United States

Introduction / Overview

In industrial automation, the International Federation of Robotics (IFR) reported that the United States was the largest market in the Americas, accounting for 68% of installations in the region in 2023.The IFR reported 37,587 industrial robot installations in the U.S. in 2023 (down 5% year over year but still described as the country’s third-highest result after 2022 and 2018). In global context, IFR’s executive summary reported that the United States accounted for 7% of global robot installations in 2023 and ranked third worldwide by annual installations.

Design and Features

Robots deployed in the United States span multiple categories, each designed around different performance and safety goals.

Industrial robots (fixed automation)

Industrial robots are typically multi-axis manipulators (often articulated arms) installed in manufacturing cells for welding, painting, assembly, machine tending, material handling, and inspection. Systems emphasize repeatability, duty-cycle endurance, and integration with end-of-arm tooling, fixtures, conveyors, and safety guarding.

Collaborative robots (cobots)

Collaborative robots are designed for workflows where humans and robots operate in closer proximity under defined safety conditions. Cobots are commonly used for packaging, light assembly, testing, and machine tending where flexibility, rapid changeovers, and simpler programming are priorities. A3 (Association for Advancing Automation) began publishing dedicated collaborative-robot tracking as part of its quarterly reporting, reflecting the segment’s growing visibility in North America. 

Autonomous mobile robots (AMRs) and AGVs

AMRs and Automated Guided Vehicles (AGVs) support material movement inside warehouses and factories. AMRs typically use onboard sensors and navigation software to route around obstacles and coordinate with other robots via fleet management systems, making them well-suited for high-throughput fulfillment and distribution operations.

Service and specialized robots

Service robots include robots used for cleaning, delivery, inspection, security patrol augmentation, and customer-facing support in controlled settings. Specialized robots may be designed for construction, agriculture, energy infrastructure, or hazardous environments where ruggedness and sensing matter more than precision placement in fixed cells.

Technology and Specifications

Robotic systems in the U.S. typically combine mechanical engineering, sensors, control software, and integration with operational IT/OT systems.

Core hardware

Most robots include:

• Actuators and drives: commonly electric servos; configuration varies by payload and speed requirements

• Feedback and sensing: encoders, force/torque sensors, depth cameras, LiDAR, IMUs, and safety-rated scanners

• End-effectors: grippers, suction tools, weld torches, dispensers, sanding/polishing tools, and custom tooling for specific parts

OSHA’s technical guidance describes an industrial robot system as more than the arm itself, including the end-effector, control system, sensors, power sources, and I/O interfaces used for sequencing and monitoring.

Software, perception, and autonomy

Industrial robots rely on motion control, path planning, and programming environments (teach pendants and offline programming). Vision systems support inspection, measurement, and pick-and-place, while AMRs rely on localization, mapping, and traffic management. AI techniques are increasingly used for perception (e.g., defect detection) and for handling variability in unstructured tasks, though deployments are often constrained by reliability, validation, and safety requirements.

Safety standards and workplace risk

In the U.S., OSHA lists ANSI/RIA R15.06-2012 as the U.S. national adoption of ISO 10218-1 and ISO 10218-2 for industrial robot and robot system safety requirements. OSHA also notes that many robot accidents occur during non-routine operating conditions—such as programming, maintenance, testing, setup, or adjustment—when workers may temporarily be within the robot’s working envelope. 

Applications and Use Cases

Automotive manufacturing

Automotive production is a major driver of U.S. industrial robotics demand. IFR reported that the automotive industry accounted for 33% of total U.S. installations in 2023, and that automotive installations were 12,421 units (down 15% year over year).  Typical applications include welding, painting, assembly assistance, sealing/dispensing, and inspection.

Metal, machinery, and general industry

Robots are used for welding, cutting, grinding, machine tending, and handling in metal and machinery sectors. IFR reported U.S. installations of 4,171 units in metal and machinery in 2023 (up 8%).

Electrical/electronics and precision assembly

Electronics and electrical equipment manufacturing uses robots for assembly, testing, and inspection. IFR reported U.S. electrical/electronics installations of 3,900 units in 2023 (up 1%). 

Warehousing and fulfillment

Robotics adoption in U.S. logistics includes AMRs for transport, robotic picking systems, automated storage and retrieval, palletizing cells, and sortation automation. These systems aim to reduce walking time, stabilize throughput, and improve safety by limiting manual movement of heavy loads and repetitive tasks.

Public safety, inspection, and disaster response

U.S. agencies and research groups have supported robotics for hazardous and degraded environments. The DARPA Robotics Challenge (DRC) was designed to advance human-supervised ground robots capable of executing complex tasks in dangerous, human-engineered environments, such as operating tools and navigating obstacles.  NIST has also developed and maintained standard test methods and performance metrics for emergency response robots, covering mobility, manipulation, sensors, communications, operator proficiency, logistics, and safety. 

Advantages / Benefits

Robotics in the United States is adopted to improve productivity, resilience, and safety outcomes:

• Higher throughput and consistency: robots can sustain repeatable cycle times and precision in high-volume operations.

• Quality and traceability: integrated sensing and inspection can reduce defects and support data capture for compliance and analytics.

• Workplace safety and ergonomics: robots can reduce exposure to repetitive strain, high heat, fumes, sharp tools, and heavy lifting; incident risk is often concentrated in non-routine conditions, reinforcing the importance of safeguarding and procedures. 

• Operational flexibility: cobots and AMRs can be redeployed faster than traditional hard automation, supporting mixed-product lines and variable demand. 

Comparisons (if relevant)

United States within the Americas

Across the Americas, IFR reported 55,389 industrial robot installations in 2023, exceeding 50,000 for the third consecutive year; the U.S. accounted for 68% of the region’s installations. This highlights the U.S. as the dominant industrial robot market in the region by annual volume.

United States within the global market

IFR’s executive summary reported that the U.S. accounted for 7% of global installations in 2023 and ranked third worldwide in annual installations, behind larger installation volumes in parts of Asia. 

Pricing and Availability

Robot pricing in the United States varies widely by category and integration scope. Buyers typically evaluate total cost of ownership (TCO) and payback rather than robot unit price alone.

Common cost drivers

• Robot type (industrial arm, cobot, AMR), payload/reach, and duty cycle

• End-of-arm tooling, machine vision, and quality inspection integration

• Safety engineering (risk assessment, safeguarding, validation, documentation) aligned with U.S./ISO frameworks.

• Integration with PLCs, MES/WMS systems, and facility workflows

Market availability signals

Quarterly market reporting can indicate demand and mix shifts. A3 reported 9,064 robot orders valued at $580.7 million in Q1 2025 in North America, and separately reported 1,052 collaborative robot orders valued at $39.2 million in Q1 2025, reflecting both general automation demand and segment-specific activity. 

FAQ Section 

What is Robots United States?

Robots United States refers to the robotics ecosystem in the U.S., including industrial robots for manufacturing, collaborative robots for flexible production, and mobile/service robots used in logistics, healthcare, inspection, and public safety.

How does Robots United States work?

Robots in the U.S. work through integrated systems combining mechanical hardware (arms or mobile bases), sensors (vision, force, safety scanners), and control software that plans motion and executes tasks—often connected to factory or warehouse systems for scheduling, traceability, and reporting.

Why is Robots United States important?

Robots United States is important because automation supports productivity, quality consistency, and workplace safety, while enabling advanced capabilities for hazardous environments and modern logistics. OSHA also emphasizes the importance of controls for non-routine activities such as programming and maintenance. 

Where can I buy Robots United States solutions?

Robotics solutions in the U.S. are commonly purchased from robot manufacturers, authorized distributors, and system integrators that deliver turnkey deployments (robot, tooling, safety, and software). Buyers often prioritize integration expertise, local service coverage, and safety compliance practices aligned with ANSI/RIA and ISO frameworks. 

What are the benefits of Robots United States?

Common benefits include higher throughput, repeatable precision, improved inspection and traceability, reduced exposure to hazardous or repetitive tasks, and greater flexibility—especially with cobots and AMR fleets in operations that change frequently. 

References / External Links (optional)

• International Federation of Robotics (IFR): U.S. and Americas installation statistics; U.S. share of Americas; sector breakdown

• OSHA Robotics: standards and safety overview (ANSI/RIA R15.06 as U.S. adoption of ISO 10218; non-routine accident risk) 

• A3 (Association for Advancing Automation): North American robot orders and collaborative robot tracking 

• DARPA Robotics Challenge program overview darpa.mil

• NIST standard test methods for emergency response robots.

Summary

Robots in the United States comprise a broad ecosystem spanning industrial robot cells in automotive and general manufacturing, collaborative robots for flexible production, and mobile/service robots powering modern logistics and specialized field applications. With the U.S. accounting for the majority share of industrial robot installations in the Americas and maintaining a significant role in global installation rankings, robotics continues to shape U.S. competitiveness, safety practices, and innovation across manufacturing, warehousing, and mission-driven robotics programs.