Geodetic Surveyors

Calculate the exact horizontal and vertical position of points on the Earth's surface.

AI: Fully automatable - Given measurement inputs and models, established GNSS/adjustment software and algorithms can fully compute horizontal and vertical coordinates automatically.

Maintain databases of geodetic and related information, including coordinate, descriptive, or quality assurance data.

AI: Fully automatable - Database population, metadata management, validation, and routine maintenance of geodetic datasets are routinely automated with current tools and AI-assisted workflows.

Verify the mathematical correctness of newly collected survey data.

AI: Fully automatable - Mathematical verification such as closure checks, residual analysis, and least-squares adjustments can be fully performed by automated processing software.

Compute horizontal and vertical coordinates of control networks, using direct leveling or other geodetic survey techniques, such as triangulation, trilateration, and traversing, to establish features of the Earth's surface.

AI: Fully automatable - Computations for control networks (leveling, triangulation, trilateration, traverses) are algorithmic and are fully solvable by existing geodetic processing software.

Request additional survey data when field collection errors occur or engineering surveying specifications are not maintained.

AI: Fully automatable - Detecting field errors and automatically generating requests or workflows for additional data collection is routinely automatable in modern survey management systems.

Distribute compiled geodetic data to government agencies or the general public.

AI: Fully automatable - Distribution of compiled geodetic data via portals, APIs, and automated publication pipelines to agencies or the public is fully automatable.

Prepare progress or technical reports.

AI: Fully automatable - AI can fully generate progress and technical reports from datasets, logs, and templates with high accuracy and consistency, subject only to human review for final sign‑off.

Conduct surveys to determine exact positions, measurement of points, elevations, lines, areas, volumes, contours, or other features of land surfaces.

AI: Partial - Field surveying requires physical measurement and often complex site judgment—autonomous sensors/drones can handle many tasks but human oversight and intervention remain necessary in many contexts.

Analyze control or survey data to ensure adherence to project specifications or land survey standards.

AI: Partial - Automated analysis can check compliance to numeric standards and tolerances, but complex interpretation of borderline or project-specific specification issues still needs human judgment.

Assess the quality of control data to determine the need for additional survey data for engineering, construction, or other projects.

AI: Partial - AI can assess quality metrics and recommend additional data, yet deciding sufficiency for specific engineering contexts often requires human engineering/survey judgement.

Plan or direct the work of geodetic surveying staff, providing technical consultation as needed.

AI: Partial - AI can assist with scheduling, technical guidance and optimization, but directing staff, resolving interpersonal and contractual issues, and final technical responsibility remain human roles.

Review existing standards, controls, or equipment used, recommending changes or upgrades as needed.

AI: Partial - AI can analyze standards, equipment specifications, and historical performance to suggest changes or upgrades, but cannot fully replace site-specific judgment, regulatory approval, or hands‑on evaluation by qualified professionals.

Read current literature, talk with colleagues, continue education, or participate in professional organizations or conferences to keep abreast of developments in technology, equipment, or systems.

AI: Partial - AI can continuously monitor literature, summarize developments, and synthesize conference outputs, yet it cannot fully replicate the professional networking, credentialing, and experiential learning components of continuing education.

Compute, retrace, or adjust existing surveys of features such as highway alignments, property boundaries, utilities, control and other surveys to match the ground elevation-dependent grids, geodetic grids, or property boundaries and to ensure accuracy and continuity of data used in engineering, surveying, or construction projects.

AI: Partial - AI and software can perform the computations and network adjustments for surveys reliably given measurement data, but physically retracing surveys, validating on‑site conditions, and accepting legal responsibility require human/field actions.

Provide training and interpretation in the use of methods or procedures for observing and checking controls for geodetic and plane coordinates.

AI: Partial - AI can produce training materials, tutorials, and interpretive guidance for observing/checking controls and can run simulations, but cannot fully replace hands‑on mentorship and credentialed instruction in the field.

Determine orientation of tracts of land, including position, boundaries, size, and shape, using theodolites, electronic distance-measuring equipment, satellite-based positioning equipment, land information systems, or other geodetic survey equipment.

AI: Partial - AI can process measurements from theodolites, EDM, and GNSS to determine tract orientation and compute positions, but setup, instrument control, and legal/field verification still require human or robotic field operations under expert supervision.