducial marks, image coordinate system and object
space coordinate system. IO, EO procedures in analytical and digital photogrammetry.
Advantage of digital IO over analogue and analytical system. Advantages of digital EO over
analogue system.
Concepts of block / bundle / strip adjustments : What is block. Types of Block
adjustments. Planning of photo control. Selecting photo control images. Number and location
of photo control. Bundle Block adjustment (IO, EO). Colinearity condition equations. Epipolar
Geometry, Space resection and space intersection. Reasons for Digital AT superior over
analogue AT.
Digital Photogrammetry : Digital Photogrammetric Systems, Digital Photogrammetric work
Station and its configuration. Photogrammetric Scanners. Inputs to DPWS. Various formats
of data. 3D visualization in Digital environment; Anaglyph, polarization, Image matching,
Line interleaved, quad buffer, IO, RO manual / automatic process, AO automatic. EO
parameters. Accuacy assessment of the Block Feature extraction by 2D. Feature extraction
by 3D, Data models, Symbol library, feature classification, Coding, feature collection,
Annotation, database attachments, interactive editing and layer concepts. Advantages in
Digital Photogrammetry, Automatic tie point generation. Quality control of DTDB. Digital
Photogrammetric Softwares.
Introduction of conceps of DTM: Digital surface modeling by DTM/DHM and DSM /DEM.
Interpolation techniques: GRID and TIN, break lines, profiles, mass points / random points.
Factors influence choice of sampling patterns. DTM generation process : pre-processing, main
processing, post processing. Differential rectification, mosaicing. Digital ortho photograph
generation.
Different sampling techniques : Manual, semi-automatic, automatic sampling techniques.
Storage of GRID TIN and its data base structure. Data sources / Input to DTM; Direct and
indirect data collection methods; field survey, photogrammetry and remote sensing data, maps.
Quality assessment of different DTM collection techniques, empherical methods of assessing
DTM accuracy.
Aerial Triangulation - GPS supported AT : Geometric relationship between a camera and
GPS antenna with respect to position and attitude. Synchronisation of GPS coordinates with
camera exposures. Entering GPS coordinates and INS parameters in bundle block adjustments
for each exposure stations. Requirement with GPS and INS data.
Air borne laser terrain mapping (ALTM) : Concepts of ALTM. Definition, objectives of
ALTM. Applications and advantages of ALTM. System components of ALTM. Different
types of Technologies used in ALTM (LIDAR & RADAR).
16. GM 2.2 ADVANCED GEODESY
Vector Calculus : Differential operators, Gradient of a scalar point function, Divergence of
a vector, Laplacian operator, Curl of a vector function, Vector Identities (Gradient, Divergence
and Curl of Products), Gauss Divergence theorem, Stoke’s theorem.
Differtial Geometry : Space curves, Arc Length, Unit tangent vector of a curve, Equation of
tangent line to a curve at a given point. Osculating plane, Noemal line and normal plane,
Principle normal Serret - Frenet Formulae.
Advanced Map Projection : Azimuthal and equidistance projection, polar zenithal
gnomonic projection, stereographic projection, Cassini projection, Galls cylindrical projection
etc., choice of a projection, Construction of some important projection - Assignment on map
projection.
Advanced Astronomy : Field determinations - Determination of astronomic latitude,
longitude and Azimuth. Correction of observed quantities.
Advanced Geometric Geodesy : Brief History of Indian Geodetic Triangulation,
Classification of control survey, Traingulation, Trilateration, GPS etc., Geodetic Triangulation,
reconnaissance / observation / computation, correction applied to horizontal angles, Clark Mid
latitude formula for computing latitude and longitude, Height precision levelling, observation
procedure, precaution and data reduction.
Advanced Physical Geodesy : Anomalous Gravity field, Gravity anomaly, Brun’s formula,
Fundamental equation of physical geodesy, Stokes, function, Stokes, function in terms of
spherical harmonics, Solution of Stokes’ function, Deflection of vertical formula of vening
Meinesz. Gravimetry, Gravity reductions, Free Air, Bouger and Isostic Reduction. Earth
Gravity Model, Brief history of Gravimetry in India.
Advanced Satellite Geodesy : Perturbed satellite motion, Representation of Perturbed orbital
motion, Osculating and mean orbital elements. Lagrange’s Perturbation equation, Gaussian
form of Perturbation equation. Disturbed motion due to anomalous earth gravity field, other
perturbation in the satellite orbit.
Advanced Global Positioning System / Global Navigation Satellite system : Various
possible applications of GPS, Laser ranging satellite altimetry, VLBI, Introduction to
GONASS, GALILEO, GNSS Satellite.
17. GM 2.3 GEOGRAPHIC INFORMATION SYSTEM (GIS), SPATIAL ANALYSIS AND
MODELLING
Introduction to GIS : Spatial data and Geoinformation, spatial data types and Non Spatial
data types. Representation of Spatial Data (Vector data model and Raster data model),
Principles of GIS, Components of GIS, Functions of GIS, GIS Software packages.
Coordinate system & data input : Different types of geographic phenomena, Geographic
fields and objects, Spatial reference system, Datum transformations, Map Projections. Digital
data collection from various sources (GPS, Total Station, Maps, Aerial Photographs, Satellite
Imagery etc.) Attribute data input and management.
Topology : Computer representation of Geographic Information, Representation of
Geographic fields and objects, Topology and spatial relationships, Topology rules, Importance
of Topology in GIS.
Spatial Data analysis : Classification of analytic GIS capabilities, Classification of spatial
distribution and measurement, Overlay functions, Neighbourhood functions, Spatial selection
queries. Preparation of reports.
Spatial Data visualization : GIS and Maps, Visualisation process and strategies, Mapping of
qualitative and quantitative data.
Network Analysis : Introduction to the basic elements of Network data model, Preparation of
Network datasets, Defining connectivity and cost performing network analysis (Shortest /
Optimal path, Allocation, Location - Allocation)
Surface Analysis : TIN data model, Raster surface, Spatial interpolation, Data sources and
surface model generation, Surface display, Profile generation, Visibility analysis (View shed
and intervisibility), Volume calculation, Slope and aspect calculation, Watershed analysis.
Quality assessment of spatial data : Quality assessment of spatial data and procedures,
Limitations of GIS in the field of real time applications. Accuracy and Precision, Attribute
accuracy, Temporal accuracy, Completeness, Error on maps, Root mean square error,
Accuracy tolerance, Error propagation in spatial data processing, Spatial data transfer and its
standards.
18. GM 2.4 CARTOGRAPHY, VISUALISATION & WEB GIS
Cartography in relation to Internet GIS : Cartographic design principles, to different kinds
of visualizations of geospatial data, cartographic design aspects and components of GIS based
map production processes. Geoinformation production work flow, introduction to process
modeling, work flow management and performance analysis, operation management.
System architecture for GIS production : GI production and dissemination .design options
for integrated GI systems and services. Basic principles ,processes, automation related issues
limitations a solutions of cartographic generalization in multiscale representation. Integration
of data from different sources
Data acquisition: Definition of specifications of data acquisition, Quality control for different
production stages, Impact of new spatial data acquisition technologies in the generation of
Topographical maps(i.e. data collection ,processing ,visualization, Map lay out and production
of Hard copy)
Data Dissemination: Basic concepts and techniques of dissemination and use of geospatial
data in a distributed environment, Introduction to inter-active mapping, Role of web maps as
one of the cartographic presentation products, Cartographic web map design constraints in
relation to internet technologies
Internet GIS : Introduction to distributed internet GIS, Introduction, Distributed GIS - Basic
components, Applications of distributed GIS.
Introduction to Networking : Network environments protocols, TCP/IP, LAN, WAN, Data
exchange b/w 2 terminals.
Client / Server computing & distributed component framework: Client, Server, Glue,
Client-Server system partition, 2-tier, 3-tier & n-tier architectures, advantages & disadvantages
of client-server architecture.
Web Mapping : Static map publishing, clickable maps, architecture of static web publishing,
web mapping architecture, client-HTML viewer, HTTP server with CGI, Map server & other
server, side applications, Web-mapping options & objects, Web mapping applications.
Asp. NET using c#: Introduction to web technologies, Asp.net introduction, server side
controls, state management, Ado.net configuration, Asp.net (tracing security)
Web enabled GIS: Principles of metadata, Principles of distributed spatial databases
dessimination, Principles of XML and GML, Interoperability, Web enabled transaction
processing using the extended mark up language
19. GM 2.5 PROJECT MANAGEMENT AND ORGANISATIONAL DEVELOPMENT
Project Management : Introduction, What is a project What is project management ?
Relationship to other Management Discipline, Project management context, Project phases &
Project life cycle, Project stakeholders, Organisational influences, Key general management
skills, Social-economic-environmental influences,
Project management processes: Initiation, Planning, execution, controlling and closing.
Project Integration Management, Project Plan development, Project plan execution, Integrated
change control. Project Scope Management, Scope planning, scope definition, scope
verification, scope change control.
Project Time Management: Activity definition, Activity sequencing, Activity duration,
Estimating, Schedule development, Schedule control.
Project Cost Management: Resource Planning, Cost Estimating, Cost Budgeting, Cost
Control. Project Quality Management, Quality Planning, Quality Assurance, Quality Control.
Project Human Resource Management, Organisational Planning, Staff acquisition, Team
Development. Project Communication Management, Communication Planning, Information
Distribution, Performance Reporting, Administrative Closure. Project Risk Management, Risk
Management Planning, Risk Identification, Qualitative Risk Analysis, Quantitative Risk
Analysis, Risk Response Planning, Risk Monitoring & Control. Project Procurement
Management, Procurement Planning, Solicitation Planning, Solicitation, Source selection,
Contract Administration, Contract Closeout.
Organisation Development : Strategic Visioning, Mission, Vision, organizational changes
for the effective production of GIS case study :GIS project successes and failures. Strategic
management ,strategic planning processes ,vision goals performance indicators. operations
management.
Business process modeling: Modeling, performance analysis, workflow management,
Resource management, costing of services, total quality management
2.6 SURVEYING GEODESY LAB
Control Survey by GPS, Total station, Missing Pillar, Feature extraction by total station,
updation of Maps by Mobile mapping, Collection of Attribute data for GIS. Laboratory test
on above items for full day.
2.7 GEOMATICS LAB
Digitisation using CAD/CAM software, GIS Digitisation, attribute entry, Vector and Raster
Analysis, 3D Analysis, Reports making, Chart graph preparation, Arcinfo, gram ++ Softwares,
Import/Export of file from one software to other XML/GML data prepration. Demonstration
on Network Analysis and Web GIS.
Editing by Malleswar