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JACO Assistive Robot
Kinova Robotics
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JACO Assistive Robot
Kinova RoboticsThe JACO Assistive Robot is a wheelchair-mountable robotic arm manufactured by Kinova (Canada) with 6 degrees of freedom, a 900 mm reach, and a 1.3–1.6 kg payload capacity. It is designed for individuals with severe upper limb mobility limitations (e.g., muscular dystrophy, quadriplegia, ALS) and enables activities of daily living such as eating, grooming, and medication management. The arm is controlled entirely by the user via compatible wheelchair input devices (joystick, sip-and-puff, head array, etc.), meaning the human user performs the task by driving the arm — it does not operate autonomously. Insurance coverage status is mixed: it is a covered Medi-Cal benefit as of September 2024 but classified as Experimental/Investigational by at least one major insurer. Kinova is also a lead partner in a $41M ARPA-H initiative (RAMMP) aimed at developing a next-generation smart wheelchair and robotic arm platform.
Availability
Specification
- degrees of freedom
- 6
- max reach
- 900 mm
- max payload
- 1.3 kg (full-reach peak, temporary); 1.6 kg (mid-range continuous)
- max speed
- 20 cm/s
- weight
- 5.4 kg
- power
- 18–29 VDC (24V nominal); 25W average, 5W standby, 100W peak
Price
No public price — contact the supplier for a quote.
Good · Bad · Ugly
Evidence-graded claims from the Kinova Robotics deep report
Kinova is the lead robotic arm technology partner in the $41M ARPA-H RAMMP project, building a smart power wheelchair + robotic arm system for people with physical disabilities over a 5-year R&D initiative.
Source [6] (Surgical Robotics Technology, an independent trade publication) independently reports Kinova's named role and the $41M ARPA-H award, though the outcome remains a future R&D goal — no deployed assistive autonomy capability has yet been demonstrated.
from Kinova Robotics deep report →Kinova has raised over $108M in total funding ($48M round + $60M round), with the $60M round closed in February 2022, backed by Graham Partners, EDC, and the Government of Canada's Strategic Innovation Fund.
Sources [3][7][8] — including Robot Report (trade press) and two separate newswire press releases — independently corroborate both funding rounds and named investors, though press releases [7][8] are company-issued and the strategic use of funds remains unverified by independent audit.
from Kinova Robotics deep report →
Kinova Gen3 is deployed at hundreds of universities, startups, and corporations across medical, assistive, research/education, and industrial automation markets.
The 'hundreds of customers' figure originates from sources [1] and [5] (a comparison blog and a cobot review aggregator), neither of which is an independent audit or customer-verified count — no third-party deployment census or named customer list substantiates the scale claim.
from Kinova Robotics deep report →The Gen3 robotic arm features 7 degrees of freedom, ~4 kg (8.8 lb) payload, ~902 mm (35-inch) reach, 1 kHz closed-loop control, infinite joint rotation, and IP54 rating.
These specs are consistently cited across commerce/review sources [1][2][4][5], but all trace back to vendor-supplied datasheets; no independent laboratory test or third-party benchmark has verified payload, reach, or control-loop performance under real operating conditions.
from Kinova Robotics deep report →The Gen3 supports official ROS2 integration via the ros2_kortex package, making it suitable for research and mobile robotics applications.
ROS2 support via ros2_kortex is confirmed by [1] and [5], but community discussion [10][12] flags real-world ROS dependency and version-compatibility issues that can undermine practical usability; no independent integration benchmark or user study validates the claim of seamless suitability.
from Kinova Robotics deep report →
Kinova's teleoperation capability is limited to VR/joystick input only, with no native matched leader arm, and bimanual data collection is not standard — requiring custom pipelines for HDF5/RLDS export.
Source [1] (a comparison blog, not an independent test) documents these limitations, and they directly contradict any marketing positioning of the Gen3 as a turnkey AI/imitation-learning data-collection platform — the arm lacks the native leader-follower and data-export infrastructure that competing platforms (e.g., Franka, LeRobot-compatible arms) provide out of the box.
from Kinova Robotics deep report →The Gen3 arm is described as suitable for autonomous operation or possesses 'industry-leading route-selection accuracy' as an autonomous system.
The dossier's conflict analysis confirms this 'autonomy' claim was extracted in error from an unrelated NIO automotive subreddit post [11] — it has zero evidentiary connection to Kinova Robotics, and the arm itself has no documented autonomous task-execution capability independent of user-supplied software.
from Kinova Robotics deep report →The Gen3's demo throughput for AI/imitation-learning benchmarks is only 10–20 demonstrations per hour on L2 tasks, and it is not yet supported by the LeRobot framework.
Source [1] (a comparison blog) reports these figures, but they represent a significant practical limitation for labs pursuing modern robot learning workflows — the combination of low demo throughput and absent LeRobot support directly undercuts any positioning of the Gen3 as a competitive AI-training platform, yet this limitation is absent from Kinova's own promotional materials.
from Kinova Robotics deep report →
About the company
Editorial directory of real robot products from leading global manufacturers. Each entry links to the manufacturer's official page.
