2016 QUARTER 02

A B C D E F G H I K L M N O P R S T U V W
CV6-2 - Map reading
  • Discuss the advantages and disadvantages of using conventional symbols (e.g., blue=water, green=vegetation, Swiss cross=a hospital) on a map
  • Find specified features on a topographic map (e.g., gravel pit, mine entrance, well, land grant)
  • Match map labels to the corresponding features
  • Match the symbols on a map to the corresponding explanations in the legend
  • Execute a well designed legend that facilitates map reading
  • Explain how the anatomy of the eye and its visual sensor cells affect how one sees maps in terms of attention, acuity, focus, and color
  • Explain how memory limitations effect map reading tasks
CV5-3 - Map reproduction
  • Describe print quality characteristics and price differences for limited-run color map distribution
  • Compare and contrast the quality of product evaluation that can be made from process proofs and color laser prints
  • Outline the stages in lithographic offset printing
  • Prepare a color map for black-and-white photocopy distribution
  • Specify a print job for publication, including paper, ink, lpi, proof needs, press check, and other contract decisions
  • Describe production concerns that might be discussed with a publisher who will print a map product
CF6-4 - Mathematical models of uncertainty: Probability and statistics
  • Devise simple ways to represent probability information in GIS
  • Describe the basic principles of randomness and probability
  • Compute descriptive statistics and geostatistics of geographic data
  • Interpret descriptive statistics and geostatistics of geographic data
  • Recognize the assumptions underlying probability and geostatistics and the situations in which they are useful analytical tools
CF6-2 - Mathematical models of vagueness: Fuzzy sets and rough sets
  • Compare and contrast the relative merits of fuzzy sets, rough sets, and other models
  • Differentiate between fuzzy set membership and probabilistic set membership
  • Explain the problems inherent in fuzzy sets
  • Create appropriate membership functions to model vague phenomena
GS2-5 - Measuring costs
  • Explain how the saying “developing data is the largest single cost of implementing GIS” could be true for an organization that is already collecting data as part of its regular operations
  • Describe some non-fiduciary barriers to GIS implementation
  • Summarize what the literature suggests as means for overcoming some of the non-fiduciary barriers to GIS implementation
  • Outline sources of additional costs associated with development of an enterprise GIS
  • Outline the categories of costs that an organization should anticipate as it plans to design and implement a GIS
GS4-2 - Mechanisms of control of geospatial information
  • Distinguish among the various intellectual property rights, including copyright, patent, trademark, business methods, and other rights
  • Explain how databases may be protected under U.S. copyright law
  • Describe advantages and disadvantages of “open” alternatives to copyright protection, such as the Creative Commons
  • Outline the intellectual property protection clause of a contract that a local government uses to license geospatial data to a community group
  • Explain how maps may be protected under U.S. copyright law
  • Differentiate geospatial information from other works protected under copyright law
CF5-2 - Mereology: structural relationships
  • Describe particular geographic phenomena in terms of their place in mereonomic hierarchies (parts and composites)
  • Explain the contributions of formal mathematical methods such as graph theory to the study and application of geographic structures
  • Represent structural relationships in GIS data
  • Explain the effects of spatial or temporal scale on the perception of structure
  • Explain the modeling of structural relationships in standard GIS data models, such as stored topology
  • Identify phenomena that are best understood as networks
GD12-1 - Metadata
  • Define “metadata” in the context of the geospatial data set
  • Use a metadata utility to create a geospatial metadata document for a digital database you created
  • Formulate metadata for a graphic output that would be distributed to the general public
  • Formulate metadata for a geostatistical analysis that would be released to an experienced audience
  • Compose data integrity statements for a geostatistical or spatial analysis to be included in graphic output
  • Identify software tools available to support metadata creation
  • Interpret the elements of an existing metadata document
  • Explain why metadata production should be integrated into the data production and database development workflows, rather than treated as an ancillary activity
  • Outline the elements of the U.S. geospatial metadata standard
  • Explain the ways in which metadata increases the value of geospatial data
CF1-1 - Metaphysics and ontology
  • Define common theories on what is “real,” such as realism, idealism, relativism, and experiential realism
  • Compare and contrast the ability of different theories to explain various situations
  • Recognize the commonalities of philosophical viewpoints and appreciate differences to enable work with diverse colleagues
  • Evaluate the influences of particular worldviews (including one’s own) on GIS practices
  • Justify the metaphysical theories with which you agree
  • Identify the ontological assumptions underlying the work of colleagues
CF5-5 - Metrical relationships: distance and direction
  • Describe geographic phenomena in terms of their distances and directions (in space and time)
  • Define the principle of friction of distance and geographic models that are based on it (e.g., gravity models, spatial interaction models)
  • Identify situations in which Tobler’s first law of geography does not apply
  • Explain why Tobler’s first law of geography is fundamental to many operations in GIS and whether it should be
  • Identify situations in which Tobler’s first law of geography is valuable
  • Use methods that analyze metrical relationships
  • Define spatial autocorrelation in the context of geographic proximity

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