Response to question 7: How course meets CS criteria GPH 370 is a survey class that serves as a gateway for several other more advanced courses focused on the techniques of geographic inquiry. Most of these techniques are quantitative and utilize computing technology extensively. As stated in the syllabus, the course seeks to build students’ information literacy in general, but specifically in the realm of geographic information. Parallel to this goal, students also must achieve a basic level of proficiency in computer software skills, as evidenced by ability to complete assignments as HTML-based web pages, use basic image editing software, implement concepts of file structure and management, and carry out a variety of web-based exercises pertinent to various realms of geographic information. To this end, the course progresses through a series of themes. The list below outlines the themes and examples of supporting problem-based exercises. Module numbers refer to attached syllabus; complete exercises are posted at http://geography.asu.edu/btl/370/modules.htm. 1. Web page creation and file management: The course begins with a brief introduction to server-client technology, file management procedures needed to create a series of linked web pages, legal aspects of web page creation, and web design principles. Module 1: Students create a home page for the course, and post it to ASU’s personal web hosting space. Instruction is based on use of Microsoft Word for web page creation, and SSH Secure Shell for web posting; although students may use alternate software if they choose. 2. Map projections and coordinate systems: These mathematically-based systems provide the basis for technologies and techniques introduced in the remainder of the course. Module 2: Using web-based map projection software, students choose and construct appropriate map projections for various purposes. They use basic graphics editing software to prepare images of map projections for their web pages. Different graphics file types and the basics of graphics file compression are discussed in this exercise. 3. Global Positioning Systems: These popular satellite-based navigation systems, used in scientific mapping as well as numerous navigation applications, form the basis of a discussion of the physics of EM (Electromagnetic) radiation and the mathematics of determining location from distance and time measurements. Module 3: Students collect data using handheld GPS units, and compare locations measured with the same locations identified on air photos, to analyze error in the GPS technology. The module develops spatial and mathematical skills in basic map reading and (x, y) coordinate determination and analysis. 4. Census and survey data: The well-known decennial census is used here to discuss sampling strategies, randomness, the nature of social science data, and issues associated with aggregation of data Page 1 of 3 Module 4: Students explore use of US Census web site to find census and sampled data, learn to distinguish the two, and create maps representing census survey data using an interactive mapping interface on the Census web site. Here, they are introduced to very basic techniques in spreadsheet use and analysis. 5. Remote sensing: The important geographical technique that includes aerial, RADAR, and satellite imagery is introduced and used as the basis for a discussion of electromagnetic radiation, change detection, and digital image processing. Module 5: Students interpret images of an area in 4 wavelength ranges; using reflectance values that they estimate, together with a spectral reflectance graph, to identify land cover in the imaged area. The exercise introduces basic principles of digital image processing including resolution, color separation, filtering, and visualization of non-visible EM bands. 6. Geographic Information Systems: The ability to understand and use GIS software is a highly sought-after skill set. Here, we introduce concepts associated with these geographic modeling systems, including components of data capture, data management, analysis, and output options. Module 6: Students create a simple data dictionary based on conversion of a paper map to digital data layers, and use a web-based interactive GIS to carry out queries and simple analysis. By the end of the course, students will be familiar with a variety of computer-based geographic technologies, will have skills in evaluating data produced by these technologies, and will have an introductory level of experience in using each of these technologies, based on a problem-solving approach that requires both analysis and implementation of procedures. . A proposed Learning Outcome Objectives plan for GPH 370 follows, summarizing the relationship between CS General Studies Objectives, specific course performance objectives and assessment measures. Page 2 of 3 LOA Plan for Geographic Information Technology (GPH 370) ASU (CS) General Studies standards that students will be expected to accomplish: Specific performance objectives that students are expected to master: Assessment of Performance Objectives: 1. Course involves the use of computer programming languages or software programs for quantitative analysis, modeling, simulation, animation, or statistics Students will be able to use appropriate computer software to: Written reports of problem-based lab exercises, turned in as web pages linked to a student-created class web site Create and update an HTML-based web site Carry out the following geographic modeling tasks: Written exams o Construct a variety of map projections o Plot geographic locations utilizing Global Positioning Systems Technology o Interpret remotely-sensed imagery o Carry out simple functions of Geographic Information Analysis Carry out simple analyses of census-based demographic data 2. Course requires students to analyze and implement procedures that are applicable to the following problem domains: Spreadsheet analysis, systems analysis and design, and decision support systems Graphic/artistic design using computers Modeling, making extensive use of computer simulation. Students will be able to: Construct a spreadsheet from demographic data, and use the spreadsheet to carry out descriptive statistical analyses Use graphic design principles to create effective web pages Written reports of problem-based lab exercises, turned in as web pages linked to a student-created class web site Written exams Select map projections appropriate for various purposes, and develop parameters necessary to create these projections Assess error in Global Positioning Systems data Describe the modeling functions of remotesensing technology, including its basis in principles of electromagnetic radiation (EM) and digital image processing. Be able to carry out an analysis of remotely-sensed data for identification of geographic phenomena. Describe the modeling functions of Geographic Information Systems software, including options and considerations in data capture, data management, analysis and output. Page 3 of 3