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ÊØÈíÞÜÇÊ äÙÜÜÜÜÜã ÇáãÚáæãÜÜÜÜÜÜÜÇÊ ÇáÌÛÑÇÝíÜÜÜÜÜÜÜÜÜÜå ÈãÌÜÜÜÜÜÇáÇÊ ÇáãÑÇÝÜÜÜÜÜÜÜÜÜÜÜÜÜÜÞ æ ÇáÔÈßÜÜÜÜÜÜÜÜÜÜÜÜÜÜÜÇÊ
G I S Applications in Utilities and Natural Resources Networking
Overview
With the growing complexity of monitoring and managing different represents real-world multimodal networks datasets as electrical, Oil-Gas, Pipeline, Transportations, Roads, Telecommunications, and more. Governments, Organizations, and companies have increasingly turned to GIS as spatial Information system. They recognize its capability to integrate with, and enhance the capabilities of existing systems, as well as initiate new spatially oriented applications and procedures.
Objectives
This course explains how GIS solve the real-world networking problems. Teaches how to create network datasets, working with simple and complex networks, apply network weights and restrict area of a trace. Introduce step-by-step live demonstration using ArcGIS9.1 - Network Analyst software, to create, store, and analyze Utilities and natural resources networks. Participants work with these network datasets to solve different types of network problems.
Audience
This course is ideally suited for GIS Editors, GIS engineers, Gis analysts, and GIS developers. Mainly who work in spatial Networking environment, as Transportations, Electricity, Oil-Gas, Pipelines, Roads, and others, will benefit from this course.
Perquisites
This is an intermediate course. Participants should be familiar with GIS concepts. And Prerequisite skills may be obtained in Introduction to Geographic Information Systems course
Contents
Understand
fundamental concepts of the GIS network datasets.
Topological
layers and spatial relations; Shared Geometry, coincident geometry, storing
spatial relation.
Plan to your Network; Subtypes and domains, Data organizations and spatial
referencing.
Create
your own dataset, Geometric network.
Define
network dataset properties such as connectivity groups, connectivity
policies, and network attributes.
Migrate
existing network data sources to your Geometric network.
Storing
a network; Simple vs. complex network features.
Build
and perform analyses on geometric networks; Flow on a geometric network with
sources and sinks.
Network
weights; Restricting the area of a trace, upstream and downstream, find
common ancestor, find connected, find path, and find loops.
Advance
network analysis; Weight filter, trace with selection, using barriers, and
disable features.
Investigate
complex features and network weights; define connectivity rules, diagramming
geometric network, diagramming edge-to-junction and edge-to-edge
connectivity rules.
Road
network analysis; find shortest path, Find fastest path, interactively
restricting the path of a trace, and using weight filter.
Advanced
network analysis; apply validation connectivity, build, edit, and analyze
Utility water network.
Network
analysis with raster surface; introduce live demo to a hydrological network
on topographic surface to define flow direction over surface, define stream
networks, define drainage basins, and determine tracing rain loops.
Present
to variety of GIS usage and applications with real-world networks.