Cartographers and Photogrammetrists

Salary Overview

Job Outlook (2024–2034)

Key Skills

Knowledge Areas

What They Do

• Compile data required for map preparation, including aerial photographs, survey notes, records, reports, and original maps.
• Delineate aerial photographic detail, such as control points, hydrography, topography, and cultural features, using precision stereoplotting apparatus or drafting instruments.
• Prepare and alter trace maps, charts, tables, detailed drawings, and three-dimensional optical models of terrain using stereoscopic plotting and computer graphics equipment.
• Study legal records to establish boundaries of local, national, and international properties.
• Inspect final compositions to ensure completeness and accuracy.
• Identify, scale, and orient geodetic points, elevations, and other planimetric or topographic features, applying standard mathematical formulas.
• Collect information about specific features of the Earth, using aerial photography and other digital remote sensing techniques.
• Examine and analyze data from ground surveys, reports, aerial photographs, and satellite images to prepare topographic maps, aerial-photograph mosaics, and related charts.

Tools & Technology

★ = Hot Technology (in-demand)

Education Requirements

Typical entry-level education: Some College

Related Careers

Careers with the highest skill compatibility from Cartographers and Photogrammetrists.

A Day in the Life

A cartographer's workday often begins with reviewing project requirements from clients who need updated maps, spatial databases, or terrain models for a specific geographic area. Morning hours may involve processing aerial imagery or LiDAR point cloud data in geographic information system software like ArcGIS or QGIS, correcting distortions and aligning datasets to established coordinate systems. Photogrammetrists spend significant time creating three-dimensional models from overlapping photographs, using specialized software to extract elevation data, building footprints, and vegetation canopy measurements. Midday tasks might include designing map layouts, selecting appropriate symbology, and applying cartographic principles to ensure visual clarity and accuracy at the intended scale. Collaboration with GIS analysts, surveyors, and project managers is routine, as spatial products must integrate with broader planning or engineering efforts. Afternoon work could involve quality assurance checks—cross-referencing map features against ground-truth data or identifying anomalies in remotely sensed imagery. Data management tasks like maintaining geodatabases, documenting metadata, and archiving project files fill remaining time. Some projects require field work, where cartographers collect GPS ground control points or verify features that are ambiguous in aerial imagery.

Work Environment

Cartographers and photogrammetrists primarily work in office environments, spending most of their time at computer workstations running specialized software. Employers range from federal agencies like the U.S. Geological Survey and the National Geospatial-Intelligence Agency to private engineering firms, mapping companies, and technology startups. The work demands extended periods of concentrated screen time, analyzing imagery and manipulating spatial data with precision. Standard 40-hour workweeks are typical, though project deadlines for government contracts or disaster response assignments can require additional hours. Field work is an occasional but welcome break from the office, involving trips to collect GPS data, photograph landmarks, or verify map accuracy. The professional culture values precision and intellectual curiosity, with peer review being a standard part of quality assurance workflows. Remote work has become increasingly common in the field, as cloud-based GIS platforms and high-speed internet make it possible to process geospatial data from anywhere. Conferences and professional meetings hosted by organizations like the American Association of Geographers and ASPRS provide networking and continuing education opportunities that keep practitioners current with technological advances.

Career Path & Advancement

A bachelor's degree in cartography, geography, geomatics, remote sensing, or a related geospatial science is the standard entry requirement for this profession. Coursework in GIS, photogrammetry, geodesy, computer science, and statistics provides the technical foundation. Entry-level positions typically involve production work—digitizing features, processing imagery, and building databases under the guidance of senior cartographers. After two to four years, professionals advance to project cartographer or photogrammetrist roles where they manage complete map products from data acquisition through final delivery. Senior positions include GIS project manager, geospatial program lead, or chief cartographer overseeing a team of specialists. Earning certifications such as the GIS Professional credential from the GIS Certification Institute or the Certified Photogrammetrist designation from the American Society for Photogrammetry and Remote Sensing demonstrates expertise and supports career advancement. Master's degrees in geospatial technology, remote sensing, or a related field are increasingly common for those pursuing research or leadership positions. Some cartographers transition into academia, splitting time between teaching and conducting research in emerging areas like autonomous vehicle mapping or climate change monitoring.

Specializations

The field of cartography and photogrammetry offers diverse specialization paths driven by technology and application domain. Topographic mapping specialists create detailed representations of terrain, elevation, and natural features used in construction planning, flood modeling, and military operations. Thematic cartographers design maps that visualize statistical data—population density, election results, disease distribution—requiring strong graphic design skills alongside geospatial knowledge. Nautical cartographers produce navigational charts for maritime use, incorporating bathymetric data, current patterns, and hazard markers under strict accuracy standards. Remote sensing analysts specialize in interpreting satellite and drone imagery to monitor land use change, deforestation, crop health, and urban expansion. LiDAR processing specialists extract precise elevation models from laser scanning data used in everything from powerline vegetation management to archaeological site discovery. Web and interactive cartographers develop online mapping applications using tools like Mapbox, Leaflet, and D3.js, creating dynamic visualizations for public consumption. 3D modeling photogrammetrists reconstruct buildings, infrastructure, and terrain in three dimensions for use in virtual reality, gaming, and digital twin applications.

Pros & Cons

Industry Insight

Cartography and photogrammetry are being transformed by advances in artificial intelligence, drone technology, and cloud computing. Machine learning algorithms now automate feature extraction from satellite imagery—identifying roads, buildings, and vegetation with increasing accuracy—though human expertise remains essential for quality control and complex interpretation. Commercial drone operators are generating vast quantities of aerial imagery and LiDAR data, creating growing demand for photogrammetrists who can process and analyze these datasets. Real-time mapping platforms serving autonomous vehicles, augmented reality applications, and smart city infrastructure represent major growth areas for the profession. The defense and intelligence community continues to be one of the largest employers, requiring high-resolution geospatial products for mission planning and situational awareness. Climate change research is driving demand for temporal mapping that tracks glacier retreat, sea level rise, coastal erosion, and wildfire progression over time. Open data initiatives by governments worldwide are making geospatial datasets more accessible, spurring innovation in commercial mapping applications. Despite automation of routine tasks, the creative and analytical judgment required to design effective maps and validate complex spatial products ensures continued demand for skilled professionals.