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ArcMap

ArcMap is a geographic information system (GIS) application developed by , serving as the central component of the Desktop software suite for creating, viewing, editing, analyzing, and sharing geospatial data. Introduced in December 1999 as part of ArcGIS 8.0, it replaced earlier command-line tools like ARC/INFO with an intuitive point-and-click interface, democratizing access to and mapping for professionals across industries such as , environmental management, and resource allocation. The software enables users to add and symbolize layers from diverse data sources, including and raster formats, perform geoprocessing tasks such as buffering, overlay , and spatial joins, and generate professional layouts with legends, bars, and annotations for export to or formats. Key extensions like Spatial Analyst for raster modeling, Network Analyst for , and Analyst for expanded its capabilities, supporting complex workflows integrated with scripting in 2.x and database via file geodatabases. ArcMap's robust toolset facilitated editing through and attribute , making it a staple for GIS practitioners for over two decades. As of 2024, ArcMap is in mature support phase within the ArcGIS Desktop lifecycle, with full retirement scheduled for March 1, 2026, after which no updates, patches, or technical support will be provided. Esri recommends migration to ArcGIS Pro, its modern successor, which offers enhanced 64-bit processing, 3D and 2D integration, cloud connectivity, and advanced analytics to maintain compatibility with evolving geospatial standards. Despite its impending end-of-life, ArcMap remains influential in legacy systems and educational contexts, underscoring Esri's evolution from desktop-centric GIS to a comprehensive cloud-based platform.

Introduction and History

Overview

ArcMap is the central desktop application in the Desktop suite, designed for creating, editing, viewing, and analyzing maps and geospatial data. It serves as the primary interface for (GIS) workflows, enabling users to visualize spatial relationships, design professional maps, perform , and integrate with broader tools for comprehensive geospatial solutions. As part of the Desktop suite, ArcMap works alongside companion applications such as ArcCatalog, which handles data organization and management, and ArcToolbox, an integrated set of geoprocessing tools accessible within ArcMap for executing analytical operations. This suite collectively supports a full spectrum of GIS tasks, from data preparation to advanced modeling, though ArcMap remains the core environment for 2D mapping and . ArcMap operates under three license levels—Basic, Standard, and Advanced—each providing escalating capabilities to match user needs. The Basic level supports core functions like map viewing and simple data manipulation; Standard adds advanced editing and database management features; while Advanced unlocks full geoprocessing, , and extension tools for complex workflows. Esri has deprecated ArcGIS Desktop, including ArcMap, with mature support ongoing until February 28, 2026, and full retirement effective March 1, 2026; users are strongly encouraged to migrate to for modernized functionality and ongoing updates.

Development and Versions

ArcMap originated as a core component of Desktop, introduced with the release of 8.0 in December 1999, serving as a that replaced the command-line system of the earlier software. This shift marked a significant advancement in accessibility for GIS users, building on the foundations laid by , which first released in 1982 as a comprehensive vector-based GIS platform. The software evolved through a series of major version updates that integrated advancements from its ARC/INFO heritage while expanding capabilities for desktop GIS workflows. The 9.x series, launched in 2004, introduced enhanced visualization tools via the Analyst extension, enabling better management and display of three-dimensional data and symbology. Subsequent releases in the 10.x lineup, beginning with version 10.0 in 2010, focused on streamlining geoprocessing operations, including improved tool integration, scripting support, and distributed geodatabase management for more efficient data handling and analysis workflows. A pivotal innovation during this period was the introduction of the geodatabase in 8.0, which provided a unified for storing, managing, and querying geographic datasets, with further refinements in version 8.3 released in 2002 that expanded support for enterprise-level implementations. Later versions experimented with interface enhancements, such as customizable toolbars and contextual menus, to improve user efficiency, though full ribbon-style navigation was not adopted in ArcMap. The final major release of ArcMap was version 10.8.1 in July 2020, followed by a patch update to 10.8.2 in December 2021, which addressed critical fixes without introducing new features. Desktop, encompassing ArcMap, entered mature support in March 2024, providing limited security patches at Esri's discretion until its retirement on March 1, 2026; earlier versions like 10.7.x reached retirement in March 2025. Sustained support for the product line concluded around 2020, aligning with Esri's transition toward cloud-integrated solutions.

User Interface

Main Views

ArcMap offers two primary views for interacting with geospatial data: Data View and Layout View, each designed to support different stages of map creation and analysis. Data View serves as a full-screen geographic display, enabling users to explore, , , and query data layers in a dynamic environment focused on the 's content. This view supports tools for dynamic labeling, where labels update automatically as the extent changes, and measurement capabilities to calculate distances, areas, and features directly on the . It emphasizes interaction with the underlying spatial data, allowing for efficient navigation and inspection without distractions from page elements. In contrast, Layout View provides a page-oriented design mode, where users compose maps for presentation or output by arranging elements such as titles, legends, and scale bars on a virtual page. This view facilitates precise placement and alignment of components to produce print-ready or exportable maps, simulating the final layout as it would appear on paper or in digital formats. Unlike Data View, it displays the map within defined page boundaries, prioritizing composition over data exploration. Users can switch between Data View and Layout View seamlessly through the View menu—selecting Data View or Layout View—or by using corresponding buttons on the standard toolbar, ensuring that changes in one view reflect in the other while maintaining separate focal points on data versus presentation. Both views share the underlying map document and integrate with the for managing layers, though details on that component are covered elsewhere. To enhance detailed inspection, ArcMap includes supplementary window types: the Magnifier window, which acts like a to show an enlarged of areas under the cursor without altering the main extent; the Viewer window, which displays a separate, scalable of specific map portions created by dragging a ; and the Overview window, which presents a broader extent with a movable box to adjust the primary display's focus. These windows operate alongside the main views, aiding navigation and precision tasks.

Layout Components

ArcMap's layout is structured around key components that organize and present geographic data within the application's interface. The primary elements include data frames, the , toolbars and menus, and properties dialogs, each serving to define, manage, and customize the display of map layers and associated elements. These components enable users to build and manipulate the visual structure of maps without delving into operational functionalities like analysis or editing workflows. The data frame acts as a fundamental container for map layers in ArcMap, encapsulating groups of layers that share a common and defining the spatial extent over which they are displayed. Each data frame establishes the context for rendering geographic , allowing users to set parameters such as , , and reference grids to control how layers appear within the view. Multiple data frames can exist within a single , facilitating the creation of inset maps or side-by-side comparisons of different datasets, where the active frame is highlighted in bold for easy identification. Data frames can be renamed, resized, duplicated, or linked using extent rectangles to maintain synchronized views across frames, with their shape and orientation adapted to fit page designs or distributions. Properties of a data frame, accessed via right-click options in the , include settings for borders, backgrounds, and drop shadows to enhance visual separation in views. The (TOC) provides a hierarchical, docked —typically positioned on the left side of the ArcMap window—that lists all data frames and their contained layers, offering a centralized view of the 's structural organization. It displays essential details such as data sources, symbology previews, visibility status via checkboxes, and drawing order, where layers at the top are rendered over those below. Users can customize the TOC's appearance through various display options, including the standard view for a comprehensive layer overview, the display view focused on symbology and visibility, the source view emphasizing data connections, and list-by-drawing-order mode to reorder elements dynamically. The TOC supports layer grouping under headings for better organization and allows quick access to right-click menus for tasks like renaming or activating elements, making it integral to navigation in data view. Fonts, colors, and symbology in the TOC can be adjusted for clarity, ensuring it remains a versatile tool for managing map composition. Toolbars and menus form the interactive backbone of ArcMap's , delivering sets of commands and tools that users or to their preferences. The toolbar includes core elements like , , and full extent buttons, while the Tools toolbar offers selection and measurement capabilities; the Draw toolbar provides options for adding graphic elements such as text or shapes to the . Menus, accessible via the main (e.g., , , Insert), expand into dropdown lists of commands, with context-sensitive variants appearing on right-clicks for targeted adjustments. These components are highly customizable: users can add, remove, or rearrange buttons and menus through the Customize dialog, hiding unused toolbars via the menu to streamline the interface. Examples include the Effects toolbar for controls and the toolbar with control point tools, all contributing to a modular that supports efficient assembly. Properties dialogs in ArcMap serve as dedicated configuration interfaces for fine-tuning the attributes of data frames and layers, accessible by right-clicking elements in the or . For data frames, the dialog includes tabs such as General for naming and extent settings, for definitions, and Frame for visual styling like and caching options to optimize rendering performance. Layer properties dialogs feature tabs like Symbology for color and symbol assignments, General for scale dependency and , and Size and Position for spatial adjustments. These dialogs enable precise control over elements such as join tables, scale ranges, and display units, with options to store relative path names for portability. Rendering choices, including RGB composites, and classification methods are configured here, ensuring the layout's components align with the map's structural needs without altering underlying data.

Core Functionality

Mapping and Visualization

ArcMap provides robust tools for layer symbology, enabling users to visually represent geographic features through customized colors, symbols, and patterns. Access to these options is available via the Symbology tab in the Layer Properties dialog box, where users can select from various rendering methods to symbolize features based on attribute values or geometric properties. For instance, single symbol rendering applies uniform appearance to all features in a layer, while category-based symbology uses unique values to assign distinct symbols, colors, or patterns to different classes of data. Quantitative symbology options further enhance by representing magnitudes. Graduated colors allow for thematic where fill colors vary in across predefined value ranges, commonly used to depict continuous distributions. Similarly, graduated symbols marker or line sizes proportionally to attribute values, providing a clear . Dot density rendering scatters small dots within polygons to illustrate density or totals, with the number of dots scaled to the underlying . Multivariate rendering is supported through chart symbology, such as , , or stacked charts, which display multiple attributes simultaneously at feature locations—for example, charts showing proportional breakdowns of demographic variables. Labeling in ArcMap facilitates the addition of descriptive text derived from feature attributes, enhancing map readability without manual annotation. Automatic labeling dynamically generates and positions labels based on selected fields, with the Maplex Label Engine providing algorithms to minimize overlaps through conflict resolution strategies like stacking, curving, or shifting. Users can customize fonts, sizes, colors, and backgrounds via the Labeling toolbar or Label Manager, while interactive tools allow manual adjustments for precise control. Placement rules, including priority weighting for labels and features, ensure optimal arrangement in dense areas. Map elements are essential for contextualizing visualizations in the layout view, where users insert graphic components to convey , , and explanatory details. North arrows indicate directional reference, with customizable symbols and to the data frame. Scale bars represent ground distances, offering options like line, alternating, or numeric formats that dynamically adjust to the map's extent. Legends summarize symbology, automatically populating with layer symbols and labels, while dynamic text elements allow for titles, credits, or variable content like dates. These elements are added via the Insert menu and positioned freely on the . Thematic mapping in ArcMap transforms attribute data into intuitive visual representations, primarily through the Symbology tab's quantities options. Choropleth maps are created using graduated colors, where polygons are shaded according to aggregated values, such as across regions, with methods like equal interval or natural breaks defining color breaks. Dot density maps distribute dots proportionally within areas to show relative quantities, ideal for illustrating distributions like rainfall totals. Proportional symbol maps employ graduated or sized symbols—such as circles or bars—scaled to numeric attributes, effectively highlighting variations in point or line features, like populations. These techniques prioritize data-driven design, with built-in classifiers ensuring balanced and perceptually effective renderings. Layers are organized within data frames to manage multiple thematic views.

Editing Tools

ArcMap provides a robust for modifying and creating geospatial data, primarily through its and associated tools. Editing begins with starting an edit session, which allows users to work on editable layers such as feature classes in geodatabases or shapefiles. To initiate an edit session, users select "Start Editing" from the Editor menu after adding compatible data sources to the , choosing a workspace like a or geodatabase, and ensuring the relevant layers are visible in the active data frame. This session locks the data for modification until "Stop Editing" is selected, at which point changes can be saved or discarded. During the session, snapping options enhance precision by aligning new features to existing ones; these include snapping to endpoints, midpoints, vertices, edges, junctions, or nodes, configurable via the with settings in pixels or units. rules further maintain by enforcing spatial relationships, such as preventing polygon overlaps or line dangles, validated through the or post-edit checks using the Error Inspector. Digitizing tools in ArcMap enable the creation of new features through the Create Features , accessible from the Editor toolbar. This lists construction tools for drawing points (via a single click), lines (by digitizing vertices sequentially), and polygons (closing with a ), supporting both point mode for exact placement and stream mode for fluid sketching with a threshold. Feature templates, predefined in the or via ArcCatalog, streamline the process by setting default attributes, subtypes, and construction properties for specific feature types, allowing users to select a template before sketching. Edits created in this manner are visualized in real-time within the Data View, as detailed in the Main Views section. Advanced sketching options, such as straight snapping or right-angle constraints, further aid in constructing accurate geometries. Attribute editing complements geometric modifications by allowing updates to feature properties. Users can access the Attributes window via the Editor to modify fields for selected , or open the full attribute table by right-clicking a layer and selecting Open Attribute Table, where segment highlighting on the aids identification during edits. For batch operations, the Field Calculator enables expressions to update multiple records, such as simple arithmetic like [Field1] + 10 or conversions like [Shape_Area] * 0.000247105 to derive acres from square meters. ArcMap maintains edit history through an undo/redo stack, accessible via Ctrl+Z for undoing actions (e.g., feature creation or vertex adjustments) and Ctrl+Y for redoing them, available throughout the session without a specified limit. For collaborative environments, geodatabase versioning supports tracking changes over time; data is registered as versioned in ArcCatalog, allowing multiuser sessions on specific versions, with reconcile and post operations to merge edits and resolve conflicts via dialog tools or the Version Manager. This versioning ensures edits are isolated and reversible, preserving the integrity of shared datasets.

Data Handling

Supported Formats

ArcMap provides native support for a variety of vector data formats, enabling users to work with geographic and attribute tables directly within the application. Key vector formats include shapefiles (.shp), which store nontopological vector data in multiple files including geometry, attributes, and indexing, allowing for read and write operations across all license levels. Personal geodatabases (.mdb), based on , support feature classes, tables, and relationships for smaller datasets, with full read and edit capabilities. File geodatabases (.gdb) offer a more efficient, scalable format for storing feature classes, tables, and raster datasets, supporting advanced and domains, and are readable and editable in all configurations. Additionally, the legacy coverage format from , which includes topological relationships for vector features, is supported for read operations but is considered outdated and primarily used for importing historical data. For raster data, ArcMap handles multiple formats suitable for and grid-based analysis, with support for multi-band data and compression where applicable. The format, including , allows read and write access to multi-band, georeferenced raster datasets, often used for high-resolution with embedded projection information. files provide compressed raster support for photographic data, readable and writable, though with potential loss of quality due to compression, and extends this with wavelet-based compression for larger files. 's format, an older raster structure, supports read and write for single- and multi-band grids, commonly used for elevation models and thematic data. raster formats, such as BIL (Band Interleaved by Line), BIP (Band Interleaved by Pixel), and BSQ (Band Sequential), enable direct read access to raw data, with multi-band capabilities for . Other formats extend ArcMap's interoperability with external systems. CAD files in and DXF formats from are supported for direct read and edit, allowing integration of engineering drawings as feature layers while preserving annotations and blocks. KML and KMZ files facilitate web-based , with read via import tools and write capabilities for exporting layers to Google Earth-compatible formats. The coverage format, as a legacy vector option from , maintains for older datasets but requires conversion for modern workflows. Data import and export in ArcMap occur through intuitive interfaces and dedicated tools, ensuring compatibility with non-native formats. Users can add supported files directly via the Add Data button in ArcMap or browse catalogs in ArcCatalog for preview and management. For non-native formats, conversion tools in the ArcToolbox, such as CAD to Geodatabase or Layer to KML, enable transformation to native structures like geodatabases, preserving attributes and geometry during the process. These workflows support batch operations and maintain spatial references across formats.

Data Management Features

ArcMap provides a suite of tools for organizing, querying, and maintaining geospatial sets, enabling users to efficiently manage layers, geodatabases, tables, and coordinate systems within mapping projects. These features support workflows from data ingestion to preparation for analysis, ensuring and usability in desktop environments. Central to this is the , which serves as the primary interface for layer oversight, while geodatabase tools facilitate structured storage and relationships. Layer management in ArcMap involves adding, removing, grouping, and querying layers to control map display and data access. Users add layers by dragging datasets from the Catalog window onto the map display or using the Add Data button on the Standard toolbar, supporting various data sources like feature classes and tables. Layers can be removed by right-clicking them in the Table of Contents and selecting Remove, which unloads them from the current map without deleting the underlying data. Grouping layers organizes related sublayers into a single hierarchical entry in the Table of Contents; for instance, a group layer can contain multiple thematic layers such as roads and buildings, allowing collective visibility toggling and advanced drawing options like scale-dependent rendering. Definition queries, based on SQL expressions, filter features in a layer for display or analysis, such as selecting only parcels where "Population > 10000" to limit rendering to high-density areas. These queries adhere to standard SQL syntax and can be set via the Layer Properties dialog box under the Definition Query tab. Geodatabase operations in ArcMap allow creation and maintenance of structured data models, including feature classes, domains, subtypes, and relationship classes, primarily through the Catalog window or geoprocessing tools. Feature classes, which store homogeneous vector data like points or polygons, are created by right-clicking a geodatabase or feature dataset in the Catalog and selecting New > Feature Class, specifying properties such as geometry type, spatial reference, and attribute fields. Domains enforce data validation by defining permissible values or ranges for fields, such as a coded domain for land use categories (e.g., "Urban", "Rural") or a range domain for elevation (0 to 5000 meters), and are assigned to fields during feature class creation or via the Domains tab in geodatabase properties. Subtypes partition a feature class into categories based on a coded field value, enabling subtype-specific behaviors like default values or rules; for example, subtypes for road types (highway, street) can apply different attribute domains. Relationship classes establish referential integrity between feature classes or tables, such as a simple one-to-many link between parcels and owners, created using the New Relationship Class option in the Catalog or the Create Relationship Class tool, defining origin-destination tables, cardinality, and attributes like labels. Editing data in geodatabases, such as modifying features within these structures, is supported through the Editor toolbar but requires matching projections to avoid distortions. Table operations in ArcMap enable manipulation of attribute data through joins, summaries, and calculations to derive insights or prepare datasets. Joins link tables based on common fields, such as relating a census table to a feature class via a unique ID, using the Add Join tool or the Join dialog in Layer Properties; temporary joins appear in the attribute table, while permanent ones use the Join Field tool to transfer attributes. Summarizing statistics aggregates , such as computing sums, means, or counts for fields like by , via the Summarize dialog (right-click field header in the attribute table) or the Summary Statistics tool, outputting a new with metrics like total area or average income. Field calculations update or create fields using the Field Calculator, supporting arithmetic (e.g., "Price * Quantity"), string functions (e.g., concatenation), or logical expressions (e.g., if-then for categorization), applied to selected records or entire tables. Projection handling in ArcMap ensures spatial alignment through on-the-fly reprojection and explicit coordinate system definitions, accommodating datasets in differing projections without permanent alteration. On-the-fly projection dynamically transforms layers to match the data frame's coordinate system during display, enabling visualization of mismatched data like overlaying UTM zones onto a WGS 84 base; this is activated by default when layers have defined projections and occurs via the data frame's properties. Users define or modify the data frame's coordinate system through the Data Frame Properties dialog (right-click Data Frame in Table of Contents > Properties > Coordinate System tab), selecting from predefined projections like State Plane or customizing via projection files (.prj), which sets the reference for all layers in that frame. This approach supports accurate measurement and analysis but may impact performance for large datasets.

Analysis Capabilities

Geoprocessing Tools

Geoprocessing in ArcMap is facilitated through the ArcToolbox interface, which organizes a comprehensive collection of tools into toolboxes and toolsets for performing spatial operations on geographic data. This interface allows users to access, execute, and manage tools interactively via dialog boxes, supporting workflows that automate repetitive tasks on vector and raster datasets. Within ArcToolbox, ModelBuilder provides a visual programming environment where users can construct, edit, and run geoprocessing models by connecting tools with variables, enabling the creation of complex workflows without coding. Additionally, scripting integration via the arcpy module allows programmers to access the full suite of geoprocessing tools programmatically, extending functionality for custom automation and batch operations. Key vector processing tools in ArcToolbox include the Buffer tool, which generates polygon zones of specified distances around input point, line, or polygon features to analyze proximity effects. The Clip tool extracts features from an input layer that overlap with a clip features layer, effectively trimming datasets to a defined boundary for focused analysis. Overlay tools such as and Intersect combine multiple input layers by performing spatial joins, where merges all features and attributes into a single output while preserving all input geometries, and Intersect outputs only the overlapping areas with combined attributes. The Dissolve tool aggregates spatially adjacent features based on shared attribute values, reducing polygon counts and simplifying boundaries for thematic mapping. These tools form the foundation for data manipulation, supporting tasks like boundary delineation and spatial aggregation in GIS projects. Batch processing in ArcMap enables the execution of a single across multiple inputs or sets simultaneously, accessible by right-clicking a in ArcToolbox and selecting Batch mode, which opens a grid interface for defining rows of . This feature streamlines workflows by processing lists of datasets in one operation, such as buffering multiple feature classes at varying distances. History captures executions in the Results and files, allowing users to review past operations, , and outputs for and . Geoprocessing history is also embedded in dataset metadata, ensuring traceability of transformations applied to data. Environment settings in ArcMap control the context for tool execution, influencing outputs without altering tool parameters directly. The Workspace environment specifies the default locations for input and output datasets, streamlining file management across sessions. The Extent environment limits processing to a defined bounding box, such as the current map view or a custom polygon, to focus computations on relevant areas and improve efficiency. For raster outputs, the Cell Size environment sets the resolution of generated grids, defaulting to the smallest input cell size or a user-specified value to balance detail and performance. These settings apply globally or per-tool via the Environments dialog, ensuring consistent results in automated workflows. ArcToolbox integrates with core extensions to access advanced tools, enhancing the geoprocessing framework for specialized analyses.

Spatial Analysis

ArcMap provides spatial analysis capabilities through its core Analysis toolbox and extensions such as for raster-based operations and Spatial Statistics for pattern analysis, enabling users to derive meaningful insights from geospatial data, including proximity measurements, surface interpolations, statistical evaluations of spatial patterns, and environmental modeling. These capabilities allow for the exploration of relationships between features, such as how close points are to one another or how values vary across landscapes, supporting applications in , , and . The tools integrate raster and data to generate outputs like distance surfaces, maps, and statistical indices, facilitating decision-making based on spatial dependencies. Proximity analysis in ArcMap focuses on measuring and mapping distances between features to understand spatial relationships and . Distance calculations are primarily handled by tools like , which generates a raster output representing the straight-line distance from each cell to the nearest source feature, such as roads or facilities, allowing users to identify zones or cost-distance surfaces for barriers. Nearest neighbor analysis employs the Near tool to compute the distance from each input feature to the closest feature in a specified , appending these distances as attributes for further querying or , which is useful for tasks like locating the closest hospitals to sites. Voronoi diagrams, also known as Thiessen polygons, are created using the Create Thiessen Polygons tool, which divides the plane into regions based on proximity to input points, where each polygon encompasses the area closest to a particular point; this method is applied in for rainfall or in for territory delineation. Overlay and surface analysis in ArcMap support the integration and of multiple layers to reveal patterns in and concentrations. Density estimation utilizes the Density tool, which applies a kernel function—a smoothed, tapered surface—to point or line features, producing a raster of magnitude per unit area that highlights areas of high concentration, such as or incidents, by weighting contributions inversely with distance. Hotspot identification builds on these kernel methods through tools like the Optimized Hot Spot Analysis (available in the Spatial Statistics extension), which combines kernel density with statistical testing to detect statistically significant clusters of high or low values, enabling the recognition of anomalous spatial patterns like disease outbreaks or environmental hazards without manual parameter tuning. These techniques, often executed via the geoprocessing framework, emphasize conceptual mapping of spatial densities over exhaustive computation. Statistical summaries in ArcMap quantify the degree of spatial dependence in data distributions, providing measures of clustering or . Spatial autocorrelation is assessed using the Spatial Autocorrelation (Global ) tool (in the Spatial Statistics toolbox), which evaluates whether similar values tend to occur near one another across the dataset. The statistic is calculated as: I = \frac{n}{S_0} \sum_{i=1}^{n} \sum_{j=1}^{n} w_{ij} z_i z_j where n is the number of observations, w_{ij} are the spatial weights reflecting the proximity between locations i and j, z_i and z_j are the standardized deviations from the mean for features i and j, and S_0 is the sum of all spatial weights. Values of I range from -1 to +1, with positive values indicating clustering, negative values , and values near zero ; this index helps validate assumptions in spatial models, such as in valuation or . Hydrologic and solar analyses in ArcMap model water flow and energy receipt to simulate environmental processes. Hydrologic analysis begins with the Flow Direction tool, which assigns each cell in a (DEM) a direction of steepest descent using methods like D8 (eight possible directions) or multiple flow direction, forming the basis for simulating patterns. delineation follows using the Basin tool, which identifies pour points and accumulates flow to outline boundaries by tracing upstream contributions, essential for risk assessment or water resource planning. analysis employs the Area Solar Radiation tool to compute insolation, factoring in , , , and atmospheric transmissivity to produce raster maps of direct, diffuse, and global radiation over specified time periods, aiding in site suitability for installations or vegetation growth modeling.

Output Options

Printing and Export

ArcMap facilitates the production of high-quality hardcopy outputs through its printing capabilities, primarily accessed from the Layout view where maps are composed with elements such as titles, legends, and scale bars. To initiate printing, users select File > Page and Print Setup from the main menu, opening a dialog box that allows configuration of the printer, page size (e.g., letter, tabloid, or custom dimensions), orientation (portrait or landscape), and scale settings to match the layout proportions. DPI resolution is adjustable in the subsequent Print dialog, typically ranging from 72 to 600 DPI depending on the printer's capabilities, ensuring crisp output for detailed cartographic elements. ArcMap supports a wide array of printers, including large-format plotters connected via Ethernet, RS-232, or parallel interfaces, enabling the creation of oversized maps such as posters or engineering drawings up to several feet in width. For digital outputs, ArcMap offers versatile export options via File > Export Map (or Export Layout for composed views), producing files suitable for sharing, archiving, or further editing in other software. Vector formats like PDF, Adobe Illustrator (AI), and Enhanced Metafile (EMF) preserve scalability and editability, ideal for professional graphics workflows, while raster formats including JPEG, PNG, BMP, TIFF, and GIF generate pixel-based images for web or image processing applications. High-resolution raster exports are supported up to 2400 DPI, allowing for print-ready files with fine detail, though vector formats default to 300 DPI and can exceed this without pixelation. During export, users can enable transparency for layers in formats like PNG to maintain visual layering effects, and opt to generate accompanying world files (.wld) for raster outputs, which embed georeferencing information such as pixel scale and coordinate transformations for seamless integration into GIS systems. Common challenges in printing and exporting are addressed through targeted troubleshooting measures. For large datasets, which can cause memory overflows or slow rendering, users may need to simplify symbology, reduce layer complexity, or enable rasterization in the print driver to convert vector elements to images, preventing crashes during output generation. is another key consideration, as ArcMap renders displays in RGB for screen viewing but supports to CMYK during to PDF, EPS, , or via the Advanced options dialog, ensuring colors align with print devices and avoiding shifts like overly vibrant hues in professional . To implement CMYK, colors are defined in the symbol editor using the CMYK model, and the dialog's Output as image quality is set accordingly, with overprinting rules available for precise ink control in production workflows.

Publishing Maps

ArcGIS Publisher, an extension for ArcMap that is in mature support and scheduled for retirement on March 1, 2026, alongside Desktop, enables the creation of published map files (PMF) from map documents (.mxd), allowing users to distribute interactive maps for read-only viewing via the free ArcReader application without requiring an license. After retirement, no updates, patches, or technical support will be provided for Publisher or ArcReader; recommends migrating to , which includes a Publisher extension for sharing maps and data. The process involves enabling the Publisher toolbar in ArcMap, configuring settings such as visible layers or specific bookmarks, and then publishing the map, which preserves symbology, layouts, and data references in a compressed .pmf . PMF files support exploration features like zooming, panning, and querying in ArcReader, making them suitable for sharing detailed geographic information with non-GIS users. For web-based distribution, ArcMap supports exporting layers or entire maps to Keyhole Markup Language (KML) files, which can be opened in Google Earth for interactive 3D visualization. The Layer To KML tool converts feature or raster layers into KML, translating Esri geometries and symbology into a ZIP-compressed format (.kmz) that maintains layer structures and supports time-enabled data. Similarly, the Map To KML tool exports multiple layers from an ArcMap data frame simultaneously, creating a single KML file for easy sharing across web platforms. Basic HTML exports are also possible for simple viewers, such as generating HTML pages with embedded map images and legends from reports or metadata, though these are primarily static. Integration with Online and ArcGIS Server allows ArcMap users to upload map packages (.mpk) for hosted services, facilitating collaborative access and applications. A map package bundles the .mxd with referenced , symbology, and layouts into a single compressed file, which can be shared directly via the Share Package tool to ArcGIS Online after signing in with an account. On ArcGIS Server, these packages serve as inputs for publishing map services, enabling dynamic access to the map content over the web. Security features in published outputs ensure controlled distribution, with PMF files supporting view-only access through password protection on the map or individual secure layers. Users can restrict editing, exporting, or data access in ArcReader by setting during the publishing process in ArcMap's Publisher Settings dialog. Watermarks can be incorporated as static graphic elements or text annotations in the original document before , appearing persistently in PMF or hosted outputs to indicate or draft status without altering the underlying data. These measures help protect sensitive geographic information while enabling secure sharing across platforms.

Extensions

Core Extensions

The core extensions of ArcMap, provided by , enhance the software's basic functionality with specialized tools for advanced , enabling users to perform complex tasks such as raster modeling, three-dimensional visualization, network routing, and geostatistical interpolation. These extensions—Spatial Analyst, 3D Analyst, Network Analyst, and Geostatistical Analyst—are essential for professionals in fields like , , and transportation, requiring separate licensing to access their toolsets within ArcMap. Spatial Analyst extends ArcMap with raster-based analysis capabilities, allowing users to model and analyze continuous spatial data represented as grids of cells. It supports operations on raster datasets derived from point, line, or polygon features, facilitating tasks like terrain modeling and suitability analysis across supported formats such as GRID and TIFF. A key component is map algebra, which performs cell-by-cell mathematical operations; for instance, slope can be calculated as [Elevation] - [Base], yielding a new raster where each cell value represents the difference, often used to derive inclination angles via the formula \tan^{-1}(\frac{\text{rise}}{\text{run}}). Reclassification tools enable reassignment of cell values into categories, such as grouping slope degrees into ranges like 0-10 or 10-20 for land-use planning, using remap tables to handle NoData values and output simplified rasters. Focal statistics provide neighborhood-based computations, such as calculating the mean elevation within a 3x3 cell window to smooth data or detect edges, supporting shapes like rectangles and statistics including sum or standard deviation for local spatial insights. 3D Analyst adds tools for creating and analyzing three-dimensional surfaces from two-dimensional data, integrating raster and layers into immersive scenes. It supports surface modeling through methods to generate triangulated irregular networks (TINs) from point data with breaklines or digital models (DEMs) for raster-based representation, allowing users to query and visualize features like contours or hillshades. analysis determines visible areas from observer points on a surface, such as identifying line-of-sight across a TIN , with options for offsets to account for observer height and produce output rasters highlighting reachable viewpoints. For 3D scene creation, the extension enables extrusion of features using attribute values or base heights from TINs/DEMs, supporting animations and multiperspective views in environments like ArcScene, where users can drape imagery over surfaces for realistic rendering. Network Analyst facilitates network-based spatial analysis by modeling real-world transportation systems as structures, optimizing paths and coverage within ArcMap. It performs route optimization by solving for the shortest or fastest paths between multiple stops, leveraging impedance attributes like travel time to reorder destinations efficiently. Service area calculations generate polygons representing reachable zones from facilities within specified impedances, such as 3-, 5-, or 10-minute drive times from warehouses, aiding in coverage assessment and gap identification. These functions rely on conceptually, which computes shortest paths by evaluating cumulative costs along edges from to destination nodes, enabling scalable solutions for scenarios like facility location or delivery routing. Geostatistical Analyst provides advanced methods for predicting values at unsampled locations, emphasizing probabilistic modeling over deterministic approaches. It excels in , particularly ordinary kriging, which estimates a value Z^*(x_0) at location x_0 as the weighted sum Z^*(x_0) = \sum \lambda_i Z(x_i), where \lambda_i are weights derived from spatial that sum to 1, ensuring unbiased predictions under a constant mean assumption. The process involves fitting a semivariogram model (e.g., spherical or ) to sample data, such as from point measurements, to quantify variance and compute weights for surface generation, including error and probability maps for validation. This extension supports exploratory tools like alongside , applied in examples such as mapping concentrations from scattered observations, with cross-validation to assess model accuracy.

Additional Extensions

ArcScan is an extension for ArcMap that enables the of raster images into vector features, supporting the conversion of scanned maps, aerial photographs, or other raster data into editable GIS layers. It includes tools for interactive tracing, , and rubber-sheeting capabilities to rectify distortions in raster data by aligning it with control points for improved geometric accuracy. This extension is particularly useful for historical map and data integration, allowing users to generate clean vector from imperfect raster sources. Tracking Analyst provides functionality for tracking and temporal within ArcMap, enabling the of moving objects such as vehicles, , or patterns through time-enabled layers. It supports the of temporal with time sliders, playback controls, and tools to depict changes over time, including the of tracking diagrams that show object paths and attributes at specific intervals. This extension facilitates applications in , fleet tracking, and by integrating live feeds with . ArcGIS Publisher, as a standalone extension for ArcMap, allows users to create secure, lightweight map packages and interactive viewers that can be distributed without requiring a full ArcGIS license on the receiving end. It generates PMF (Published Map File) formats that preserve map interactivity, symbology, and basic querying while minimizing and enhancing for non-GIS users. This tool is ideal for sharing maps in reports, web embeds, or offline scenarios, with options for password protection and runtime restrictions to control data access. Third-party extensions expand ArcMap's capabilities for specialized domains, such as DHI's by DHI Temporal Analyst, which integrates hydrological time-series data for water resource modeling and temporal GIS analysis, enabling seamless handling of dynamic environmental datasets. Additionally, integration with Hexagon's ERDAS software supports advanced imagery processing, including radiometric correction and orthorectification, with compatibility noted up to ArcMap version 10.8 for importing processed raster products into ArcGIS workflows. These external options allow customization for niche applications like management and without relying solely on Esri's core toolkit.

References

  1. [1]
    [PDF] ArcMap to ArcGIS Pro Migration Guide - Esri
    For many, ArcMap was where it all began. Introduced in the late 1990s, it was game-changing software that brought GIS into the digital era and made spatial.
  2. [2]
    ArcMap vs ArcGIS Pro - Esri Community
    There are currently two supported ArcGIS Desktop application environments. ArcMap ArcGIS Pro Release First release (8.0): 1999 (10.0): 2010 "ArcGIS Desktop.
  3. [3]
    Summer 2000 ArcNews -- Esri's New ArcGIS Product Family
    At the end of 1999, Esri released the first phase of the ArcGIS system, a new, integrated architecture for GIS products. This architecture provides a ...
  4. [4]
    Get started with ArcMap
    Released version: 10.8.2. ArcMap and ArcGIS Pro, the two primary desktop applications for GIS professionals, are both part of ArcGIS Desktop.A quick tour of ArcMap · Mapping and visualization · Installation GuideMissing: history | Show results with:history
  5. [5]
    FAQ: What Are the Build Numbers for Releases of ArcGIS Desktop ...
    May 9, 2024 · Note: ArcMap is in Mature support and will be retired March 1, 2026. There are no plans for future releases of ArcMap, and it is recommended ...
  6. [6]
    ArcGIS Desktop, ArcMap & ArcCatalog | Esri's Legacy GIS Software
    ArcGIS Pro hosts a powerful and dynamic set of geospatial capabilities that combine within ArcGIS to form a comprehensive geospatial platform. Enhanced security.
  7. [7]
    ArcMap Resources for ArcGIS Desktop | Documentation & Migration ...
    We're here to help you migrate with training, guides, tutorials, documentation, and more. Download the migration guide Review the documentation for ArcMapEsri’s Legacy GIS Software · Keep Innovating with GIS · Migrate to ArcGIS Pro
  8. [8]
    ArcMap frequently asked questions—ArcGIS Pro | Documentation
    ArcGIS Desktop is a suite of four applications: ArcMap, ArcCatalog, ArcScene, and ArcGlobe. ArcGIS Desktop applications are designed to work together.
  9. [9]
    Using the ArcToolbox window - ArcMap Resources for ArcGIS Desktop
    When you save your ArcMap, ArcGlobe, or ArcScene document, the contents of the ArcToolbox window are saved. The next time you open the document, the window will ...Using The Arctoolbox Window · Key Features Of The... · The Arctoolbox Shortcut Menu
  10. [10]
    ArcGIS Desktop Pricing and License Levels | Buy Now - Esri UK
    License level​​ The same license levels—Basic, Standard, and Advanced—apply to both ArcGIS Desktop applications: ArcGIS Pro and ArcMap.
  11. [11]
    Geodatabase functionality in ArcGIS Desktop Basic
    ArcGIS Desktop can be licensed at three different levels: Desktop Basic, Desktop Standard, or Desktop Advanced. The geodatabase functionality available to ...
  12. [12]
    ArcMap Life Cycle - Esri Support
    This document offers in-depth information about the different life cycle stages of various product types, from inception to retirement.<|control11|><|separator|>
  13. [13]
    ArcGIS 8: The Complete Geographic Information System - Esri Support
    This white paper describes the 8.x releases of ArcGIS that meet the ESRI plan for a single, scalable software architecture.
  14. [14]
    History of GIS | Timeline of the Development of GIS - Esri
    Esri is a pioneer in GIS. Since its founding in 1969, Esri has played a vital role in the creation and development of geographic information system (GIS) ...
  15. [15]
    ArcGIS 9 Provides a Complete Platform for GIS
    ArcGIS 3D Analyst 9 also introduces the ability to display 3D symbols (e.g., cars, signposts, and houses) and models with photo textures. (See "ArcGIS 3D ...Missing: x | Show results with:x
  16. [16]
    ArcGIS 9: Major New Release of the ArcGIS Platform - Esri
    ArcGIS 9 3D Analyst also adds support for true 3D symbology to enhance scientific visualization and real-world simulation.
  17. [17]
    [PDF] What's new in ArcGIS 10 - Documentation Archives
    Upgrade personal, file, and all ArcSDE geodatabases using the Upgrade Geodatabase geoprocessing tool or Python script. • The geodatabase schema has been ...
  18. [18]
    The Evolution of GIS Software | Spring 2015 | ArcUser - Esri
    GIS software evolved from tightly scripted code to object-oriented, then service-oriented, and finally to cloud-based platforms.
  19. [19]
    It's Not Personal: A brief history of the geodatabase and why ... - Esri
    May 18, 2023 · The ArcGIS 8.0 release introduced the geodatabase as the common data storage and management framework for all ArcGIS software. While some were ...
  20. [20]
    Deprecation: ArcGIS Desktop - Esri Support
    Aug 14, 2025 · Software updates, patches, and hot fixes are no longer available. The product was officially deprecated on July 1, 2024, and will be retired ...Missing: history | Show results with:history<|control11|><|separator|>
  21. [21]
    ArcMap Continued Support - Esri Support
    Aug 4, 2025 · ArcGIS Desktop is now deprecated and will be retired March 1, 2026. There are no plans for future releases of ArcGIS Desktop, and it is ...Missing: history | Show results with:history
  22. [22]
    Displaying maps in data view and layout view—ArcMap
    ArcMap provides two ways to view a map: data view and layout view. Each view allows you to view and interact with the map, but in different ways. Data view ...
  23. [23]
    A quick tour of page layouts - ArcMap Resources for ArcGIS Desktop
    In Layout view you can add map elements such as north arrows, legends, and scale bars, as well as, frames that contain the geographic data or the maps ...
  24. [24]
    Accessing layout view - ArcMap Resources for ArcGIS Desktop
    Click the View menu. Click Layout View. The ArcMap window displays the entire map and its surrounds. Tip: Not all maps have both data view and layout view.
  25. [25]
    Working with magnifier, viewer, and overview windows—ArcMap
    ArcMap provides three additional map windows to view the spatial data on your map: a Magnifier window, a Viewer window, and an Overview window.
  26. [26]
    Opening the magnifier window—ArcMap | Documentation
    The magnifier window works like a magnifying glass; as you pass the window over the data, you see a magnified view of the location under the window.
  27. [27]
    [PDF] Using ArcMap - Esri
    ... Viewer window. 3. Click the Save in dropdown arrow and navigate to the location where you want to save the exported report. 4. Type a name for the report. 5 ...
  28. [28]
    Drawing a layer using a single symbol—ArcMap | Documentation
    Right-click the layer you want to draw with a single symbol in the table of contents and click Properties. · Click the Symbology tab on the Layer Properties ...
  29. [29]
    Drawing a layer using categories—ArcMap | Documentation
    Identify the symbology you want to use to display your categories. Right-click the symbol for each category to modify its symbol properties or to choose another ...Drawing A Layer Using... · Using Match To Symbols In A... · Organizing Categories Into...
  30. [30]
    Using graduated colors - ArcMap Resources for ArcGIS Desktop
    Right-click the layer you want to draw using graduated colors in the table of contents and click Properties. · Click the Symbology tab on the Layer Properties ...Missing: multivariate | Show results with:multivariate
  31. [31]
    About symbolizing layers to represent quantity—ArcMap
    When you symbolize a layer with charts, a chart symbol and a number are placed in the table of contents under the layer's name. The number next to the chart ...
  32. [32]
    Using pie charts - ArcMap Resources for ArcGIS Desktop
    Click the Symbology tab on the Layer Properties dialog box. Click Charts and click Pie. The Pie chart properties panel will appear, in which you set the display ...
  33. [33]
    About displaying labels - ArcMap Resources for ArcGIS Desktop
    Labeling is an easy way to add descriptive text to features on your map. Labels are dynamically placed, and label text strings are based on feature attributes.
  34. [34]
    A quick tour of the Labeling toolbar—ArcMap | Documentation
    The image below shows the Labeling toolbar. To add it to ArcMap, click Customize > Toolbars > Labeling. Note: Portions of the Labeling toolbar are dimmed ...
  35. [35]
    Weighting labels and features - ArcMap Resources for ArcGIS Desktop
    Label weights and feature weights are used to assign relative importance to labels and features. This weight is to be used only when there is a conflict.
  36. [36]
    Map elements - ArcMap Resources for ArcGIS Desktop
    Map elements, associated with a specific data frame and the data within, can be added to a map layout. These elements include north arrows, scale bars, ...Map Elements · Scale Bars · Legends
  37. [37]
    Working with data frames in page layouts—ArcMap | Documentation
    In layout view, focusing the active data frame allows you to work with the features and elements in that data frame as though you were in data view.
  38. [38]
    [PDF] ArcGIS® 9 - Editing in ArcMap - Esri
    Any software, documentation, and/or data delivered hereunder is subject to ... EDITING IN ARCMAP. Tools for editing and managing networks in a geodatabase.
  39. [39]
    [PDF] ArcGIS 10.7 Desktop ArcMap Functionality Matrix - Esri
    Use Overview Window. ○. ○. ○. Use Viewer Windows for Displaying Different Parts of a Map. ○. ○. ○. Use Multiple Viewer Windows for Separate Data Frames.
  40. [40]
    Shapefile file extensions - ArcMap Resources for ArcGIS Desktop
    Shapefiles are a simple, nontopological format for storing the geometric location and attribute information of geographic features.Missing: vector | Show results with:vector
  41. [41]
    Supported CAD formats in ArcGIS—ArcMap | Documentation
    ArcGIS Desktop supports the following AutoCAD and MicroStation file formats: Direct-read formats are translated on the fly into memory as read-only feature ...Missing: KML coverage
  42. [42]
    How To: Convert Shapefiles to KML - Esri Support
    Mar 4, 2022 · To convert shapefiles to KML, add the shapefile to ArcMap, open ArcToolbox, use the 'Layer To KML' tool, select the shapefile, and specify the ...
  43. [43]
    How To: Convert AutoCAD DWG Files to a GIS-Compatible File ...
    Jul 25, 2025 · Create a geodatabase, use ArcToolbox's CAD to Geodatabase tool, select the CAD file, set the reference scale, and select the CAD data's ...
  44. [44]
    Adding layers to a map - ArcMap Resources for ArcGIS Desktop
    It's easy to add layers to a map—you simply select a dataset and drag it from the Catalog or Search window onto your map or add a dataset using the Add Data ...Adding Map Layers · Adding A Dataset · Setting Layer Symbology
  45. [45]
    Working with group layers - ArcMap Resources for ArcGIS Desktop
    A group layer contains other layers. Group layers help organize related kinds of layers in a map and can be used to define advanced drawing options.
  46. [46]
    Building a query expression - ArcMap Resources for ArcGIS Desktop
    Query expressions are used in ArcGIS to select a subset of features and table records. Query expressions in ArcGIS adhere to standard SQL expressions.
  47. [47]
    Creating a feature class in a feature dataset—ArcMap | Documentation
    In the Catalog tree, right-click the feature dataset in which you want to create a new feature class. Point to New > Feature Class.
  48. [48]
    A quick tour of subtypes - ArcMap Resources for ArcGIS Desktop
    Subtypes are a subset of features in a feature class, or objects in a table, that share the same attributes. They are used as a method to categorize your data.
  49. [49]
    An overview of creating and maintaining relationship classes—ArcMap
    You can use one of the following three tools to create a relationship class: In ArcCatalog or the Catalog window, right-click the geodatabase or a feature ...
  50. [50]
    Joining attributes in one table to another—ArcMap | Documentation
    You can perform a join with either the Join Data dialog box, accessed by right-clicking a layer in ArcMap, or the Add Join tool.
  51. [51]
    Summarizing data in a table - ArcMap Resources for ArcGIS Desktop
    Right-click the field heading of the field you want to summarize and click Summarize. Check the box next to the summary statistics you want to include in the ...
  52. [52]
    Making field calculations - ArcMap Resources for ArcGIS Desktop
    The Field Calculator works on string, number, and date fields and automatically calculates selected records if the layer or table has a selection set present.
  53. [53]
    When raster datasets are projected on the fly—ArcMap
    ArcMap can perform on-the-fly projection, which means that it can display data stored in one projection as if it were in another projection.
  54. [54]
    Specifying a coordinate system—ArcMap | Documentation
    To display your data correctly, each data frame uses a coordinate system. It determines the map projection for the map display in the data frame.
  55. [55]
    A quick tour of geoprocessing - ArcMap Resources for ArcGIS Desktop
    Geoprocessing tools perform small, yet essential operations on geographic data, such as extracting and overlaying data; changing map projections; adding a ...
  56. [56]
    A quick tour of ArcPy - ArcMap Resources for ArcGIS Desktop
    ArcPy provides access to geoprocessing tools as well as additional functions, classes, and modules that allow you to create simple or complex workflows quickly ...
  57. [57]
    Buffer (Analysis)—ArcMap | Documentation
    ArcGIS geoprocessing tool that creates buffer polygons around input features to a specified distance.
  58. [58]
    A quick tour of batch processing—ArcMap | Documentation
    To use batch, right-click a tool and click Batch. This opens the batch dialog box with one row of the batch grid, as shown below with the Clip tool.
  59. [59]
    Viewing tool execution history - ArcMap Resources for ArcGIS Desktop
    Each time you run a geoprocessing tool, information about the tool and its parameters is saved. This saved information is referred to as geoprocessing history.
  60. [60]
    Using the Results window - ArcMap Resources for ArcGIS Desktop
    The Results window contains information about geoprocessing tools that are executing, have been executed, or were not executed because ArcMap was exited.
  61. [61]
    Current Workspace (Environment setting)—ArcMap | Documentation
    Tools that honor the Current Workspace environment use the workspace specified as the default location for geoprocessing tool inputs and outputs.
  62. [62]
    Extent (Environment setting) - ArcMap Resources for ArcGIS Desktop
    The Extent environment setting defines the features or rasters that will be processed by a tool. It is useful when you need to process only a portion of a ...
  63. [63]
    Cell Size (Environment setting)—ArcMap | Documentation
    The default cell size when a feature dataset is used as input to a tool is the width or height (whichever is shorter) of the extent of the feature dataset, ...
  64. [64]
    Geoprocessing framework—ArcMap | Documentation
    The geoprocessing framework is a small collection of built-in user interfaces for organizing and managing existing tools and creating tools.
  65. [65]
    A quick tour of Spatial Analyst - ArcMap Resources for ArcGIS Desktop
    The ArcGIS Spatial Analyst extension provides a rich suite of tools and capabilities for performing comprehensive, raster-based spatial analysis.
  66. [66]
    Create Thiessen Polygons (Analysis)—ArcMap | Documentation
    A single proximal polygon (Voronoi cell) is defined by all points p closest to a single point in S, that is, the total area in which all points p are closer to ...
  67. [67]
    Kernel Density (Spatial Analyst)—ArcMap | Documentation
    Calculates a magnitude-per-unit area from point or polyline features using a kernel function to fit a smoothly tapered surface to each point or polyline.Missing: hotspot | Show results with:hotspot
  68. [68]
    Optimized Hot Spot Analysis (Spatial Statistics)—ArcMap
    ArcGIS geoprocessing tool to identify statistically significant hot spots using automatically derived settings to produce optimal results.Missing: Analyst | Show results with:Analyst
  69. [69]
    Overlay analysis—ArcMap | Documentation
    Raster overlay tools are located in several toolsets in the Spatial Analyst toolbox. Spatial Analyst is an ArcGIS extension that is licensed separately.
  70. [70]
    Spatial Autocorrelation (Global Moran's I)
    Measures spatial autocorrelation based on feature locations and attribute values using the Global Moran's I statistic.
  71. [71]
    How Spatial Autocorrelation (Global Moran's I) works—ArcMap
    The Spatial Autocorrelation (Global Moran's I) tool measures spatial autocorrelation based on both feature locations and feature values simultaneously.
  72. [72]
    Flow Direction (Spatial Analyst)—ArcMap | Documentation
    Creates a raster of flow direction from each cell to its downslope neighbor, or neighbors, using D8, Multiple Flow Direction (MFD) or D-Infinity (DINF) methods.Missing: delineation | Show results with:delineation
  73. [73]
    Basin (Spatial Analyst) - ArcMap Resources for ArcGIS Desktop
    The drainage basins are delineated within the analysis window by identifying ridge lines between basins. · To create the input D8 flow direction raster, the Flow ...
  74. [74]
    Understanding solar radiation analysis—ArcMap | Documentation
    The solar radiation analysis tools in the ArcGIS Spatial Analyst extension enable you to map and analyze the effects of the sun over a geographic area for ...
  75. [75]
    About map printing - ArcMap Resources for ArcGIS Desktop
    Click File > Page and Print Setup on the main menu to open the Page and Print Setup dialog box. · You can set your layout page size as shown here. · To set your ...
  76. [76]
    Printing a map in ArcMap
    You use the Print tool to print a map in ArcMap. This sends your map to your desired printer. There are two printing tasks you can perform in ArcMap.
  77. [77]
    [PDF] Supported Devices Guide ArcGIS 8.0.2 - Esri
    ESRI supports Ethernet and direct connection of printers and plotters to a computer workstation or server via an RS-232 or parallel interface. The user is ...
  78. [78]
    Exporting your map—ArcMap | Documentation
    EMF, EPS, AI, PDF, and SVG are referred to as vector export formats, since they can contain a mixture of vector and raster data. BMP, JPEG, PNG, TIFF, and GIF ...
  79. [79]
    How to get consistent quality of vectors when exporting to AI format
    Oct 1, 2007 · (Note: the maximum resolution is 32,000 dpi). Below are examples of how different resolutions can change the quality of lines and shapes ...
  80. [80]
    How to Export Map with world files? - Esri Community
    Jun 6, 2012 · From "File Menu > Export Map" you can export maps with world files by checking the "Write World File" box for the following file types: BMP, JPEG, PNG, TIFF, ...
  81. [81]
    How To: Determine the Source of ArcMap Printing or Exporting ...
    Jul 9, 2024 · Navigate to File > Export Map. Click the Save as type drop-down and select EMF. Click Save or OK. Insert the EMF as a picture into an empty ...
  82. [82]
    How To: Export from ArcMap with CMYK Colors to PDF, EPS ...
    Apr 25, 2020 · Define colors in CMYK, export to PDF, EPS, Illustrator, or SVG, and set the Destination Colorspace to CMYK in the export options.Missing: printing | Show results with:printing
  83. [83]
    Configuring color mapping rules—ArcMap | Documentation
    Color mapping rules map input to output colors during export to PDF. This allows you to transform on-screen RGB colors to output device CMYK or Spot colors.Missing: management | Show results with:management
  84. [84]
    An overview of Publisher - ArcMap Resources for ArcGIS Desktop
    Publisher converts ArcMap (.mxd) and ArcGlobe (.3dd) documents into the published map format (.pmf) used with ArcReader. Published maps from ArcMap are two ...Missing: features | Show results with:features
  85. [85]
    [PDF] Using ArcGIS Publisher - Esri
    ArcGIS Publisher converts ArcMap map documents into the published map file (.pmf) format. These published maps can then be shared with other users who have the ...
  86. [86]
    Preparing maps for publishing—ArcMap | Documentation
    ArcReader references data sources in the same way as ArcMap or ArcGlobe. The data source information in the document is stored in the published map.
  87. [87]
    Layer To KML (Conversion) - ArcMap Resources for ArcGIS Desktop
    Summary. This tool converts a feature or raster layer into a KML file containing a translation of Esri geometries and symbology.
  88. [88]
    Map To KML (Conversion)—ArcMap | Documentation
    This tool converts a map document into a KML file containing a translation of Esri geometries and symbology. This file is compressed using ZIP compression, will ...
  89. [89]
    Creating KML in ArcGIS Desktop—ArcMap | Documentation
    The Map To KML tool allows multiple layers in an ArcMap map document data frame to be simultaneously exported to a KML file. Each layer will be maintained as a ...
  90. [90]
    Exporting a report - ArcMap Resources for ArcGIS Desktop
    You can export reports to the following formats: Adobe Portable Document Format (PDF); HTML Format (HTM); TIFF Format (TIF); Microsoft Excel (XLS); Rich ...
  91. [91]
    Creating a map package - ArcMap Resources for ArcGIS Desktop
    Map packages (.mpk) make it easy to share complete map documents with others. A map package contains a map document (.mxd) and the data referenced by the ...
  92. [92]
    Share Package (Data Management)—ArcMap | Documentation
    To share a package to ArcGIS online, your Esri Global Account needs to be registered as a member of ArcGIS online. To create an Esri Global Account and register ...Share Package · Syntax · Code Sample
  93. [93]
    Share and Document Maps with Map Packages - Esri
    Like layer packages, map packages make it easy to share maps that include the symbology of the source map by uploading the MPK file directly to ArcGIS Online or ...
  94. [94]
    Security settings - ArcMap Resources for ArcGIS Desktop
    Security issues involved with distributing data through a published map file can be addressed through the Security tab on the Publisher Settings dialog box.Missing: features | Show results with:features
  95. [95]
    [PDF] ArcGIS Desktop Extensions - Esri
    Using ArcGIS 3D Analyst, you can seamlessly view extremely large sets of data in three dimensions from multiple viewpoints, query a surface, and create a ...
  96. [96]
    [PDF] Using ArcGIS Spatial Analyst - Esri
    With Spatial Analyst you can easily perform spatial analysis on your data. ... The ESRI Guide to GIS Analysis describes in detail the many tasks that can ...
  97. [97]
    [PDF] Using ArcGIS™ 3D Analyst™ - Esri
    3D Analyst also lets you create 3D features from existing two-dimensional. (2D) GIS data—or you can digitize new 3D vector features and graphics in. ArcMap ...
  98. [98]
    [PDF] Tutorial - ArcGIS Network Analyst - Esri
    In this Exercise you will create a simple shapefile based network dataset from a single line feature class and a turn feature class. Creating a network dataset.
  99. [99]
    [PDF] Using ArcGIS™ Geostatistical Analyst - Esri
    Analyst. Welcome to the ESRI® ArcGIS™ Geostatistical Analyst extension for advanced surface modeling using deterministic and geostatistical methods.