Commercial model
Pricing not listed
A price is not listed for the FF Faber. Commercial pricing has not been publicly disclosed; Faraday Future directs buyers to contact the company for Faber deployment options.
Robot dossier
Verified Jul 12, 2026FF Faber
Height
1225–1700 mm
Battery
>2 hours on 720 Wh configuration; >4 hours on 1652 Wh configuration
Speed
up to 1.5 m/s
Payload
Official product page lists 3.5-15 kg per arm depending on configuration; launch release describes up to 11 lb single-arm lift
FF Faber is Faraday Future's industrial-grade EAI mobile manipulator series, launched at Automate in Chicago on June 22, 2026. It combines an autonomous mobile base with dual robotic arms so it can move between workstations and perform loading, unloading, material handling, sorting, inspection, retail assistance, and research or education tasks. Faraday Future describes Faber as using its VLA + World Model-based EAI brain with autonomous navigation, omnidirectional mobility, dual-arm coordination, precision force control, and an open platform for customer-specific skills and industrial solutions. Public official materials describe three submodels: Faber T for industrial dexterity, Faber U for perception and compute, and Faber S for omnidirectional mobility.
Listed price
Price TBA
Commercial pricing has not been publicly disclosed; Faraday Future directs buyers to contact the company for Faber deployment options.
Release window
Jun 22, 2026
Current status
Available
Faraday Future
Last verified
Jul 12, 2026
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Technical overview
A fast read on the mechanical profile, sensing package, and listed platform details for FF Faber.
Height
1225–1700 mm
Weight
88.5 kg for the industrial-dexterity configuration; 185 kg for the perception-and-compute configuration; Faber S weight not publicly disclosed
Dimensions
Workspace up to 0-1.8 m; launch release describes operation from ground level to about 6.6 ft
Battery Life
>2 hours on 720 Wh configuration; >4 hours on 1652 Wh configuration
Charging Time
Not officially disclosed
Max Speed
up to 1.5 m/s
Degrees of Freedom
26-35 DOF depending on configuration
Payload
Official product page lists 3.5-15 kg per arm depending on configuration; launch release describes up to 11 lb single-arm lift
Operational profile
Capabilities
12
Connectivity
2
Key capabilities
Listed platforms & ecosystem
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The FF Faber is a Commercial robot built by Faraday Future. FF Faber is Faraday Future's industrial-grade EAI mobile manipulator series, launched at Automate in Chicago on June 22, 2026. It combines an autonomous mobile base with dual robotic arms so it can move between workstations and perform loading, unloading, material handling, sorting, inspection, retail assistance, and research or education tasks. Faraday Future describes Faber as using its VLA + World Model-based EAI brain with autonomous navigation, omnidirectional mobility, dual-arm coordination, precision force control, and an open platform for customer-specific skills and industrial solutions. Public official materials describe three submodels: Faber T for industrial dexterity, Faber U for perception and compute, and Faber S for omnidirectional mobility.
A price is not listed for the FF Faber. Commercial pricing has not been publicly disclosed; Faraday Future directs buyers to contact the company for Faber deployment options. See all Faraday Future robots on the Faraday Future page.
Detailed specifications for the FF Faber
Height
1225-1700 mm depending on configuration; selected models list adjustable or variant heightsAt 1225-1700 mm depending on configuration; selected models list adjustable or variant heights, the FF Faber is sized for its intended operating environment and use cases.
Weight
88.5 kg for the industrial-dexterity configuration; 185 kg for the perception-and-compute configuration; Faber S weight not publicly disclosedWeighing 88.5 kg for the industrial-dexterity configuration; 185 kg for the perception-and-compute configuration; Faber S weight not publicly disclosed, the FF Faber balances structural integrity with portability and maneuverability.
Dimensions
Workspace up to 0-1.8 m; launch release describes operation from ground level to about 6.6 ftThe overall dimensions of Workspace up to 0-1.8 m; launch release describes operation from ground level to about 6.6 ft define the robot's physical footprint and determine what spaces it can navigate and what clearances it requires for operation.
Battery Life
>2 hours on 720 Wh configuration; >4 hours on 1652 Wh configurationWith a battery life of >2 hours on 720 Wh configuration; >4 hours on 1652 Wh configuration, the FF Faber can operate for sustained periods before requiring a recharge. Battery life is measured under typical operating conditions and may vary based on workload intensity and environmental factors.
Maximum Speed
Up to 1.5 m/s on the omnidirectional mobility configurationA top speed of Up to 1.5 m/s on the omnidirectional mobility configuration is calibrated for the robot's primary operating environment and safety requirements.
Degrees of Freedom
26-35 DOF depending on configurationWith 26-35 DOF depending on configuration, the FF Faber has a motion envelope shaped by its joint layout and whole-body control system.
Payload Capacity
Official product page lists 3.5-15 kg per arm depending on configuration; launch release describes up to 11 lb single-arm liftA payload capacity of Official product page lists 3.5-15 kg per arm depending on configuration; launch release describes up to 11 lb single-arm lift determines what the robot can carry or manipulate. This is a critical spec for delivery and transport tasks, defining the weight of items the robot can move.
AI Platform
VLA + World Model EAI brain; public specs list 200 TOPS, 275 TOPS, and 500-2070 TOPS compute configurationsThe AI entry recorded for the FF Faber is VLA + World Model EAI brain; public specs list 200 TOPS, 275 TOPS, and 500-2070 TOPS compute configurations. Read this alongside the model description and source notes for announcement or deployment context. A platform name alone does not establish implemented features, autonomy, or performance.
The profile lists the sensor descriptions below. These entries do not establish physical sensor counts, sensor fusion, redundancy, or performance.
Consult the linked profile sources for hardware configuration and tested behavior. A technology label alone does not verify an operating capability.
Explore sensor technologies: components glossary · full components directory
Commercial robots handle tasks in business environments — delivering food in restaurants, guiding visitors in hotels, transporting supplies in hospitals, and moving inventory in warehouses. Their value is measured in operational efficiency, labor cost savings, and improved service consistency.
The FF Faber record lists 12 capabilities. Keep any announcement or demonstration qualifiers attached to these entries; the count alone does not establish practical performance.
These are the capabilities listed in the profile. Hardware configuration and demonstrated performance should be checked against the linked sources.
These are the platforms, communities, or ecosystem relationships listed in the profile. A listed name or protocol alone does not confirm home-device interoperability or automation support.
12
Capabilities
AI
VLA + World Model EAI brain…
The FF Faber profile lists the following communication and voice-system descriptions.
The FF Faber by Faraday Future has the following technology descriptions in its profile. The physical platform features a height of 1225-1700 mm depending on configuration; selected models list adjustable or variant heights, a weight of 88.5 kg for the industrial-dexterity configuration; 185 kg for the perception-and-compute configuration; Faber S weight not publicly disclosed, a top speed of Up to 1.5 m/s on the omnidirectional mobility configuration, providing the foundation on which this technology stack operates.
The profile lists Dual 3D LiDAR (Faber U), RGB-D cameras, Fisheye cameras, Stereo cameras, Multi-camera sensing system. Hardware quantities, integration, and tested behavior require separate source evidence.
The connectivity descriptions listed for the FF Faber are FF EAI robotics platform, Customer-specific industrial integrations. Specific services and device interoperability require separate documentation.
Commercial robots are acquired by businesses including restaurants, hotels, hospitals, retail stores, and logistics facilities. Purchasing decisions typically involve operations managers and IT departments evaluating ROI against human labor costs.
Reliability and uptime, navigation in crowded dynamic environments, payload capacity, integration with business systems (POS, inventory management), ease of deployment and maintenance, and total cost of ownership (including service contracts) are the primary factors.
Listed pricing
The FF Faber is listed as Available, indicating a purchase listing. The label does not confirm current stock, regional access, or shipping dates. Check Faraday Future's current ordering terms and the recorded sales notes for details.
Recorded features and considerations to assess
The FF Faber record lists 12 capabilities. Review their qualifiers and supporting evidence for the tasks you need. The number of entries does not establish workflow coverage, reliability, or the ability to replace other robots.
The speed entry is Up to 1.5 m/s on the omnidirectional mobility configuration. Preserve its gait, mode, and comparison qualifiers when comparing models. This figure alone does not establish agility, response time, terrain handling, or safe speed around people.
With a payload capacity of Official product page lists 3.5-15 kg per arm depending on configuration; launch release describes up to 11 lb single-arm lift, the FF Faber can handle meaningful physical tasks. This capacity enables practical applications like carrying tools, transporting materials, or supporting equipment mounts that lighter robots simply cannot accommodate.
The FF Faber is listed as Available, indicating a purchase listing. The label does not confirm current stock, regional access, or shipping dates. Check Faraday Future's current ordering terms and the recorded sales notes for details.
A price is not listed for the FF Faber. Commercial pricing has not been publicly disclosed; Faraday Future directs buyers to contact the company for Faber deployment options.
Note: This strengths and trade-offs assessment is based on the FF Faber's documented specifications as tracked in the ui44 database. Real-world performance depends on deployment conditions, firmware maturity, and environmental factors. For the most current information, check the Faraday Future manufacturer page or visit the official product page. Use the comparison tool to evaluate these trade-offs against competing robots in the same category.
Understanding the engineering behind this category
Commercial robots operate in the demanding intersection of technology and business operations. From restaurant servers to warehouse movers, these robots must perform reliably in dynamic, crowded environments while delivering measurable return on investment. The technology behind commercial robots emphasizes reliability, integration with business systems, and graceful handling of the unpredictable situations that characterize human-occupied commercial spaces.
Commercial robots navigate environments that are significantly more challenging than typical homes — crowded restaurant floors, busy hotel lobbies, and dense warehouse aisles all present unique navigation challenges. These robots typically use LiDAR combined with depth cameras for robust obstacle detection, with special attention to detecting low-height obstacles (children, pets, dropped items) and moving obstacles (people walking unpredictably). Commercial-grade navigation includes fleet coordination — multiple robots sharing maps and position data to avoid congestion and optimize collective efficiency. Elevator integration allows robots to serve multiple floors autonomously.
AI in commercial robots focuses on operational efficiency and customer interaction. Route optimization minimizes delivery times in restaurants. Task prioritization ensures urgent orders are handled first. Customer-facing AI must handle natural language interaction in noisy environments, provide useful information, and maintain a professional and brand-appropriate demeanor. Back-end AI integrates with business systems — restaurant POS (Point of Sale), hotel PMS (Property Management System), warehouse WMS (Warehouse Management System) — to receive tasks and report completions automatically. Predictive AI anticipates demand patterns, pre-positioning robots where they will be needed based on historical data.
Commercial robots combine navigation sensors (LiDAR, cameras, ultrasonic) with application-specific sensors. Restaurant delivery robots use weight sensors to confirm payload presence and tilt sensors to maintain tray stability. Warehouse robots use barcode or RFID readers for inventory tracking. Hotel robots may include temperature sensors for room-service food. All commercial robots share the need for robust human detection — they must navigate safely around unpredictable human movement while maintaining efficient operation. Edge-case handling is critical: a restaurant robot must correctly respond to a child running into its path, a guest stepping backward without looking, or a server carrying a full tray through a narrow aisle.
Commercial operations demand high uptime, making power management a business-critical concern. Robots serving during peak hours cannot afford lengthy charging breaks. Solutions include fast-charging docks positioned at strategic locations, hot-swappable battery packs for zero-downtime operation, and intelligent charging schedules that top up during naturally low-demand periods. Fleet management systems monitor battery levels across all robots and redistribute tasks to ensure no single robot runs critically low during service. Power consumption monitoring also feeds into TCO (Total Cost of Ownership) calculations that businesses use to evaluate robot deployment ROI.
Commercial robots operate in regulated business environments with specific safety requirements. Food-handling robots must meet hygiene standards. Robots in public spaces must comply with accessibility requirements, avoiding blocking wheelchair paths or emergency exits. Speed limits are typically set below walking pace in pedestrian areas. Visual and audio signals indicate the robot's presence and intent — lights, gentle sounds, or voice announcements warn nearby people. Payload security ensures items being transported cannot fall. In warehouse environments, safety zones around humans trigger automatic speed reduction or stopping. Integration with building fire alarm and evacuation systems ensures robots do not obstruct emergency procedures.
Commercial robotics is moving toward greater specialization and deeper business system integration. Rather than general-purpose commercial platforms, expect more robots designed specifically for restaurant table service, hotel room delivery, warehouse aisle picking, or retail shelf scanning. Fleet orchestration — coordinating dozens of robots across a large facility — will become more sophisticated. The business model is also evolving, with Robotics-as-a-Service (RaaS) subscriptions replacing upfront purchases, lowering the barrier to adoption for small and medium businesses.
These are category-level technology examples; they do not establish the capabilities of the FF Faber. For its recorded hardware details, see the sensor analysis and connectivity sections above. Check model-specific documentation from Faraday Future for supported behavior, or use the components glossary to look up terminology.
How this robot compares in the commercial landscape
A price is not listed for the FF Faber. Commercial pricing has not been publicly disclosed; Faraday Future directs buyers to contact the company for Faber deployment options.
The FF Faber is listed as Available, indicating a purchase listing. The label does not confirm current stock, regional access, or shipping dates. Check Faraday Future's current ordering terms and the recorded sales notes for details.
Side-by-side specs, capability overlap analysis, and key differentiators.
For the full picture of Faraday Future's portfolio and market strategy, visit the Faraday Future manufacturer page.
What the public profile tells you, and what still needs direct vendor confirmation
From a buying and rollout perspective, the FF Faber should be read as a commercial platform aimed at service operations that need predictable task throughput. ui44 currently tracks 12 capability signals and a last verification date of 2026-07-12. That mix gives buyers a useful first-pass picture, but it is still only the public layer of due diligence, especially when procurement, uptime, and support commitments are decided directly with Faraday Future.
Commercial model
Pricing not listed
A price is not listed for the FF Faber. Commercial pricing has not been publicly disclosed; Faraday Future directs buyers to contact the company for Faber deployment options.
Integration posture
2 connectivity options
The profile lists FF EAI robotics platform, Customer-specific industrial integrations, plus VLA + World Model EAI brain; public specs list 200 TOPS, 275 TOPS, and 500-2070 TOPS compute configurations as the AI description. These labels do not establish APIs, fleet-management features, or workflow integration. These are the platforms, communities, or ecosystem relationships listed in the profile. A listed name or protocol alone does not confirm home-device interoperability or automation support.
Spec disclosure
5/7 core specs public
ui44 currently has 5 of 7 core physical and operating specs filled in for this model, leaving 2 gaps that matter for deployment planning. Missing runtime, charge, speed, or payload details can materially change staffing and site-readiness assumptions.
The current profile is detailed enough to support early comparison work, shortlist creation, and cross-checking against other commercial robots. It is still worth validating the final deployment package, because integration services, support coverage, software entitlements, and site-preparation requirements often sit outside the raw hardware spec sheet.
If you want a faster apples-to-apples read, compare the FF Faber against nearby alternatives in ui44's compare view, then cross-check the underlying AI, sensor, and subsystem terms in the components glossary. For manufacturer-level context, the Faraday Future profile helps anchor this robot inside the wider product lineup.
Practical guide from day one through years of ownership
Commercial robot deployment is a project, not just a setup. Begin with a site assessment covering floor plans, traffic patterns, integration requirements, and staff training needs. Map the operating environment with the robot, marking restricted areas, service points, and charging stations. Integrate with business systems — POS for restaurants, PMS for hotels, WMS for warehouses. Train staff on robot interaction, troubleshooting, and emergency procedures. Run a supervised pilot period before transitioning to full autonomous operation. Gather and address staff and customer feedback during the pilot to optimize the deployment before scaling.
Commercial robots earn their keep through consistent operation, making maintenance an operational priority rather than an afterthought. Establish daily visual inspection routines for operations staff. Schedule weekly maintenance windows for thorough cleaning, sensor calibration, and software updates. Track key performance indicators — delivery times, task completion rates, customer feedback — to detect performance degradation before it becomes noticeable. For food-handling robots, follow strict hygiene protocols including regular sanitization of tray surfaces and contact points. Multi-robot deployments benefit from staggered maintenance schedules to maintain coverage.
Commercial robot updates can add new capabilities, improve navigation in your specific environment, and fix operational edge cases. The manufacturer may release updates based on fleet-wide learning — improvements discovered at one deployment benefiting all customers. Test significant updates during low-traffic periods before deploying to your full fleet. Keep communication channels open with your robot vendor's support team to provide feedback that can drive improvement in future updates.
Commercial robots in daily operation can last three to five years or more with proper care. The primary wear items are wheels, motors, and batteries. Maintain a spare parts inventory for consumables to minimize downtime. Track operating hours and correlate with maintenance needs to develop predictive maintenance schedules specific to your deployment conditions. Consider the total cost of ownership over the deployment lifetime when evaluating robot vendors — the cheapest robot up front may cost more over five years if parts are expensive or support is limited.
Find product and source links on the Faraday Future page on ui44 or open Faraday Future's product page. Use model-specific manufacturer documentation for setup, cleaning, and service instructions.
The FF Faber record brings together the listed specifications and attributed claims. Consult the model description and source notes to distinguish manufacturer announcements, reported information, and unknowns. A source link or review date does not establish independent testing or manufacturer confirmation of every claim. Record last checked: 2026-07-12. Official source: Faraday Future product page. If you find outdated or incorrect information, please let us know — accuracy is our top priority.
See how the FF Faber stacks up — compare specs, browse the commercial category, or search the full database.