humanoid

Dobot Atom 2 — Specs, Price & Where to Buy (2026)

The Dobot Atom 2 is a humanoid robot made by DOBOT Robotics in Shenzhen, China. Price: ~$27,500 USD (estimated). Key specs: 41 degrees of freedom, 153 cm height, 62 kg weight. The robot is announced but not yet commercially available, with no confirmed release date.

💰Price
$27,500
📅First Built
2025
🌍Origin
CN
📏Height
153 cm
⚖️Weight
62 kg
🦾Degrees of freedom
41
🏃Max speed
3 km/h
📦Payload
5 kg
🔋Battery
Not specified
🛒Availability
Not available

What is the Dobot Atom 2?

The Dobot Atom 2 is a full-size bipedal humanoid robot developed by Shenzhen-based DOBOT Robotics, known for their collaborative robot arms. Standing 1.53 meters tall and weighing 62 kg, it integrates 41 degrees of freedom for dexterous manipulation and bipedal locomotion. Designed primarily for education and research, it can perform light assembly, pick-and-place, and drawing tasks. The robot features an Intel RealSense depth camera and Full HD RGB camera for perception. Unlike many competitors, it uses a tabletop mounting option, which may limit mobility in some settings but simplifies lab integration. DOBOT has not yet disclosed a release date or final pricing, placing it in the pre-commercial prototype stage.

Specifications

Here are the full technical specifications.

SpecValue
Height1530 mm
Weight62 kg
Degrees of freedom41
Battery lifeNot specified (2.3 kWh battery)
Max speed3 km/h
Payload5 kg (per arm)
Price (new)~$27,500 (estimated)
Price (used range)N/A (pre-commercial)

Price & Value

New MSRP: ~$27,500 (estimated)

Used range: N/A

The estimated $27,500 price positions the Atom 2 as a compelling research platform in the sub-$30,000 humanoid market. Compared to the shipping Unitree G1 ($16,000), the Atom offers substantially more degrees of freedom (41 vs. configurable 23–43) and a higher payload, but its prototype status introduces risk. Institutions should budget for integration and potential delays; DOBOT has not announced support terms or maintenance costs. Depreciation is unpredictable—first-generation products often lose value quickly once production stabilizes. For a pre-commercial system, the spec-to-price ratio is attractive, but total cost of ownership remains uncertain without published runtime, reliability data, and aftermarket parts availability.

Who Is It For?

Best for: - University robotics labs requiring a mid-cost humanoid for dexterous manipulation research (41 DOF enables advanced hand articulation) - Educational institutions seeking a platform for bipedal locomotion and camera-based perception tasks

Not for: - Production environments needing proven reliability and immediate availability (no commercial deployment track record) - Budget-constrained hobbyists (the $27.5k price and limited support make it impractical for individuals)

Alternatives & Comparison

In the emerging sub-$30,000 humanoid market, the Dobot Atom 2 competes with other research platforms like the Unitree G1 and UBTECH Walker S, each with distinct trade-offs.

ModelPriceAvailableKey Difference
Unitree G1~$16,000yesLighter, cheaper, and currently shipping; fewer DOF (configurable 23–43) and smaller payload
UBTECH Walker SUndisclosed (est. >$100,000)enterprise-onlyLarger, stronger, and aimed at industrial service; far more expensive and out of reach for most academic labs
Fourier GR-1~$100,000 (est.)preorderDesigned for healthcare and exoskeleton research; higher payload but significantly more costly

Verdict: For labs prioritizing affordability and immediate availability, the Unitree G1 remains the safer bet. However, if your research demands high dexterity (41 DOF) and you can wait for production to ramp, the Atom 2's estimated price-to-spec ratio could be very compelling. Avoid the Walker S or GR-1 unless you have a six-figure budget and industrial-grade requirements.

Use Cases & Capabilities

Education

The Atom 2 provides a rich platform for teaching humanoid robotics courses. Students can program bipedal gait, arm kinematics, and vision-based grasping in a safe, controlled environment. Its tabletop mounting simplifies lab setup compared to floor-standing models. The robot’s 41 DOF allow for complex motion planning assignments, though instructors must factor in that the battery life is unspecified, limiting untethered exercises. Additionally, the lack of a shipping date means curricula must remain flexible.

Dexterous Manipulation Research

With a 5 kg payload per arm and high DOF, the Atom 2 is suited for experiments in object manipulation and tool use. The integrated Intel RealSense camera enables precise grasping with visual feedback. Researchers can explore challenges like force-controlled assembly, but should verify the repeatability and reliability of the articulated hands, as those specifications are not public. The robot's tabletop mounting may also restrict some mobile manipulation scenarios that require ground clearance.

Light Assembly Demonstrations

DOBOT’s industrial arm background suggests the Atom 2 could handle light assembly tasks like sorting or simple part insertion. The robot’s height and reach are adequate for tabletop workcells. However, without certified safety standards or published runtime, prolonged autonomous operation in a factory-like setting is not yet feasible. It remains a demonstration concept rather than a production machine, suitable for trade shows and early-stage R&D but not for continuous manufacturing workflows.

History & Background

DOBOT Robotics was founded in 2015 in Shenzhen, China, and quickly made a name in the desktop cobot market. The company announced its entry into humanoid robotics with the Atom series in 2024, showcasing a prototype of the Atom 2 (also referred to simply as 'Atom') as a compact, education-focused bipedal robot. This marks a significant expansion from their tabletop arm business, leveraging their existing motion control expertise. As of early 2026, the Atom 2 remains at the prototype stage with no official release date or commercial sales; the company has not yet disclosed production plans or pricing details beyond initial estimates. Meanwhile, the larger Atom Max variant was also teased, offering increased height, payload, and battery runtime for research labs and potentially industrial pilots.

Buying Used — What to Check

Verify actual battery runtime Unspecified runtime could limit untethered use; real-world data from early adopters is crucial before purchase.

Test payload stability in manipulation While rated at 5 kg per arm, repeatability and holding force may differ in real tasks.

Confirm spare parts and software updates As a new product line, long-term support and parts availability are unknown.

Frequently Asked Questions

The estimated new price is ~$27,500 USD, based on early announcements and comparisons to the base Atom model. This is an estimate and subject to change once commercial sales begin.
It supports bipedal walking, dexterous manipulation (41 DOF), object grasping, pick-and-place, drawing, and light assembly tasks. Its built-in Intel RealSense camera enables color and depth perception for autonomous operations.
No, it is currently in the prototype stage (announced). There is no release date or ordering channel. Interested parties can contact DOBOT Robotics directly for potential pilot programs.
The Atom 2 has more DOF (41 vs. 23–43 configurable) and a higher arm payload (5 kg vs. ~3 kg), but the G1 is cheaper at ~$16,000, lighter, and shipping now. The Atom 2 may offer better dexterity; the G1 wins on price and availability.
Height: 153 cm, weight: 62 kg, degrees of freedom: 41, payload: 5 kg per arm, max speed: 3 km/h, battery: 2.3 kWh (runtime not disclosed). No safety or IP rating published.
It is manufactured by DOBOT Robotics, a Chinese company founded in 2015 and headquartered in Shenzhen. They are best known for their collaborative robot arms used in education and light industry.
DOBOT has not published a runtime figure. The robot carries a 2.3 kWh battery; charging time and operational hours remain undisclosed. Buyers should assume tethered use may be needed for prolonged tasks.
Primarily education and research. It may have future applications in light assembly and demonstration settings, but it is not yet ready for industrial deployment.

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