GIS Best Practices for Map, Chart, and Data Production
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Planar Maps: an Interaction Paradigm for Graphic Design
CH1'89 PROCEEDINGS MAY 1989 PLANAR MAPS: AN INTERACTION PARADIGM FOR GRAPHIC DESIGN Patrick Baudelaire Michel Gangnet Digital Equipment Corporation Pads Research Laboratory 85, Avenue Victor Hugo 92563 Rueil-Malmaison France In a world of changing taste one thing remains as a foundation for decorative design -- the geometry of space division. Talbot F. Hamlin (1932) ABSTRACT Compared to traditional media, computer illustration soft- Figure 1: Four lines or a rectangular area ? ware offers superior editing power at the cost of reduced free- Unfortunately, with typical drawing software this dual in- dom in the picture construction process. To reduce this dis- terpretation is not possible. The picture contains no manipu- crepancy, we propose an extension to the classical paradigm lable objects other than the four original lines. It is impossi- of 2D layered drawing, the map paradigm, that is conducive ble for the software to color the rectangle since no such rect- to a more natural drawing technique. We present the key angle exists. This impossibility is even more striking when concepts on which the new paradigm is based: a) graphical the four lines are abutting as in Fig. 2. We feel that such a objects, called planar maps, that describe shapes with multi- restriction, counter to the traditional practice of the designer, ple colors and contours; b) a drawing technique, called map is a hindrance to productivity and creativity. In this paper sketching, that allows the iterative construction of arbitrarily we propose a new drawing paradigm that will permit a dual complex objects. We also discuss user interface design is- interpretation of Fig. -
Chapter 2: the Arcgis Server Architecture
The ArcGIS Server 2 architecture ArcGIS Server is an object server for ArcObjects. The ArcGIS Server software system is distributed across multiple machines. Each aspect of ArcGIS Server plays a role in managing GIS functionality and data and making that functionality useful to end users. This chapter provides an overview of the ArcGIS software architecture and details of the ArcGIS Server architecture, specifically the various aspects of the server and how they interact, including: • the role of the GIS server • the server object manager • server object containers • GIS server objects • the Web application server Chapter2.pmd 27 10/12/2004, 4:01 PM ARCGIS SOFTWARE ARCHITECTURE Before discussing the details of the ArcGIS Server architecture, it’s important to discuss the ArcGIS system architecture as a whole. The ArcGIS architecture has evolved over several releases of the technology to be a modular, scalable, cross- platform architecture implemented by a set of software components called ArcObjects. This section focuses on the main themes of this evolution at ArcGIS 9 and introduces the reader to the libraries that compose the ArcGIS system. The ArcGIS software architecture supports a number of products, each with its unique set of requirements. ArcObjects components, which make up ArcGIS, are designed and built to support this. This chapter introduces ArcObjects. ArcObjects is a set of platform-independent software components, written in C++, that provides services to support GIS applications on the desktop in the form of thick and thin clients and on the server. For a detailed explanation of COM see the As stated, the language chosen to develop ArcObjects was C++; in addition to Microsoft COM section of Appendix D, this language, ArcObjects makes use of the Microsoft Component Object Model. -
Texture / Image-Based Rendering Texture Maps
Texture / Image-Based Rendering Texture maps Surface color and transparency Environment and irradiance maps Reflectance maps Shadow maps Displacement and bump maps Level of detail hierarchy CS348B Lecture 12 Pat Hanrahan, Spring 2005 Texture Maps How is texture mapped to the surface? Dimensionality: 1D, 2D, 3D Texture coordinates (s,t) Surface parameters (u,v) Direction vectors: reflection R, normal N, halfway H Projection: cylinder Developable surface: polyhedral net Reparameterize a surface: old-fashion model decal What does texture control? Surface color and opacity Illumination functions: environment maps, shadow maps Reflection functions: reflectance maps Geometry: bump and displacement maps CS348B Lecture 12 Pat Hanrahan, Spring 2005 Page 1 Classic History Catmull/Williams 1974 - basic idea Blinn and Newell 1976 - basic idea, reflection maps Blinn 1978 - bump mapping Williams 1978, Reeves et al. 1987 - shadow maps Smith 1980, Heckbert 1983 - texture mapped polygons Williams 1983 - mipmaps Miller and Hoffman 1984 - illumination and reflectance Perlin 1985, Peachey 1985 - solid textures Greene 1986 - environment maps/world projections Akeley 1993 - Reality Engine Light Field BTF CS348B Lecture 12 Pat Hanrahan, Spring 2005 Texture Mapping ++ == 3D Mesh 2D Texture 2D Image CS348B Lecture 12 Pat Hanrahan, Spring 2005 Page 2 Surface Color and Transparency Tom Porter’s Bowling Pin Source: RenderMan Companion, Pls. 12 & 13 CS348B Lecture 12 Pat Hanrahan, Spring 2005 Reflection Maps Blinn and Newell, 1976 CS348B Lecture 12 Pat Hanrahan, Spring 2005 Page 3 Gazing Ball Miller and Hoffman, 1984 Photograph of mirror ball Maps all directions to a to circle Resolution function of orientation Reflection indexed by normal CS348B Lecture 12 Pat Hanrahan, Spring 2005 Environment Maps Interface, Chou and Williams (ca. -
DESIGN Principles & Practices: an International Journal
DESIGN Principles & Practices: An International Journal Volume 3, Number 1 A Computational Investigation into the Fractal Dimensions of the Architecture of Kazuyo Sejima Michael J. Ostwald, Josephine Vaughan and Stephan K. Chalup www.design-journal.com DESIGN PRINCIPLES AND PRACTICES: AN INTERNATIONAL JOURNAL http://www.Design-Journal.com First published in 2009 in Melbourne, Australia by Common Ground Publishing Pty Ltd www.CommonGroundPublishing.com. © 2009 (individual papers), the author(s) © 2009 (selection and editorial matter) Common Ground Authors are responsible for the accuracy of citations, quotations, diagrams, tables and maps. All rights reserved. Apart from fair use for the purposes of study, research, criticism or review as permitted under the Copyright Act (Australia), no part of this work may be reproduced without written permission from the publisher. For permissions and other inquiries, please contact <[email protected]>. ISSN: 1833-1874 Publisher Site: http://www.Design-Journal.com DESIGN PRINCIPLES AND PRACTICES: AN INTERNATIONAL JOURNAL is peer- reviewed, supported by rigorous processes of criterion-referenced article ranking and qualitative commentary, ensuring that only intellectual work of the greatest substance and highest significance is published. Typeset in Common Ground Markup Language using CGCreator multichannel typesetting system http://www.commongroundpublishing.com/software/ A Computational Investigation into the Fractal Dimensions of the Architecture of Kazuyo Sejima Michael J. Ostwald, The University of Newcastle, NSW, Australia Josephine Vaughan, The University of Newcastle, NSW, Australia Stephan K. Chalup, The University of Newcastle, NSW, Australia Abstract: In the late 1980’s and early 1990’s a range of approaches to using fractal geometry for the design and analysis of the built environment were developed. -
Arcsde Microsoft SQL Server Database Requirements
ArcSDE Microsoft SQL Server Database Requirements Supported Database Versions Supported Operating Systems Operating System Limitations Supported Database Versions Standard/Enterprise Editions: Microsoft SQL Server 2000 SP4 (32-bit) Microsoft SQL Server 2005 SP2 & SP3 (32-bit & 64-bit) Microsoft SQL Server 2008 Final - R2 (32-bit & 64-bit) Express Editions: Microsoft SQL Server 2005 SP2 & SP3 (32-bit) Microsoft SQL Server 2008 Final - R2 (32-bit) Supported Operating Systems Database Supported Operating System(s) Windows 2003 SP2 (32-bit) Server Standard, Enterprise & Microsoft SQL Server Datacenter 2000 (32-bit) Windows 2008 SP2 (32-bit) Server Standard, Enterprise & Datacenter Windows 2003 SP2 (32-bit) Server Standard, Enterprise & Microsoft SQL Server 2005 Datacenter (32-bit) Windows 2008 SP2 (32-bit) Server Standard, Enterprise & Datacenter Windows 2003 SP2 (64-bit - EM64T) Server Standard, Enterprise Microsoft SQL Server 2005 & Datacenter (64-bit) Windows 2008 Final - R2+ (64-bit - EM64T) Server Standard, Enterprise & Datacenter Windows 2003 SP2 (32-bit) Server Standard, Enterprise & Microsoft SQL Server 2008 Datacenter (32-bit) * Windows 2008 SP2 (32-bit) Server Standard, Enterprise & Datacenter Windows 2003 SP2 (64-bit - EM64T) Server Standard, Enterprise Microsoft SQL Server 2008 & Datacenter (64-bit) * Windows 2008 Final - R2+ (64-bit - EM64T) Server Standard, Enterprise & Datacenter Limitations SQL Server 2008 * SQL Server 2008 Spatial Types (Geography and Geometry) are supported with 9.3 SP1, binary supported at 9.3 Final. Windows 7, Vista and XP Windows 7, Vista Sp2, and XP Sp3 are supported for basic testing and application development use only. They are not recommended for deployment in a production environment. Windows XP only supports the Developer Edition of SQL Server. -
GIS Migration Plan
Dane County Land Information Office July 2003 Dane County Enterprise GIS Migration Plan The Dane County Land Information Office is committed to the development of GIS technology to aid in the delivery of information and services to county departments, communities, and the residents of our county. As part of our ongoing efforts to develop a robust and efficient GIS infrastructure, the Land Information Office has begun a project to migrate to a next generation geographic information system. Workplan activities include an upgrade of the technical infrastructure (hardware and software), implementation of new ESRI GIS products, a review and re-modeling of enterprise GIS datasets, workflow analysis and process changes to maximize service delivery and staff efficiencies. This plan summarizes migration activities to-date, as well as outlining a workplan to complete the remaining tasks. ESRI's next generation product line revolves around three primary products: ArcGIS, ArcSDE and ArcIMS. ArcGIS and its related extensions and modules comprise the desktop GIS software suite. ArcSDE supports spatial and tabular database integration. ArcIMS supports the delivery of web-based geographic information and map services. The Dane County ArcGIS migration project includes converting current ArcInfo users to the ArcGIS product. The longer term goal will be to move the viewing, printing, and basic GIS operation users to ArcIMS applications that can be run from a browser or thin client. Current ArcView 3.2 users will be migrated to either thin client ArcIMS applications or ArcGIS 8.x software. All applications will utilize geographic information stored in ArcSDE. Training requirements will be focused on technical staff to build and maintain applications with user friendly tools to minimize intense end user training. -
Digital Mapping & Spatial Analysis
Digital Mapping & Spatial Analysis Zach Silvia Graduate Community of Learning Rachel Starry April 17, 2018 Andrew Tharler Workshop Agenda 1. Visualizing Spatial Data (Andrew) 2. Storytelling with Maps (Rachel) 3. Archaeological Application of GIS (Zach) CARTO ● Map, Interact, Analyze ● Example 1: Bryn Mawr dining options ● Example 2: Carpenter Carrel Project ● Example 3: Terracotta Altars from Morgantina Leaflet: A JavaScript Library http://leafletjs.com Storytelling with maps #1: OdysseyJS (CartoDB) Platform Germany’s way through the World Cup 2014 Tutorial Storytelling with maps #2: Story Maps (ArcGIS) Platform Indiana Limestone (example 1) Ancient Wonders (example 2) Mapping Spatial Data with ArcGIS - Mapping in GIS Basics - Archaeological Applications - Topographic Applications Mapping Spatial Data with ArcGIS What is GIS - Geographic Information System? A geographic information system (GIS) is a framework for gathering, managing, and analyzing data. Rooted in the science of geography, GIS integrates many types of data. It analyzes spatial location and organizes layers of information into visualizations using maps and 3D scenes. With this unique capability, GIS reveals deeper insights into spatial data, such as patterns, relationships, and situations - helping users make smarter decisions. - ESRI GIS dictionary. - ArcGIS by ESRI - industry standard, expensive, intuitive functionality, PC - Q-GIS - open source, industry standard, less than intuitive, Mac and PC - GRASS - developed by the US military, open source - AutoDESK - counterpart to AutoCAD for topography Types of Spatial Data in ArcGIS: Basics Every feature on the planet has its own unique latitude and longitude coordinates: Houses, trees, streets, archaeological finds, you! How do we collect this information? - Remote Sensing: Aerial photography, satellite imaging, LIDAR - On-site Observation: total station data, ground penetrating radar, GPS Types of Spatial Data in ArcGIS: Basics Raster vs. -
Chartmaking in England and Its Context, 1500–1660
58 • Chartmaking in England and Its Context, 1500 –1660 Sarah Tyacke Introduction was necessary to challenge the Dutch carrying trade. In this transitional period, charts were an additional tool for The introduction of chartmaking was part of the profes- the navigator, who continued to use his own experience, sionalization of English navigation in this period, but the written notes, rutters, and human pilots when he could making of charts did not emerge inevitably. Mariners dis- acquire them, sometimes by force. Where the navigators trusted them, and their reluctance to use charts at all, of could not obtain up-to-date or even basic chart informa- any sort, continued until at least the 1580s. Before the tion from foreign sources, they had to make charts them- 1530s, chartmaking in any sense does not seem to have selves. Consequently, by the 1590s, a number of ship- been practiced by the English, or indeed the Scots, Irish, masters and other practitioners had begun to make and or Welsh.1 At that time, however, coastal views and plans sell hand-drawn charts in London. in connection with the defense of the country began to be In this chapter the focus is on charts as artifacts and made and, at the same time, measured land surveys were not on navigational methods and instruments.4 We are introduced into England by the Italians and others.2 This lack of domestic production does not mean that charts I acknowledge the assistance of Catherine Delano-Smith, Francis Her- and other navigational aids were unknown, but that they bert, Tony Campbell, Andrew Cook, and Peter Barber, who have kindly commented on the text and provided references and corrections. -
Techniques for Spatial Analysis and Visualization of Benthic Mapping Data: Final Report
Techniques for spatial analysis and visualization of benthic mapping data: final report Item Type monograph Authors Andrews, Brian Publisher NOAA/National Ocean Service/Coastal Services Center Download date 29/09/2021 07:34:54 Link to Item http://hdl.handle.net/1834/20024 TECHNIQUES FOR SPATIAL ANALYSIS AND VISUALIZATION OF BENTHIC MAPPING DATA FINAL REPORT April 2003 SAIC Report No. 623 Prepared for: NOAA Coastal Services Center 2234 South Hobson Avenue Charleston SC 29405-2413 Prepared by: Brian Andrews Science Applications International Corporation 221 Third Street Newport, RI 02840 TABLE OF CONTENTS Page 1.0 INTRODUCTION..........................................................................................1 1.1 Benthic Mapping Applications..........................................................................1 1.2 Remote Sensing Platforms for Benthic Habitat Mapping ..........................................2 2.0 SPATIAL DATA MODELS AND GIS CONCEPTS ................................................3 2.1 Vector Data Model .......................................................................................3 2.2 Raster Data Model........................................................................................3 3.0 CONSIDERATIONS FOR EFFECTIVE BENTHIC HABITAT ANALYSIS AND VISUALIZATION .........................................................................................4 3.1 Spatial Scale ...............................................................................................4 3.2 Habitat Scale...............................................................................................4 -
Cartographic Visualisation and Landscape Modeling
CARTOGRAPHIC VISUALISATION AND LANDSCAPE MODELING Milap Punia Associate Professor, Centre for the Study of Regional Development, School of Social Sciences, Jawaharlal Nehru University, New Delhi-110067 - [email protected] KEY WORDS: Preception, Aesthetics, Cartographic Design,Visualisation, Landscape ABSTRACT: Perception plays a major role for interpretation or extracting information from remote sensing data and from thematic maps. With advances in information technology, there remains a necessary and critical role for the “human in the loop” in the interpretation of remotely sensed imagery, in earth sciences and cartography. On the side of information technology display systems play a critical role in supporting visualization, and in recent years it has become widely recognized that the visualization of data is critical in science, including the domain of cartography, a field with a long-standing interest in issues of communication effectiveness. These cartographic concerns pertaining to the features of display symbols, elements, and patterns have clear effects on process of perception and visual search. In this study an attempt has been made to harness, interpret, compare and evaluate landscape aesthetics with cartographic aesthetics. By understanding and incorporating cartographic aesthetics with landscape aesthetics, the cartographic design process can be strengthened and effective maps can be generated. Here both landscape and cartography are considered as objects of aesthetics and an attempt has been made to evaluate their aesthetic experience and to analyze their various patterns of similarity and exceptions. By doing this it formulates and facilitates conception of feeling, expression and visual reality all together in the cartographic design process. 1. INTRODUCTION Aesthetics has been a subject of philosophy since long period. -
3B – a Guide to Pictograms
3b – A Guide to Pictograms A pictogram involves the use of a symbol in place of a word or statistic. Why would we use a pictogram? Pictograms can be very useful when trying to interpret data. The use of pictures allows the reader to easily see the frequency of a geographical phenomenon without having to always read labels and annotations. They are best used when the aesthetic qualities of the data presentation are more important than the ability to read the data accurately. Pictogram bar charts A normal bar chart can be made using a set of pictures to make up the required bar height. These pictures should be related to the data in question and in some cases it may not be necessary to provide a key or explanation as the pictures themselves will demonstrate the nature of the data inherently. A key may be needed if large numbers are being displayed – this may also mean that ‘half’ sized symbols may need to be used too. This project was funded by the Nuffield Foundation, but the views expressed are those of the authors and not necessarily those of the Foundation. Proportional shapes and symbols Scaling the size of the picture to represent the amount or frequency of something within a data set can be an effective way of visually representing data. The symbol should be representative of the data in question, or if the data does not lend itself to a particular symbol, a simple shape like a circle or square can be equally effective. Proportional symbols can work well with GIS, where the symbols can be placed on different sites on the map to show a geospatial connection to the data. -
1) Key Words 2) Tally Charts 3) Pictograms 4) Block Graph 5) Bar
KS2 1) Key Words 2) Tally Charts 3) Pictograms 4) Block Graph 5) Bar Graphs 6) Pie Charts 7) Grouped Tally Charts (KS2/3 analysis) 8) Grouped Frequency Diagrams 9) Frequency Polygons 10) Line Graphs 11) Scatter Diagrams 12) Cumulative Frequency Diagrams 13) Box Plots 14) Histograms KS4 15) Grouped Tally Charts (KS4 analysis) 16) What Makes A Good Graph * Analysing Data Key words Axes Linear Continuous Median Correlation Origin Plot Data Discrete Scale Frequency x -axis Grouped y -axis Interquartile Title Labels Tally Types of data Discrete data can only take specific values, e.g. siblings, key stage 3 levels, numbers of objects Continuous data can take any value, e.g. height, weight, age, time, etc. Tally Chart A tally chart is used to organise data from a list into a table. The data shows the number of children in each of 30 families. 2, 1, 5, 0, 2, 1, 3, 0, 2, 3, 2, 4, 3, 1, 2, 3, 2, 1, 4, 0, 1, 3, 1, 2, 2, 6, 3, 2, 2, 3 Number of children in a Tally Frequency family 0 1 2 3 4 or more Year 3/4/5/6:- represent data using: lists, tally charts, tables and diagrams Tally Chart This data can now be represented in a Pictogram or a Bar Graph The data shows the number of children in each family. 30 families were studied. Add up the tally Number of children in a Tally Frequency family 0 III 3 1 IIII I 6 2 IIII IIII 10 3 IIII II 7 4 or more IIII 4 Total 30 Check the total is 30 IIII = 5 Year 3/4/5/6:- represent data using: lists, tally charts, tables and diagrams Pictogram This data could be represented by a Pictogram: Number of Tally Frequency