CHINA-ROBOTS

AGIBOT

Technical Due Diligence & Trust Report

AgiBot — Expedition A2 Ultra

Full-Size Commercial Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The AgiBot Expedition A2 Ultra is a full-size humanoid robot platform developed by AgiBot Innovation, also known as Zhiyuan Robotics, for public-facing service, exhibition, reception, entertainment, and embodied AI applications.

Unlike smaller research humanoids, the A2 Ultra is positioned as a commercially scalable humanoid platform with integrated interaction features, autonomous navigation, multi-sensor perception, dexterous hands, and swarm/performance control tools.

Official Use Cases:

Exhibition Hall Guidance
Reception & Visitor Interaction
Brand Ambassador Applications
Commercial Performance & Entertainment
Embodied AI and Service Robotics Development

Commercial Availability:
The AgiBot A2 Ultra is commercially available through official inquiry channels and authorized robotics distributors. RobotShop lists the A2 Ultra as an on-demand professional humanoid robot with a public distributor price and request-a-quote option. Direct procurement should be treated as a configuration-specific enterprise purchase.

B) Key Facts

Category	AgiBot Expedition A2 Ultra	Notes
Manufacturer	AgiBot Innovation / Zhiyuan Robotics	China
Model	Expedition A2 Ultra	Full-size humanoid
Height	169 cm	Manufacturer-stated
Dimensions	169 × 75 × 30 cm	H × W × L
Weight	~69 kg	Manufacturer-stated
Degrees of Freedom	40 DOF	Full-body platform
Neck DoF	2	Human-like head orientation
Arm DoF	7 per arm	Advanced upper-body motion
Leg DoF	6 per leg	Bipedal locomotion
Hand DoF	6 per hand	Dexterous hands
Peak Knee Torque	270 N·m	Manufacturer-stated
Walking Speed	Up to 1.2 m/s	Scenario dependent
Arm Payload	~2 kg	Rated arm load
Sensors	3D LiDAR, RGB-D, RGB, fisheye cameras	Multi-sensor perception
Communication	Wi-Fi, 4G/5G	Model/configuration dependent
Battery	14.4 Ah	Swappable battery
Runtime	~3 h standing / 1.5 h+ walking	Usage dependent
Charging Time	~2 h	Fast charging supported
Compute	16-core CPU + NVIDIA Jetson AGX Orin 64G	A2 Ultra configuration
SDK / Software	AimDK, AimMaster, Link-U-OS / AimRT	Development ecosystem
ROS 2 Support	Supported via AimRT / ROS2 message format	Developer environment
IP Rating	Joint module IP5X	Overall body IP rating not fully confirmed
Commercial Status	Available / On-demand / Quote	Distributor and inquiry based

C) Capabilities & Limits

Verified Capabilities (Can):

Full-size humanoid interaction for reception, guided tours, exhibitions, and public-facing service scenarios.
Autonomous navigation and obstacle avoidance using LiDAR, RGB-D, RGB, and fisheye camera perception.
Human-like interaction through facial display, microphone array, speakers, configurable knowledge base, wake words, voice, and persona settings.
Commercial performance and multi-unit choreography through configurable action sequences and swarm control tools.
Dexterous manipulation through dual 6-DoF hands and rated light-object handling.
Hot-swappable battery design and fast charging support for longer event or venue operations.
Developer support through AgiBot’s software ecosystem, including AimDK, AimRT, Link-U-OS, and ROS 2-compatible message formats.

Known Constraints (Limits):

The A2 Ultra is optimized for interaction, guidance, performance, and light service tasks — not heavy industrial material handling.
Rated arm load is approximately 2 kg, which limits use in logistics, manufacturing, and heavy manipulation scenarios.
Walking runtime is significantly shorter than standing runtime and should be planned carefully for public events.
The joint modules are listed as IP5X, but the overall body protection level is not fully confirmed; outdoor or wet operation should not be assumed.
Autonomous navigation requires suitable floor conditions, controlled routes, and enough passage width for safe operation.
Certification claims do not remove the need for a site-specific risk assessment before public or enterprise deployment.
Warranty, service level, spare-part availability, and regional support must be confirmed in the final purchase quotation.

D) Operational Trust & Commercial Reality

Known Concerns:

The A2 Ultra is a network-connected humanoid platform using Wi-Fi and mobile connectivity options.
Facial recognition, microphone input, visual perception, and configurable interaction systems create privacy and data-governance obligations.
Public-facing deployments may involve personal data, especially in reception, guided-tour, and brand-ambassador scenarios.
Advanced interaction features, cloud services, software packages, and knowledge-base integrations may depend on configuration and licensing.

Operational Recommendations:

Request a clear data-processing and storage statement before activating facial recognition or customer interaction features.
Use segmented enterprise networks for venue, university, or corporate deployments.
Clarify whether local-only operation is possible for the intended use case.
Confirm software licensing, update policy, and access to development tools before purchase.
Verify the final robot configuration, hand type, compute package, warranty terms, and service route in writing.
Use supervised operation in public spaces, especially during movement, performance, or guided-tour scenarios.

Safety Status:
The A2 Ultra should be treated as a commercially available humanoid service and interaction platform, not as a fully unrestricted collaborative industrial robot. Public deployments should include trained operators, safety procedures, emergency-stop access, and controlled operating zones.

Commercial Reality

The AgiBot A2 Ultra is one of the more mature commercial humanoid platforms currently positioned for public-facing interaction, guided service, brand activation, and entertainment use.

Commercial Position:

Full-size commercial humanoid
Reception and guide robot
Brand ambassador platform
Entertainment and performance robot
Embodied AI service platform
Research and development platform for interaction and navigation

Procurement Reality:

The A2 Ultra is available through official inquiry and authorized distributor channels.
RobotShop lists the model as an on-demand professional humanoid with request-a-quote access.
Public distributor pricing may include regional handling, tariffs, and logistics, but final delivered cost depends on configuration and location.
Accessories such as teleoperation kits, additional hands, tactile hands, and grippers may significantly change the total project cost.
Enterprise buyers should request a signed configuration sheet, support terms, spare-part policy, software access scope, and warranty details before purchase.

E) BotReburn Trust Note

The AgiBot Expedition A2 Ultra is a high-priority BotReburn platform because it combines commercial availability, full-size humanoid form, public interaction features, autonomous navigation, and visible scaling toward real-world service deployments.

For future resale, refurbishment, and verification, the most important checks will be:

Exact model identification: A2 Ultra vs A2 Lite vs A2-W.
Verification of hands: standard dexterous hands, tactile hands, or alternate end-effectors.
Battery health, charging behavior, and hot-swap battery condition.
LiDAR, RGB-D, RGB, fisheye camera, microphone, display, and speaker function.
Joint wear, knee actuator condition, balance behavior, and walking stability.
Firmware version, software package, licensing status, and OTA update history.
Data-processing configuration for facial recognition, voice interaction, and knowledge-base features.
Original invoice, distributor record, warranty scope, service history, and configuration sheet.

Second-Life Relevance:
The A2 Ultra is considered a strong future second-life candidate for venues, exhibitions, education, public interaction, and brand environments. Its resale value will depend heavily on configuration transparency, sensor condition, battery lifecycle, software access, service documentation, and whether the robot was used mainly for controlled demonstrations or high-frequency public operation.

Technical Due Diligence & Trust Report

AgiBot — A2

Full-Size Commercial Humanoid Family | Last verified: 2026-06-25

A) Short Overview

The AgiBot A2 is a full-size humanoid platform from AGIBOT Innovation, also known as Zhiyuan Robotics. The family includes bipedal service and research configurations as well as larger industrial and wheeled variants. Published configurations combine human-scale interaction, multimodal perception, dexterous manipulation, bipedal locomotion, hot-swappable batteries, and an open developer ecosystem.

For BotReburn, the A2 is a high-interest but configuration-sensitive future secondary-market model. The platform has meaningful commercial scale, established international distribution, and documented public demonstrations. Residual value will depend on exact variant identity, fitted hands and sensors, battery and actuator condition, software rights, conformity documents, support transfer, and a reliable ownership and data-reset process.

Official / Manufacturer-Stated Use Cases

Reception, guided interaction, exhibitions, showrooms, and brand presentations
Embodied-AI, locomotion, manipulation, and human-robot-interaction research
Light service tasks, inspection, and supervised material handling
Entertainment, choreography, teleoperation, and multi-robot demonstrations
Industrial workflows in configuration-specific A2 Max and A2-W variants

Commercial Availability

The A2 family is commercially available through direct and distributor-led acquisition. Public pricing varies substantially by variant, territory, options, integration, and support. Buyers should obtain a signed configuration sheet covering the exact model, dimensions, degrees of freedom, hands, sensors, compute, batteries, accessories, software, commissioning, warranty, conformity documentation, and transfer rights.

B) Key Facts

Category	AgiBot A2 Family	Notes
Manufacturer	AGIBOT Innovation (Shanghai) Technology Co., Ltd.	Also known as Zhiyuan Robotics
Model family	A2 Standard/Lite, A2 Ultra, A2 Max/Max 2, A2-W	Variants must not be valued as equivalent
Form factor	Full-size humanoid; A2-W uses a wheeled base	Standard, Ultra, and Max are bipedal
Height / weight	Approx. 169 cm / 69 kg for Standard and Ultra	Max approx. 175 cm / 85 kg; A2-W approx. 163 cm / 230 kg
Degrees of freedom	More than 40 stated for core configurations	Higher figures are configuration dependent
Perception	LiDAR, RGB-D and stereo cameras, fisheye cameras, microphones, force sensing	Exact sensor count varies by build
Hands	OmniHand and configuration-specific alternatives	Tactile and higher-dexterity options may be available
Walking speed	Up to approx. 1.2 m/s for A2 Ultra	Treat variant and test conditions as controlling
Arm payload	Public figures vary materially	Obtain a task-, reach-, and variant-specific rating
Battery / runtime	Approx. 700 Wh / around 2 hours for bipedal configurations	Hot-swap support; A2-W is listed with 2 kWh and 5+ hours
Compute	Configuration-specific CPU plus NVIDIA edge AI compute	A2 Ultra listings include high-end Jetson compute
Software	Link-U-OS, AimRT, ROS 2-compatible messaging, simulation and AI tools	Confirm delivered licenses and version scope
Connectivity	Wi-Fi, Ethernet, Bluetooth, optional mobile connectivity	Network exposure requires hardening
Ingress protection	Main body IP20; joint modules may be listed as IP5X	Not an all-weather outdoor rating
Commercial status	Commercially available; quote and distributor based	Pricing and delivery scope vary by territory
EU conformity claim	CE-MD and CE-RED are publicly claimed for the A2 series	Obtain the unit-specific declaration and technical scope

Configuration-specific verification is required before purchase, deployment, refurbishment, or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Provide full-size bipedal locomotion, public interaction, autonomous navigation, and supervised service workflows.
Support developer access through an open middleware and messaging ecosystem compatible with modern robotics workflows.
Use multi-camera, LiDAR, audio, inertial, and force-sensing inputs for navigation, interaction, and manipulation research.
Support configuration-specific dexterous hands, teleoperation, multi-robot control, and embodied-AI development.
Use swappable batteries to extend supervised operating sessions and reduce charging downtime.
Demonstrate substantial walking endurance in a documented long-distance public trial, while recognizing that a demonstration is not a general reliability guarantee.

Known Constraints (Limits)

The A2 name covers materially different robots; Standard, Ultra, Max, and A2-W specifications cannot be combined into one assumed configuration.
Published payload, speed, weight, and degree-of-freedom figures vary across configurations and should be controlled by the delivered build sheet.
A human-scale biped can fall, collide, trap fingers, and damage flooring or nearby objects; public operation requires engineered controls and supervision.
Main-body IP20 does not support unprotected wet, dusty, or all-weather deployment.
No complete public model-specific service manual, spare-parts price list, standardized used-unit program, or ownership-transfer workflow was identified.
Manufacturer-stated conformity and safety claims do not replace unit-specific declarations, risk assessment, commissioning, or destination-country requirements.

D) Operational Trust & Commercial Reality

Known Concerns

The A2 combines wireless networking, optional mobile connectivity, cameras, microphones, teleoperation, cloud-connected AI functions, and update mechanisms. These create privacy, identity, remote-access, and software-supply-chain exposure.
Public technical material does not fully define account binding, ownership transfer, local-versus-cloud processing, telemetry retention, encryption, secure boot, firmware signing, or a complete software bill of materials.
A formal vulnerability-reporting process and a defined security-support period are positive signals, but the publicly stated support window appears short relative to the expected service life of an enterprise humanoid.
No publicly confirmed A2-specific vulnerability was identified at the report date; absence of a public vulnerability record is not evidence that the platform is risk free.
Facial, voice, mapping, and interaction data may remain on the unit or associated services unless a documented reset and deletion process is completed.

Operational Recommendations

Segment robot, operator, development, and cloud traffic; restrict administrative interfaces and outbound services to approved systems.
Inventory the exact software, firmware, AI models, accounts, certificates, keys, mobile services, and licenses at intake.
Require a written data-flow description and a secure reset procedure covering images, audio, maps, logs, credentials, user code, and cloud associations.
Archive trusted recovery images, configuration, calibration, software versions, documentation, and checksums before modification.
Rotate credentials, remove prior-owner access, verify update provenance, and recommission the robot in stages after transfer.
Use accessible emergency-stop controls, fall clearance, suitable flooring, trained operators, and a site-specific risk assessment.

Safety Status

The A2 should be treated as a powerful human-scale mobile machine. Manufacturer-stated emergency-stop and safety-architecture features are encouraging, but each delivered unit requires verified safety hardware, stopping behavior, conformity documents, controlled test zones, and task-specific validation before public or industrial use.

Commercial Reality

Commercial Position

Commercial full-size humanoid family with service, research, and industrial variants
Established international distribution and a growing installed base
Open developer ecosystem with meaningful research and integration value
Strong future second-life potential, subject to strict variant and documentation controls

Procurement Reality

Public prices span a wide range and are not directly comparable across variants, territories, accessories, integration packages, or service levels.
A quotation must identify the exact variant, serial number, production revision, hands, sensors, compute, batteries, charger, teleoperation equipment, software, subscriptions, training, warranty, and delivery terms.
Obtain unit-specific conformity declarations and the scope of any safety or radio-equipment claims before EU deployment or resale.
Confirm warranty transfer, repair authority, parts availability, software-support duration, cloud-region availability, account reassignment, and export or import obligations in writing.
Commercial scale supports vendor credibility, but independent long-term fleet data and a standardized secondary-market program remain limited.

E) BotReburn Trust Note

The AgiBot A2 family is highly relevant to BotReburn's future second-life market, but no unit should be valued by the A2 name alone. Exact variant, configuration, legal identity, condition, software state, conformity evidence, and transferable support determine usable value.

Priority Refurbishment and Resale Checks

Serial number, invoice, seller authority, model variant, production revision, ownership chain, and unit-specific conformity documents
Full configuration record covering body type, degrees of freedom, hands, sensors, compute, batteries, accessories, and licensed software
Fall, collision, overload, transport, repair, and modification history; frame, joints, actuators, feet, hands, cables, covers, and thermal behavior
Battery identity, cycles, capacity, balance, swelling, charger, measured runtime, replacement availability, and transport compliance
LiDAR, cameras, microphones, speakers, force sensors, navigation, balance, stopping behavior, teleoperation, and emergency controls
Firmware and software baseline, accounts, keys, cloud associations, data stores, logs, reset evidence, support transfer, spares, manuals, and packaging

Second-Life Relevance

High potential, with strict controls. Prioritize documented bipedal units with clear variant identity, healthy batteries and actuators, complete sensors and hands, reproducible software, verified reset, unit-specific conformity evidence, and transferable service access. Undocumented or mixed-configuration units should be discounted heavily or restricted to specialist refurbishment channels.

Technical Due Diligence & Trust Report

AgiBot — X2 (Lingxi)

Compact Humanoid Interaction & Development Platform | Last verified: 2026-06-25

A) Short Overview

The AgiBot X2, also marketed as Lingxi X2, is a compact bipedal humanoid designed for education, research, exhibitions, entertainment, interaction, and introductory embodied-AI development. At approximately 1.31 m and 35-39 kg, it is smaller and easier to deploy than the full-size A2 family while retaining full-body locomotion, vision, audio, and developer-oriented capabilities.

For BotReburn, the X2 is a relevant but selective future secondary-market model. It has identifiable European business-to-business sales channels, published technical specifications, a dedicated development kit, product documentation, and replaceable battery options. Its residual value remains constrained by unclear ownership transfer, limited public privacy detail, configuration-dependent autonomy, unverified software and cloud transfer, and the absence of a clearly documented X2-specific EU conformity claim.

Official / Manufacturer-Stated Use Cases

Robotics education, mechatronics training, and humanoid-development courses
Bipedal locomotion, reinforcement learning, perception, and interaction research
Exhibitions, museums, reception, entertainment, and supervised public demonstrations
Light service and companionship concepts in controlled environments
Developer projects using the X2-specific SDK and compatible robotics tools

Commercial Availability

The X2 is commercially available through direct and European business channels. Public prices vary by edition and integration package. Buyers should confirm the exact Youth/Standard or Flagship/Ultra configuration, compute, sensors, end effectors, battery, charger, software, documentation, conformity status, warranty, delivery terms, and support transfer in a signed quotation.

B) Key Facts

Category	X2 Youth / Standard	X2 Flagship / Ultra
Manufacturer	AGIBOT Innovation (Shanghai) Technology Co., Ltd.	Same manufacturer
Form factor	Compact full-body bipedal humanoid	Compact full-body bipedal humanoid
Height / weight	Approx. 1.31 m / 35 kg	Approx. 1.31 m / 39 kg
Degrees of freedom	25	30
Arms	5 DoF per arm	7 DoF per arm
Legs / waist	6 DoF per leg; 3-DoF waist	Same base layout
Perception	Binocular front RGB, rear RGB, interaction camera, head touch	Adds 3D LiDAR and RGB-D camera
Compute	Dual RK3588	Dual RK3588 plus NVIDIA Orin NX, up to 157 TOPS stated
Connectivity	Wi-Fi, Bluetooth, USB-A, USB-C	Adds mobile-connectivity option, Ethernet, and additional USB ports
Navigation	No native full autonomous navigation stated	3D SLAM and active obstacle avoidance stated
End effectors	Standard gripper compatibility	OmniHand / OmniPicker options may be available separately
Battery / runtime	Approx. 500 Wh; around 2 hours at 0.5 m/s	Similar battery and runtime; optional charging station may be available
Operating temperature	Approx. -10 C to 40 C	Approx. -10 C to 40 C
Software	App control; secondary development scope is configuration dependent	X2-specific development kit and native secondary development
Commercial status	Commercially available to business and institutional buyers	Commercially available to business and institutional buyers
EU conformity	No clear X2-specific public claim identified	Obtain a model- and unit-specific declaration before deployment

Edition identity and delivered configuration must be verified before purchase, deployment, refurbishment, or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Perform compact full-body bipedal movement and manufacturer-demonstrated balance, choreography, and interaction routines.
Support education, locomotion research, perception experiments, and supervised public demonstrations.
Provide app-based control and configuration-dependent developer access through an X2-specific software development kit.
Use cameras, microphones, touch input, onboard compute, and optional higher-grade sensing for multimodal interaction.
Provide 3D SLAM and active obstacle avoidance in the Flagship/Ultra configuration.
Use replaceable battery operation and configuration-specific charging options.

Known Constraints (Limits)

Youth/Standard and Flagship/Ultra units differ materially in arms, sensing, compute, connectivity, navigation, and end-effector support.
Public demonstrations such as cycling, balancing, dance, or martial-arts routines do not establish continuous autonomous task performance.
Payload and manipulation capability are limited compared with industrial humanoids; the X2 should not be positioned as a logistics or heavy-work platform.
Public long-term field data, standardized reliability metrics, spare-parts prices, and a used-unit transfer program were not identified.
Product-specific privacy documentation for camera, microphone, facial, and interaction data remains limited, especially for education or care-related use.
A conformity claim for another model in the same manufacturer portfolio must not be applied to the X2; model-specific evidence is required.

D) Operational Trust & Commercial Reality

Known Concerns

The X2 combines wireless networking, app control, update mechanisms, multimodal sensing, and configuration-dependent cloud or AI services. These functions create privacy, identity, remote-access, and software-supply-chain exposure.
Public material does not fully define app account binding, ownership transfer, encryption, cloud-versus-device processing, telemetry retention, secure boot, firmware signing, or a complete software bill of materials.
A manufacturer vulnerability-reporting process is a positive trust signal, but no public X2-specific independent security audit or confirmed model-specific vulnerability was identified at the report date.
Sensitive deployments involving children, education, care, or close human interaction require a documented data-protection assessment and clear operator controls.
Developer modifications may affect support or warranty and can introduce unsafe motion, insecure services, or non-reproducible software states.

Operational Recommendations

Use a segregated development network and restrict inbound administration, wireless services, mobile connectivity, and cloud access to approved workflows.
Record the exact edition, compute hardware, firmware, SDK, AI models, applications, accounts, credentials, and licenses at intake.
Require a written data-flow description and reset process covering images, audio, facial data, maps, logs, Wi-Fi profiles, tokens, user code, and cloud associations.
Archive trusted recovery packages, configuration, calibration, SDK versions, documentation, and checksums before modification.
Validate modified locomotion and interaction software in simulation and under physical support before free operation.
Use a clear fall zone, safe-stop procedure, trained supervision, and a site-specific risk assessment for every public or education deployment.

Safety Status

The X2 is smaller than many adult-size humanoids but remains a powered biped capable of falling, colliding, pinching, and damaging nearby objects. Flexible exterior materials and manufacturer-stated fall resistance are useful design features, but they do not replace model-specific conformity evidence, trained supervision, controlled testing, and verified stopping procedures.

Commercial Reality

Commercial Position

Compact humanoid for education, research, interaction, and entertainment
European business-to-business availability with multiple configuration tiers
Dedicated developer ecosystem and attractive portable form factor
Selective future second-life candidate, with compliance and privacy caveats

Procurement Reality

Core European prices are generally reported in the low-to-mid five-figure euro range, while some substantially higher package prices indicate that configuration and integration scope can dominate total cost.
A quote must identify edition, arm configuration, LiDAR and RGB-D sensors, compute, end effectors, battery, charger or dock, controls, software, training, warranty, support, and delivery terms.
Obtain an X2-specific declaration of conformity and destination-country documentation; do not rely on certifications publicly associated with the A2 family or accessories.
Confirm warranty duration, modification exclusions, repair route, parts availability, battery replacement, SDK rights, cloud services, account transfer, and support for a subsequent owner.
Commercial availability and documentation are positive, but long-term durability, fleet performance, and secondary-market processes remain immature.

E) BotReburn Trust Note

The AgiBot X2 is relevant to BotReburn's future second-life market because it is commercially obtainable, portable, documented, and developer oriented. Value must be tied to exact edition, condition, software state, conformity evidence, privacy controls, and transferable support rather than the family name or demonstration capabilities.

Priority Refurbishment and Resale Checks

Serial number, invoice, seller authority, Youth/Standard or Flagship/Ultra edition, production revision, ownership chain, and X2-specific conformity documents
Exact arms, sensors, LiDAR, RGB-D camera, compute, connectivity modules, end effectors, battery, charger, dock, controls, and accessories
Fall, collision, transport, repair, and modification history; frame, covers, feet, joints, actuators, cables, connectors, and thermal behavior
Battery cycles, capacity, cell balance, swelling, measured runtime, replacement availability, charger condition, and transport compliance
Cameras, microphones, touch input, speakers, IMU, navigation, obstacle avoidance, wireless interfaces, safe-stop method, and calibration
Firmware, SDK, applications, accounts, credentials, cloud associations, local data, user code, logs, reset evidence, warranty and support transfer, manuals, spares, and packaging

Second-Life Relevance

Moderate and configuration dependent. Prioritize Flagship/Ultra units with verified high-compute hardware, complete navigation sensors, healthy batteries, reproducible software, clear conformity evidence, documented privacy controls, and transferable support. Units without model-specific compliance documents or a reliable account and data-reset path should be restricted to specialist research channels or discounted substantially.

AiMOGA Robotics

Technical Due Diligence & Trust Report

AiMOGA Robotics — Mornine M1

Commercial Bipedal Humanoid Service Platform | Last verified: 2026-08-08

A) Short Overview

The AiMOGA Mornine M1 is a commercially offered, full-size bipedal humanoid service robot developed by AiMOGA Robotics, a Chery-incubated robotics business. It is positioned primarily for reception, retail presentation, automotive dealerships, public-service interaction, training, and supervised embodied-AI deployments rather than heavy industrial manipulation.

For BotReburn, the Mornine M1 is a legitimate but early secondary-market candidate. It has a public China retail listing, manufacturer-reported batch deliveries and international deployments, a human-scale sensor and interaction stack, and company-stated EU conformity coverage. Its residual value remains difficult to forecast because public warranty terms, spare-parts pricing, software-transfer rights, developer access, cloud dependencies, and a standardized used-unit reset process were not identified.

Official / Manufacturer-Stated Use Cases

Automotive dealership reception, vehicle presentation, and guided customer interaction
Multilingual reception and information services in retail, exhibitions, and public venues
Supervised dual-arm demonstrations and light item handling
Training, teleoperation, and embodied-AI workflow development
Public-service demonstrations, traffic guidance, and campus or government scenarios

Commercial Availability

AiMOGA opened China retail sales of the Mornine M1 in April 2026 at RMB 285,800, with first deliveries reported as scheduled after May 23, 2026. International acquisition appears to be distributor- and project-based. Buyers must therefore confirm the exact hardware and software configuration, delivery territory, import costs, commissioning, cloud services, warranty, local repair route, and ownership-transfer rights in a signed quotation.

B) Key Facts

Category	AiMOGA Robotics Mornine M1	Notes
Manufacturer	AiMOGA Robotics	Chery-incubated robotics business
Model	Mornine M1	Commercial full-size humanoid service robot
Form factor	Full-body, two-legged humanoid	Bipedal walking with two arms and dexterous hands
Height / weight	Approx. 167 cm / 70 kg	Published retail-listing specifications
Degrees of freedom	40 body DoF	Reported excluding hand articulation; verify delivered configuration
Walking speed	Up to 1.0 m/s	Published retail-listing specification
Arm-end payload	Up to 1.5 kg	Per arm end; task and reach dependent
Battery / runtime	Approx. 0.7 kWh / 2 hours	Nominal figure; workload dependent
Charging time	Approx. 2 hours	Manufacturer-listing figure
Perception	1x 3D LiDAR, 2x depth cameras, wide-angle camera, 4x ultrasonic sensors	Published product-listing specification
Navigation	Approx. +/-5 cm precision obstacle avoidance	Chery manufacturer-stated
AI / cloud stack	CheryGPT, DeepSeek, MoNet vision-language model, MoLink cloud	Public architecture descriptions; exact unit licensing not published
Interaction	Multilingual speech, gesture and presentation workflows	Chery Malaysia reported 10 languages and up to 95% recognition
Control	Autonomous workflows and VR-based remote control	Published product-listing capability
EU conformity claim	CE-MD, CE-RED, EN 18031-1:2024 and -2:2024	Company-stated testing by TÜV Rheinland; obtain unit-specific documents
China retail price	RMB 285,800	Public China retail listing; international costs excluded
Warranty / support term	Not publicly identified	Must be confirmed in the sales contract

Values are manufacturer-stated unless the Notes column indicates otherwise. Configuration-specific verification is required before purchase or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Walk bipedally at a manufacturer-reported speed of up to 1 m/s and navigate indoor commercial environments using multimodal perception.
Provide autonomous following, dynamic balance, obstacle avoidance, and customer-facing movement in supervised deployments.
Deliver multilingual presentations, answer questions, guide customers, and switch between configured service workflows.
Coordinate both arms for light handling and demonstration tasks, subject to the stated 1.5 kg arm-end payload and reach constraints.
Support remote operation through a VR control workflow for training, data collection, or supervised specialist tasks.
Perform demonstrated embodied tasks such as autonomous car-door opening using onboard sensing, whole-body control, and reinforcement-learning policies.

Known Constraints (Limits)

The M1 is primarily a customer-facing service platform, not a general-purpose autonomous worker or a heavy-payload industrial humanoid.
A 1.5 kg arm-end payload limits many logistics, assembly, lifting, and household manipulation tasks.
The two-hour nominal runtime and similar charging time require duty-cycle planning, spare capacity, or scheduled charging for full-day operation.
The 70 kg mass creates meaningful fall, collision, transport, floor-loading, and service-handling risks.
Company-stated CE-MD, CE-RED, and EN 18031 coverage should be supported by unit-specific declarations, certificate numbers, scope, model revision, and technical documentation before EU deployment or resale.
No public IP rating, rated slope or stair capability, functional-safety performance level, public task-success benchmark, or complete environmental operating range was identified.
Public developer manuals, SDK/API documentation, component-level service manuals, spare-parts catalogues, and standard warranty terms were not identified.

D) Operational Trust & Commercial Reality

Known Concerns

Mornine combines wireless communications, remote control, speech and vision sensing, cloud configuration, language models, and a connected cloud platform. These functions create significant identity, privacy, remote-access, and software-supply-chain exposure.
AiMOGA describes MoLink cloud processing and cloud-based configuration or learning workflows, but public materials do not clearly define data residency, retention, customer isolation, operator access, encryption architecture, or resale account transfer.
The EN 18031 conformity claim is a positive trust signal for radio-equipment cybersecurity and data protection, but it does not replace buyer verification of the exact certified hardware, software build, deployment configuration, and ongoing patch status.
No public software bill of materials, secure-boot statement, signed-update process, vulnerability-disclosure policy, security advisory archive, patch-support lifetime, or independent penetration-test report was identified.
VR teleoperation and autonomous service functions can convert compromised credentials, unsafe configuration, or unreliable connectivity into physical movement risk.

Operational Recommendations

Obtain the unit-specific EU declarations, TÜV documentation, certificate identifiers, software version scope, and radio-module identification before accepting certification claims.
Place the robot on a segmented enterprise network; restrict outbound cloud destinations and inbound administration to documented, approved services.
Require a complete inventory of firmware, operating-system images, AI models, cloud tenants, mobile or VR applications, credentials, and subscription entitlements at intake.
Define a written data-erasure and ownership-transfer process covering images, audio, interaction logs, maps, customer data, Wi-Fi profiles, tokens, cloud accounts, and teleoperation access.
Use role-based accounts, multifactor authentication where supported, strong credential rotation, recorded remote sessions, and explicit teleoperation authorization.
Operate in a controlled zone with a verified emergency-stop method, fall clearance, trained supervision, and a staged functional test after every software or configuration change.

Safety Status

The Mornine M1 should be treated as a 70 kg mobile machine capable of falling, colliding, and applying force through its arms. Company-stated CE-MD and related conformity coverage are encouraging, but buyers must verify the exact unit and deployment scope. Public-facing operation requires a site-specific risk assessment, controlled separation distances, tested stopping behavior, safe teleoperation procedures, and supervision appropriate to the environment.

Commercial Reality

Commercial Position

Commercial reception and brand-presentation humanoid
Automotive dealership and retail service platform
Multilingual public-interaction and event robot
Emerging secondary-market model requiring selective intake

Procurement Reality

The China retail listing establishes genuine commercial availability at RMB 285,800, but international pricing and delivered configuration are project dependent.
A quotation should identify the exact model revision, hand hardware, battery, charger, perception stack, VR equipment, software modules, cloud services, language packs, accessories, training, and commissioning.
Confirm warranty duration, exclusions, transferability, repair turnaround, local service authority, spare-parts availability, battery replacement, software support, and subscription costs in writing.
Chery reported a first batch delivery of 220 humanoids and AiMOGA activity in more than 30 countries and over 100 scenarios. These company-wide figures support vendor credibility but do not establish a mature M1 used market; international resale may still be constrained by export controls, radio approvals, cloud regions, battery transport, local machinery rules, and non-transferable service contracts.

E) BotReburn Trust Note

The AiMOGA Robotics Mornine M1 is relevant to BotReburn's future second-life market assessment, but its value must be based on exact configuration, physical condition, software and support rights, and traceable ownership documentation rather than model name or promotional capability alone.

Priority Refurbishment and Resale Checks

Serial number, invoice, seller authority, production revision, exact M1 configuration, chain of ownership, and unit-specific CE-MD, CE-RED, EN 18031 and TÜV documentation
Complete fall, collision, transport and operating history; frame alignment, covers, feet, hands, cabling, connectors, and ingress signs
Joint backlash, encoder consistency, gearbox noise, thermal behavior, arm coordination, hand function, gait stability, and stop behavior
Battery cycle count, capacity test, cell balance, swelling, charger, measured runtime, replacement availability, and shipping compliance
LiDAR, cameras, ultrasonic sensors, microphones, speakers, navigation accuracy, localization maps, obstacle avoidance, and teleoperation
Firmware and software baseline, cloud tenant, licenses, subscriptions, credentials, data stores, logs, remote-access rights, reset evidence, warranty and support transfer, repair records, spare parts, accessories, packaging, training materials, and destination-country compliance

Second-Life Relevance

Relevant, but selective and early. The Mornine M1 is genuinely bipedal, publicly priced, and commercially deployed. BotReburn should accept only documented units with verified ownership, certification, condition, software reset, support transfer, and cloud and service continuity.

Booster Robotics

Technical Due Diligence & Trust Report

Booster Robotics — K1

Compact Commercial Humanoid Development Platform | Last verified: 2026-08-08

A) Short Overview

The Booster K1 is a commercially offered, compact full-body bipedal humanoid platform for competitions, education, entertainment, and introductory embodied-AI development. At approximately 95 cm and 19.5 kg, it is easier to transport and deploy in teaching or laboratory environments than many adult-size humanoids.

The K1 is relevant to a future secondary market because Booster publishes a starting price, three compute editions, detailed manuals, firmware support, and open development resources. However, it is a comparatively young product launched in October 2025. Edition identity, battery size, warranty term, compute hardware, software state, fall history, and continued service access will be decisive for residual value.

Official / Manufacturer-Stated Use Cases

Embodied-AI education and introductory humanoid development
RoboCup KidSize soccer and autonomous-competition research
Bipedal locomotion and reinforcement-learning experiments
Speech, vision, interaction, and entertainment prototypes
Portable laboratory demonstrations and supervised classroom use

Commercial Availability

Booster Robotics lists the K1 from USD 5,999 and provides Buy Now links. The official store uses a sales-inquiry form, so the advertised starting price should be treated as an entry point rather than a delivered international price. Edition, battery, compute, warranty, taxes, freight, import requirements, commissioning, and support must be confirmed in the quotation.

B) Key Facts

Category	Booster Robotics K1	Notes
Manufacturer	Booster Robotics Technology Co., Ltd.	China; founded in 2023
Model / editions	K1; Geek, Education, Professional	Edition is critical for compute, battery, storage, and warranty
Form factor	Compact full-body, two-legged humanoid	Head, torso, two arms, and two legs
Height / weight	Approx. 0.95 m / 19.5 kg	Manufacturer-stated
Degrees of freedom	22 total	6 per leg, 4 per arm, 2 in head
Actuators	Up to 60 N.m peak torque; dual encoders	Maximum manufacturer-stated joint value
Walking / turning speed	1.1 m/s / 1.5 rad/s	Product-manual specification
Battery	Geek 2 Ah; Education / Professional 5 Ah	At least 500 stated cycles; charging time 2 hours or less
Runtime	At 1.1 m/s: 20 min Geek; 70 min Education / Professional	Product page separately states 30 / 80 min at 0.4 m/s
Compute	48 TOPS dense / 117 TOPS / 200 TOPS	Geek / Education / Professional respectively
Memory / storage	8 GB / 128 GB; 8 GB / 512 GB; 32 GB / 512 GB	Geek / Education / Professional respectively
Sensors / audio	Stereo depth camera, 9-axis IMU, 6-microphone array, speaker	Manufacturer-stated
Connectivity	Gigabit Ethernet, Wi-Fi 6, Bluetooth 5.2	Firmware upgrade and secondary development supported
Safety functions	Low-battery and joint-overheat alerts; protective modes	No dedicated emergency-stop device is listed in K1 specifications
Certification claim	CE / FCC	Listed for all editions in official product manual
Warranty	Geek 3 months; Education / Professional 1 year	Manufacturer product-page terms
Official starting price	From USD 5,999	Freight, taxes, import, and options not included unless quoted

Values are manufacturer-stated unless the Notes column indicates otherwise. Configuration-specific verification is required before purchase or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Walk, turn, hold postures, and execute preconfigured actions using 22 whole-body degrees of freedom.
Provide bipedal research hardware at a lower entry price and lower transport weight than adult-size platforms.
Support vision, voice, and interaction experiments through onboard depth sensing, inertial sensing, microphone array, speaker, and AI compute.
Support secondary development through official manuals, SDK and ROS 2 SDK, Booster Gym, simulation and deployment tools, and robot assets.
Run edition-appropriate AI workloads, ranging from 48 TOPS dense in Geek to 200 TOPS in Professional.
Operate in RoboCup KidSize and education settings; Booster documents championship use and school-oriented deployments.

Known Constraints (Limits)

The K1 is an introductory developer and education platform, not a general-purpose autonomous worker or certified collaborative robot.
Its arms have four degrees of freedom each and no standard dexterous hands are listed; manipulation capability is limited compared with higher-end humanoids.
Runtime varies substantially by edition and speed. The Geek version is particularly constrained, with a 2 Ah battery and 20 minutes stated at 1.1 m/s.
The entry-level Geek warranty is only three months, increasing condition and repair risk for secondary buyers.
Falls, collisions, complex terrain, user-developed control errors, non-original parts or batteries, and unauthorized repair are among the warranty exclusions.
CE/FCC is manufacturer-listed, but unit-specific declarations and scope must be obtained; no public functional-safety performance level, IP rating, or collaborative-operation certification was identified.

D) Operational Trust & Commercial Reality

Known Concerns

The robot includes Ethernet, Wi-Fi, Bluetooth, a mobile app, firmware updates, and developer access. A used unit may retain network profiles, credentials, user code, logs, or account associations.
Secondary development and CUSTOM mode permit user-defined joint commands, so both cyber compromise and simple software misconfiguration can become physical-safety events.
Booster advertises six months of Doubao LLM access. The public product page does not explain resale transfer, account dependence, regional availability, retention, or robot-to-cloud data flows; these points require written clarification.
No public software bill of materials, secure-boot or signed-update assurance statement, vulnerability-disclosure program, independent penetration-test report, or guaranteed security-support lifetime was identified.

Operational Recommendations

Use a segregated development network and restrict inbound access; disable unused Wi-Fi or Bluetooth where the operating workflow permits.
Record the firmware version and compute edition at intake, then archive matching official packages, SDK versions, robot assets, configuration, and checksums.
Remove previous Wi-Fi profiles, keys, tokens, app associations, LLM accounts, developer accounts, user code, and datasets under a documented data-erasure procedure.
Verify that cloud-dependent features and trial services can be lawfully transferred or reactivated by the new owner before assigning value to them.
Require simulation and hoist-supported validation for modified locomotion; the official manual warns that CUSTOM mode hands all joint control to user code.
Preserve service-relevant logs and repair evidence before erasure, and maintain a signed record of firmware, calibration, part replacements, and software modifications.

Safety Status

The K1 is lighter than the T1 but remains a powered biped with fall, collision, pinch, and thermal risks. Booster instructs users to clear people and obstacles, use PREP before WALK, support the robot during upgrades, and protect it with a hoist during CUSTOM-mode development. The K1 specification lists protective alerts but does not list a dedicated hardware emergency stop, so the exact stop method and risk-control procedure should be verified for each unit and use case.

Commercial Reality

Commercial Position

Entry-level full-body humanoid for education and research
Compact RoboCup KidSize and locomotion-development platform
Portable embodied-AI and interaction testbed
High-priority future secondary-market model, with edition-sensitive valuation

Procurement Reality

The official starting price is USD 5,999, but the store routes buyers through an inquiry and does not publish a complete delivered-price matrix.
The quote must specify Geek, Education, or Professional; compute module, memory, storage, battery, charger, controls, transport case, software access, and support package.
The three-month Geek warranty is materially weaker than the one-year Education and Professional warranties and should affect both purchase and resale valuation.
Request unit-specific CE/FCC documents, delivery and import terms, spares availability, training, repair logistics, and confirmation that firmware and support remain available to a subsequent owner.
Booster's company-wide delivery milestone and international customer base support vendor credibility, but the K1's shorter field history leaves long-term durability and residual-value evidence limited.

E) BotReburn Trust Note

The Booster Robotics K1 is relevant to BotReburn's future second-life market assessment, but its value must be based on exact configuration, physical condition, software and support rights, and traceable ownership documentation rather than model name or promotional capability alone.

Priority Refurbishment and Resale Checks

Serial number, invoice, seller authority, Geek / Education / Professional edition, production revision, and unit-specific certification documents
Frame, covers, feet, handles, connectors, cables, fasteners, and full fall or collision history
Joint backlash, encoder agreement, calibration, gearbox noise, temperature, joint-limit events, and replaced motors
2 Ah or 5 Ah battery identity, cycle count, capacity, cell balance, swelling, charger, measured runtime, and shipping compliance
Depth camera, IMU, microphones, speaker, Ethernet, Wi-Fi, Bluetooth, buttons, alerts, modes, controller, and safe-stop procedure
Compute-module identity, memory and storage, firmware baseline, SDK compatibility, credentials, app and LLM associations, code, logs, and datasets
Warranty and support status, repair records, original accessories and packaging, spare parts, and ownership-transfer confirmation

Second-Life Relevance

Strong, with a maturity caveat. The K1 is genuinely bipedal, commercially offered, comparatively affordable, portable, and supported by public development resources. These traits are favorable for education and research resale. BotReburn should value each edition separately and discount units with the short Geek warranty, weak battery results, unclear cloud or account transfer, undocumented falls, or non-reproducible software. A serial-numbered intake record and complete functional test are essential.

DEEP Robotics

Technical Due Diligence & Trust Report

Deep Robotics — DR02

All-Weather Industrial Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The Deep Robotics DR02 is an industrial-grade humanoid robot platform developed by Deep Robotics for outdoor, inspection, rescue, utility, construction, tunnel, metal, mining, and research scenarios.

Unlike many humanoid platforms that are primarily designed for indoor laboratory or demonstration use, the DR02 is positioned around environmental robustness. Deep Robotics describes the platform as the world’s first full-size industrial humanoid robot with full-body IP66 waterproof and dustproof protection, enabling operation in rain, humidity, dust, and other demanding field environments.

Official Use Cases:

Power & Utilities Inspection
Rescue and Emergency Response
Tunnel and Underground Facility Inspection
Metal & Mining Environments
Construction Site Robotics
Industrial Research and Field Automation

Commercial Availability:

The DR02 is commercially accessible through Deep Robotics’ official contact-sales process. Deep Robotics provides a product purchase intention form and lists DR02 as a selectable humanoid robot option. Procurement should be treated as a configuration-specific enterprise purchase rather than a simple consumer online checkout.

B) Key Facts

Category	Deep Robotics DR02	Notes
Manufacturer	Deep Robotics	Hangzhou Yunshenchu Technology Co.,
Ltd.

| Compute | Industrial 64-bit octa-core CPU; Pro adds AI processor | Up to 275 TOPS AI performance |

| Interfaces | Gigabit Ethernet; Pro adds USB 3.0 and UART | Variant dependent |

| Secondary Development | Motion development / Pro: motion and perception development | Variant dependent |

C) Capabilities & Limits

Verified Capabilities (Can):

Outdoor-capable industrial humanoid design with IP66 dustproof and waterproof protection.
Wide operating temperature range from -20 °C to 55 °C for harsher environments than typical indoor humanoids.
Bipedal locomotion across stairs, slopes, and field-relevant terrain within tested limits.
Modular quick-disassembly design for forearms, full arms, and full legs, supporting easier maintenance and reduced downtime.
Industrial inspection and field-task positioning across utilities, tunnels, mining, construction, rescue, and research environments.
DR02 Pro supports higher degrees of freedom, optional dexterous hands, additional sensors, AI processing, and motion/perception development.
Multi-sensor perception including LiDAR, depth camera, wide-angle camera, microphone array, and speaker depending on configuration.

Known Constraints (Limits):

Maximum speed and terrain values are marked as laboratory-tested data; actual field performance may vary by surface, environment, and task profile.
The 4 m/s maximum speed should not be treated as normal operating speed; official walking speed is listed as 1.5 m/s.
Stair-climbing performance depends on stair tread depth exceeding the length of the robot’s foot.
The base DR02 has fewer degrees of freedom and no standard dexterous hand compared with the DR02 Pro.
Battery runtime is not clearly stated in the checked official data; buyers should request mission-specific endurance figures.
Despite IP66 protection, the robot should not be assumed to support immersion or underwater operation.
A 65–75 kg bipedal robot creates significant kinetic risk in the event of a fall or collision.
Secondary development scope differs between DR02 and DR02 Pro and must be confirmed before purchase.

D) Operational Trust & Commercial Reality

Known Concerns:

The DR02 is a network-connected industrial robot with Ethernet, USB, UART, OTA update support, and sensor data streams.
Field deployments may involve sensitive infrastructure, industrial sites, security areas, or critical utility environments.
Visual, LiDAR, audio, and operational telemetry may create privacy, data-governance, and industrial-security obligations.
Deep Robotics’ after-sales policy indicates remote diagnosis and possible data handling during repair or maintenance processes, so enterprise buyers should clarify data handling before deployment.

Operational Recommendations:

Use segmented and monitored enterprise networks for industrial deployments.
Confirm firmware version, OTA policy, update control, and remote-access behavior before commissioning.
Request documentation for data storage, telemetry routing, repair handling, and log access.
Define clear operator procedures for emergency stop, recovery, transportation, and safe shutdown.
Confirm whether the purchased unit is DR02 or DR02 Pro, including exact sensor package, AI processor, interfaces, and end-effectors.
Establish a field-maintenance plan including spare batteries, detachable limbs, and critical actuator modules.

Safety Status:

The DR02 should be treated as a powerful industrial humanoid platform for supervised field and enterprise operation. Even with IP66 environmental protection, safe deployment requires trained operators, site-specific risk assessment, controlled operating zones, and clear emergency procedures.

Commercial Reality

The Deep Robotics DR02 is one of the first humanoid platforms clearly positioned around ruggedized all-weather industrial use rather than indoor demonstration or social interaction.

Commercial Position:

All-weather industrial humanoid
Outdoor inspection robot
Utility and infrastructure inspection platform
Rescue and emergency-response candidate
Construction, tunnel, mining, and field robotics platform
Research platform for rugged humanoid locomotion

Procurement Reality:

DR02 is available through Deep Robotics’ official contact-sales channel.
The official purchase form includes “Humanoid Robot DR02” as a selectable product option.
The product is not positioned as a consumer robot.
Final pricing, delivery, support, warranty, training, and regional service arrangements must be confirmed through a formal quotation.
Buyers should request exact configuration, DR02 vs DR02 Pro status, documentation package, spare-parts list, warranty terms, SDK access, and service route before purchase.

E) BotReburn Trust Note

The Deep Robotics DR02 is a high-priority BotReburn platform because it addresses one of the most important weaknesses of current humanoid robotics: environmental fragility. Its IP66 rating, wide temperature range, modular limb design, and industrial positioning make it a strong candidate for future inspection, utility, rescue, and field-service applications.

For future resale, refurbishment, and verification, the most important checks will be:

Exact model identification: DR02 vs DR02 Pro.
Confirmation of IP66 integrity after use, repair, or impact.
Battery health, charge behavior, and swappable battery condition.
Seal condition, connector integrity, and signs of water, dust, or chemical exposure.
Joint wear, actuator condition, gait stability, and fall history.
LiDAR, depth camera, wide-angle camera, microphone, and speaker function.
AI processor, interface availability, and SDK development scope.
OTA update history, firmware version, network configuration, and remote-access settings.
Original invoice, purchase agreement, warranty documents, service records, and configuration sheet.

Second-Life Relevance:

The DR02 is considered a strong future second-life candidate for industrial inspection, research, infrastructure monitoring, and hazardous-environment robotics. Its resale value will depend heavily on environmental exposure history, seal condition, battery lifecycle, actuator wear, sensor integrity, firmware transparency, and availability of spare modular components.

DOBOT

Technical Due Diligence & Trust Report

DOBOT — Atom Max

Advanced Humanoid AI Platform | Last verified: 2026-02-03

A) Short Overview

The DOBOT Atom Max is a high-DoF (Degrees of Freedom) humanoid platform designed for embodied AI research, high-end data collection, and teleoperation. Positioned between advanced research and commercial service automation, it features a specialized "Anthropomorphic Walking System" (AWS) and a high-performance compute stack.

Commercial Availability (EU/DACH):

Procurement in the EU is primarily inquiry-based via authorized distributors. Official list prices for the Max configuration are approximately €84,500 to €88,500 (excl. VAT). Lead times are typically quoted at 6–8 weeks.

B) Key Facts

Category	DOBOT Atom Max	Notes
Manufacturer	DOBOT Robotics	-
Height	~1650 mm	Standing height
Weight	~62 kg	Configuration-dependent
Total DoF	41	Includes 6-DoF dexterous hands
AI Compute	1500 TOPS	Intel i9 + 16GB GPU (41 TFLOPS)
Walking Speed	~1.5 m/s	Straight-knee walking (AWS)
Arm Payload	3.5 kg per arm	±0.05 mm repeatability
Battery / Runtime	~2 hours	Quick-swap; ~1h charge time
OS / Middleware	Linux / ROS 2	SDK support (C++, Python)
Vision Stack	RGB-D + 3D LiDAR	Intel RealSense D455 + 360° LiDAR
IP Rating	IP20	Indoor use only

Note on Discrepancies: While some published figures cite heights up to 170 cm or higher payloads, the stated baseline is 1650 mm with a rated arm load of 3.5 kg. Confirm "Peak vs. Rated" values in final contracts.

C) Capabilities & Limits

Verified Capabilities (Can):

Advanced Manipulation: Features 41 DoF with 12-DoF dexterous hands, optimized for complex assembly and handling research.
Autonomous Locomotion: Uses straight-knee walking (AWS) which claims to reduce energy consumption by 42% compared to bent-knee systems.
Teleoperation: Supports VR/MR-based teaching and real-time remote control with 200Hz high-frequency servo response.

Known Constraints (Limits):

Environmental Safety: Lacks independently verified ISO 13849 PL certifications for unshielded public interaction. Treat as research equipment for controlled environments.
Ruggedness: With an IP20 rating, it is strictly an indoor platform; sensitive to dust, moisture, and extreme temperatures.
Payload Density: While precise, the 3.5 kg per-arm load limits its use in heavy industrial logistics.

D) Verified Deployments

Commercial Pilot (2026): Publicly documented deployment in a Shenzhen cinema (China) operating autonomously for up to 14 hours/day in popcorn production and sales.
Research Focus: Primarily utilized in global robotics labs for reinforcement learning (RL) and HRI (Human-Robot Interaction) studies.
Industrial Status: No verified long-term "production line" assembly deployments found as of Feb 2026.

E) BotReburn Trust Note (Procurement Guidance)

Configuration Verification: The "Max" tier includes the Intel i9 and 1500 TOPS module; verify these specs are matched in your specific quote to avoid the "Standard" or "Trainer" downgrades.
Software Onboarding: Confirm the ROS 2 Humble/Jazzy integration scope. Ensure URDFs and simulation environments are provided for pre-delivery dev-work.
Safety Protocol: For EU operations, request a formal Declaration of Conformity and define clear E-stop architecture if the robot is to be used near people.
Power Management: Given the 2h runtime, include at least one spare battery and the quick-charge station in the purchase order for continuous testing.

EngineAI

Technical Due Diligence & Trust Report

EngineAI — PM01

Compact Open Humanoid Development Platform | Last verified: 2026-08-08

A) Short Overview

The EngineAI PM01 is a compact, full-body bipedal humanoid platform aimed at research, education, embodied-AI development, commercial demonstrations, and early service-robot experimentation. It is smaller and lighter than EngineAI's full-size SE01 and T800 while retaining arms, a highly rotatable waist, replaceable battery, and dynamic locomotion.

Two materially different configurations are published: a Business Edition with 23 degrees of freedom and no stated secondary-development support, and an Education Edition with 24 degrees of freedom, two depth cameras, an NVIDIA Jetson Orin NX 16 GB module, touch display, and secondary-development support. A used-market buyer must therefore verify the exact edition rather than relying only on the PM01 model name.

Official / Manufacturer-Stated Use Cases

Embodied-AI and locomotion research
University education and developer training
Humanoid motion demonstrations
Teleoperation and perception experiments
Retail, guided-tour, inspection, and service pilots

Commercial Availability

EngineAI currently lists PM01 on its official purchase page at CNY 188,000. This differs from the widely reported launch promotion of CNY 88,000 that applied through March 2025. International dealers quote different prices and configurations. Procurement must therefore be based on a current, edition-specific quotation rather than historic promotional pricing.

B) Key Facts

Category	EngineAI PM01	Notes
Manufacturer	Shenzhen EngineAI Robotics Technology Co., Ltd.	China; manufacturer-stated
Model	PM01 Business / Education Edition	Configuration must be verified
Height	Approx. 1,400 mm	Current detailed product page
Weight	Approx. 42 kg business / 43 kg education	Including battery
Degrees of freedom	23 business / 24 education	Edition dependent
Arm span	1.44 m	Manufacturer-stated
Movement speed	>2 m/s hardware support	Not a guaranteed autonomous operating speed
Waist rotation	Approx. 320 degrees	Dynamic motion feature
Peak joint torque	Up to 145 N·m on listed Q90H module	Joint/module dependent
Battery	10,000 mAh quick-release	Voltage/energy should be confirmed by edition
Runtime / charge	Approx. 2 h / approx. 2 h	Manufacturer-stated; scenario dependent
Compute	4-core CPU; Orin NX 16 GB on Education Edition	Edition dependent
Perception	Two depth cameras on Education Edition	Head and waist
Development access	Supported on Education Edition	Business Edition page says not supported
Official current price	CNY 188,000	Official China purchase page
Warranty	Standard 12 months	Confirm model and regional applicability

Values are manufacturer-stated unless the Notes column indicates otherwise. Configuration-specific verification is required before purchase or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Perform bipedal walking and high-dynamic full-body motions on a compact humanoid frame.
Reach hardware-supported movement speeds above 2 m/s under suitable control and operating conditions.
Use a 320-degree waist range for unusually broad torso motion and dynamic demonstrations.
Support perception and AI development on the Education Edition through dual depth cameras and NVIDIA Jetson Orin NX compute.
Allow secondary development on the Education Edition with published support materials and firmware downloads.
Use a quick-release battery to reduce downtime between approximately two-hour operating sessions.

Known Constraints (Limits)

Business and Education editions differ materially; generic listings often mix specifications, compute, degrees of freedom, and software access.
The official current CNY 188,000 listing should not be confused with the expired CNY 88,000 launch promotion.
The official page does not publish a rated arm payload, IP rating, autonomous task success rate, or collaborative safety certification.
Demonstrations such as flips or dance movements establish dynamic capability, not reliability, autonomy, or suitability for continuous commercial work.
Runtime and maximum speed are scenario dependent; high-dynamic motion, added compute, cold batteries, and aging cells will reduce performance.
No public CE machinery declaration or independently validated functional-safety package was identified for unrestricted operation around people.

D) Operational Trust & Commercial Reality

Known Concerns

The Education Edition exposes low-level development interfaces, USB/LAN connectivity, depth cameras, and onboard compute, expanding the attack and misconfiguration surface.
EngineAI's current control terminal uses local LoRa communication and serial-number authentication, with no Internet remote control, cloud service, or account system in the current published version.
The control-software license is described as non-exclusive and non-transferable; resale buyers should obtain written confirmation that the controller and software entitlement can lawfully move with the robot.
Maintenance decisions may depend on retained device logs. No public SBOM, secure-boot description, vulnerability-disclosure policy, or defined security-support lifetime was identified.

Operational Recommendations

Record the exact edition, motherboard, AI module, camera package, joint set, and installed options at acceptance.
Segment the robot and development workstation from production and office networks; disable unused wireless and physical interfaces.
Archive firmware installers, SDK/API documentation, repositories, licenses, hashes, and known-good configuration files.
Create role-based operating procedures for normal motion, high-dynamic demonstrations, emergency stop, fall recovery, and battery handling.
Preserve device logs and maintain an auditable update history to support warranty and future resale.
Confirm in writing whether software/controller rights, support entitlement, and developer access are transferable to a second owner.

Safety Status

PM01 is a 42-43 kg high-dynamic machine. EngineAI's safety statement calls for a five-meter clear radius during conventional motion, warns that communication loss beyond the controller range can cause a fall, and states that emergency stop removes support and causes the robot to fall immediately. Public demonstrations must not be treated as evidence of collaborative safety.

Commercial Reality

Commercial Position

Compact humanoid research and education platform
Dynamic motion and locomotion testbed
Embodied-AI development system
Commercial demonstration and early service-pilot robot

Procurement Reality

Use the current official CNY 188,000 listing as the China-market reference, not the expired CNY 88,000 launch promotion.
Require the quote to identify Business or Education Edition and list every compute, camera, controller, battery, charger, and software component.
Confirm whether secondary development and low-level software access are included; the published Business and Education Edition specifications differ.
Request the 12-month warranty terms, overseas parts procedure, repair location, expected turnaround, and paid support rates.
Confirm import compliance, transport of lithium batteries, local safety assessment, and any end-use/export-control documentation.

E) BotReburn Trust Note

The EngineAI PM01 is relevant to BotReburn's future second-life market assessment, but its value must be based on exact configuration, physical condition, software and support rights, and traceable ownership documentation rather than model name or promotional capability alone.

Priority Refurbishment and Resale Checks

Edition identity, serial number, invoice, configuration sheet, and activation date
Joint backlash, overheating, impact/fall history, waist mechanism, and cable condition
Battery cycles, cell balance, runtime under a repeatable duty cycle, charger, and spare-battery provenance
Depth cameras, IMU, touch display, controller, emergency stop, speakers, and all ports
Jetson module identity and health where fitted; firmware, SDK, and developer-access entitlement
Evidence of unauthorized modification, missing logs, unsupported software, or configuration drift
Warranty, service history, spare parts, export/end-use records, and software-transfer permission

Second-Life Relevance

Strong for the Education Edition and moderate for the Business Edition. PM01 has recognizable market presence, active manufacturer support pages, replaceable batteries, and current commercial availability. Resale value depends heavily on edition clarity, joint and battery condition, fall history, the presence of the original controller and accessories, and transferable access to firmware and development materials.

Fourier

Technical Due Diligence & Trust Report

Fourier Intelligence — GR-1

Full-Sized Humanoid Platform | Last verified: 2026-02-02

A) Short Overview

The Fourier Intelligence GR-1 is a full-sized humanoid robot platform designed for general-purpose research and application development in human-centric indoor environments.

Official Scope & Positioning:

R&D Platform: Aimed at robotics and embodied AI development within research and educational sectors.
Industrial Exploration: Positioned for scenarios such as inspection, logistics, and task assistance.
Vision-Centric: Features a platform-level integration for vision-based perception and humanoid workflows.

Commercial Availability:

The GR-1 is available through enterprise procurement via direct inquiry. Fixed "off-the-shelf" prices and delivery terms are not publicly stated.

B) Key Facts

Category	Fourier Intelligence GR-1	Notes / Variant
Manufacturer	Fourier Intelligence	-
Height (Standing)	165 cm (1650 mm)	-
Weight	55 kg (Net weight)	-
Total Degrees of Freedom (DoF)	44	Full-body articulation
Hand Payload	3 kg	Total body load: Unknown
Max Speed	5 km/h	Max walking speed
Battery Capacity	483 Wh	~2 hours (stated)
Onboard Computing	Intel Core i7-13700H	16GB RAM / 512GB SSD
Sensor Stack	6× RGB Cameras	LiDAR: Unknown
Software / SDK	Python / C++ SDK	Fourier Actuator SDK
ROS 2 Support	Stated	Details/limits: Unknown
IP Rating	Unknown	Not stated

Note on Discrepancies: Published figures differ regarding torque (230 N·m vs 300 N·m) and runtime phrasing (45–60 min walking vs. 2 hours total). These should be clarified in a formal quote.

C) Capabilities & Limits

Verified Capabilities (Can):

Vision-Based Perception: Utilizing multiple RGB cameras for spatial awareness and environmental interaction.
Developer Access: Availability of an Actuator SDK (Python/C++) for low-level and high-level development.
Framework Support: Official documentation confirms support for ROS 2.

Known Constraints (Limits):

Runtime Inconsistency: Battery endurance is highly dependent on the task profile (walking vs. idling).
Payload Constraints: The 3 kg hand payload is confirmed, but broader load-bearing limits are not specified.
Environmental Protection: No official IP rating or formal safety certifications are mentioned in the primary documentation.

D) Verified Deployments

As of February 2, 2026, no independently verified large-scale industrial deployments have been documented. The platform remains primarily in the R&D and pilot exploration phase.

E) BotReburn Trust Note (Procurement Guidance)

Inquiry Protocol: Procurement is inquiry-based; ensure a written commercial offer includes clear support SLAs and spare parts availability.
Endurance Validation: Validate real-world battery performance for your specific use case (e.g., continuous walking vs. stationary manipulation).
Safety Sensing: Confirm if LiDAR or additional safety sensors are included, as only RGB cameras are listed in the standard datasheet.
SDK Licensing: Clarify licensing and update policies for the Actuator SDK before production-level deployment.
Controlled Environments: Due to the unknown IP rating, deployments should be limited to lab or controlled indoor settings until further documentation is provided.

Kepler Robotics

Technical Due Diligence & Trust Report

Kepler Robotics — Forerunner K2

Industrial Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The Kepler Robotics Forerunner K2, also known as the K2 “Bumblebee”, is a full-size industrial humanoid robot platform developed by Shanghai Kepler Robot Co., Ltd. for manufacturing, logistics, inspection, material handling, and embodied AI development.

Unlike smaller education or demonstration humanoids, the K2 is positioned as a “blue-collar” industrial robot with a strong focus on payload, endurance, tactile manipulation, and factory-floor deployment. Its technical profile emphasizes long runtime, ruggedized construction, proprietary actuators, tactile hands, and practical use in repetitive industrial workflows.

Official Use Cases:

Industrial Material Handling
Automotive Manufacturing
Logistics and Warehouse Operations
Inspection and Facility Tasks
Embodied AI Research
Industrial Manipulation Development

Commercial Availability:
The Kepler K2 is commercially accessible through inquiry-based and distributor-supported procurement channels. Public distributor information describes the K2 as a professional industrial humanoid available in bipedal and dual-form configurations. Procurement should be treated as a configuration-specific enterprise purchase rather than a consumer online checkout.

B) Key Facts

Category	Kepler Forerunner K2	Notes
Manufacturer	Shanghai Kepler Robot Co., Ltd.	China
Model	Forerunner K2 / K2 “Bumblebee”	Industrial humanoid
Height	~175 cm	Distributor-stated
Weight	~75 kg	Bipedal edition
Dual-Form Weight	~135 kg with chassis	Bipedal + wheel-base configuration
Degrees of Freedom	52 DOF including dexterous hands	30 DOF excluding end effector
Hand System	Dexterous hands	11 total DoF / 6 active DoF per hand
Payload	Up to 30 kg dual-arm payload	Manufacturer/distributor-stated
Peak Force	Up to 8200 N	Distributor-stated
Peak Torque	Up to 220 N·m	Distributor-stated
Walking Speed	~1 m/s	Industrial steady-speed positioning
Battery	51.8 V / 30 Ah swappable battery	Ternary lithium
Runtime	Up to 8 hours	Scenario dependent
Charge Time	~1 hour	Manufacturer/distributor-stated
IP Rating	IP54	Dust and splash resistant
Operating Temperature	–10 °C to 45 °C	Manufacturer/distributor-stated
Humidity	Up to 85% non-condensing	Manufacturer/distributor-stated
Drop Resistance	0.5 m	Distributor-stated
Software	Kepler OS / Nebula system	Proprietary platform
SDK / Development	Developer platform available	Access scope must be confirmed
Commercial Status	Available / inquiry-based	Distributor and enterprise channels

C) Capabilities & Limits

Verified Capabilities (Can):

Industrial humanoid handling with up to 30 kg dual-arm payload capacity.
Long-duration operation with an advertised runtime of up to 8 hours and approximately 1 hour charging time.
Dexterous manipulation through tactile hands and wrist force/torque sensing.
Factory-floor movement with ruggedized construction, IP54 protection, and industrial temperature tolerance.
Proprietary actuator system using planetary roller screws and high-torque rotary actuators for stronger industrial handling.
Material handling and production-line support in real factory scenarios, including reported use at SAIC-GM and HZF.
Developer access through Kepler’s platform for enterprise and research customization.

Known Constraints (Limits):

The K2 is optimized for industrial material handling and repetitive workflows, not fast athletic humanoid movement.
Walking speed is moderate compared with more agile humanoid platforms.
Runtime is task-dependent; heavy payload handling, frequent motion, and high compute workloads may reduce operating time.
IP54 protection supports dust and splash resistance, but wet outdoor operation or harsh weather exposure should not be assumed.
The software stack is proprietary, so buyers should clarify SDK depth, API access, licensing, and long-term support.
EU/DACH service, spare-part routing, warranty handling, and repair lead times must be confirmed before purchase.
The K2’s size, weight, and payload capacity require trained operators, risk assessment, and controlled operating zones.

D) Operational Trust & Commercial Reality

Known Concerns:

The K2 is a network-connected industrial humanoid with sensors, software stack, and possible cloud-linked AI workflows.
Vision, tactile, operational, and task-learning data may involve sensitive production information.
Proprietary software and AI systems may create vendor lock-in and long-term dependency on Kepler’s ecosystem.
Distributor-based procurement may create different software, support, and update conditions across regions.

Operational Recommendations:

Request a complete software, data-processing, and update-policy statement before deployment.
Clarify whether AI processing, task data, visual data, and operational logs can remain local.
Use segmented industrial networks for pilot deployments.
Confirm SDK/API access, developer license tier, software update policy, and support entitlement in writing.
Request a spare-parts plan for actuators, hands, batteries, sensors, and critical mechanical modules.
Validate safety procedures for payload handling, collision avoidance, emergency stop, and recovery after fall or fault state.

Safety Status:
The Kepler K2 should be treated as a powerful industrial humanoid platform requiring supervised deployment, trained operators, site-specific risk assessment, and controlled work zones. It should not be treated as a plug-and-play collaborative robot for unrestricted operation around unprotected workers.

Commercial Reality

The Kepler Forerunner K2 is one of the stronger industrially oriented humanoid platforms currently positioned for factory and logistics use.

Commercial Position:

Industrial humanoid worker platform
Material handling robot
Automotive and logistics pilot platform
Factory-floor embodied AI system
Dexterous manipulation testbed
Research and enterprise development platform

Procurement Reality:

Public distributor information places the K2 in a professional industrial price range of roughly €80,000–€85,000 depending on configuration.
Shipping, taxes, duties, installation, support, and regional compliance costs may significantly affect total landed cost.
Buyers should confirm whether the selected unit is bipedal-only or dual-form with wheeled base.
Developer access, software licensing, spare parts, support level, and service response times should be clarified in the formal quote.
Enterprise buyers should request a signed configuration sheet, warranty terms, support route, SDK access statement, and spare-parts availability before purchase.

E) BotReburn Trust Note

The Kepler Forerunner K2 is a high-priority BotReburn platform because it is explicitly positioned for industrial work rather than pure demonstration. Its payload capability, endurance profile, tactile manipulation, ruggedized frame, and reported factory use make it relevant for future second-life, refurbishment, and resale markets.

For future resale, refurbishment, and verification, the most important checks will be:

Exact model identification: bipedal K2 vs dual-form K2 with wheeled base.
Battery health, charge behavior, runtime under load, and battery replacement availability.
Actuator condition, planetary roller screw wear, joint backlash, and lifting performance.
Dexterous hand condition, tactile sensor function, wrist force/torque sensor calibration, and gripper wear.
Frame condition, impact history, IP54 sealing condition, and signs of factory-floor exposure.
Software license status, developer access, Kepler OS / Nebula system version, and update history.
Payload-use history, production-line deployment hours, and maintenance records.
Original invoice, distributor record, configuration sheet, warranty scope, service history, and spare-parts documentation.

Second-Life Relevance:
The Kepler Forerunner K2 is considered a strong future second-life candidate for industrial research, logistics pilots, factory automation, and embodied AI development. Its resale value will depend heavily on actuator condition, battery lifecycle, hand/sensor integrity, software access, payload-use history, spare-parts availability, and regional support documentation.

Leju Robotics

Technical Due Diligence & Trust Report

Leju Robotics — Kuavo / XTRON-5

Modular Industrial Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The Leju Robotics Kuavo / XTRON-5 is a modular humanoid robot platform developed by Leju Robotics for industrial pilots, embodied AI research, service robotics, and factory-oriented task development.

The platform is available in multiple configurations, including a bipedal Kuavo-5 and a wheeled Kuavo-5W variant. This modularity makes the system relevant for both humanoid locomotion research and more stable wheeled industrial workflows.

Official Use Cases:

Industrial Pilot Programs
Intralogistics and Factory Inspection
Embodied AI Research
Service and Exhibition Guidance
Humanoid Locomotion Development
Modular Robot Application Testing

Commercial Availability:

The Kuavo / XTRON-5 appears commercially active primarily through enterprise partnerships, strategic pilots, and direct manufacturer engagement. In Europe and the DACH region, availability should currently be treated as partnership- or project-based rather than open-market procurement. Buyers should request direct confirmation from Leju Robotics or an authorized industrial partner before treating the platform as generally available.

B) Key Facts

Category	Leju Robotics Kuavo / XTRON-5	Notes
Manufacturer	Leju Robotics	Shenzhen, China
Model	Kuavo / XTRON-5	Modular humanoid platform
Variants	Kuavo-5 / Kuavo-5W	Bipedal and wheeled configurations

| Connectivity | 5G-A, Wi-Fi, Ethernet, Bluetooth, CAN bus | Configuration dependent |

| Sensors | Stereo depth camera, LiDAR/radar, microphone array | Exact package must be confirmed |

| Commercial Status | Pilot / partnership / inquiry-based | Not open consumer retail |

C) Capabilities & Limits

Verified Capabilities (Can):

Modular humanoid operation in both bipedal and wheeled configurations.
High-torque actuation with reported peak joint torque up to 360 N·m.
Industrial pilot relevance through partnerships and factory-oriented deployment scenarios.
Locomotion and manipulation research using humanoid body architecture and configurable hands.
Service and exhibition guidance through multimodal interaction and mobile navigation.
Python SDK access and ROS1-based development references for robotics integration.
5G-A and OpenHarmony/KaihongOS ecosystem alignment for connected robotics workflows.

Known Constraints (Limits):

Kuavo / XTRON-5 is not a single fixed configuration; model identity must be confirmed precisely.
ROS2 support should not be assumed; reviewed material indicates ROS1 support with ROS2 still pending or restricted.
EU/DACH commercial availability appears project-based and should not be treated as open-market availability.
Battery runtime claims are task-dependent and should be verified under real payload and motion conditions.
Certification status for EU industrial deployment must be confirmed through formal documentation.
KaihongOS / OpenHarmony dependence may create integration complexity for teams built around Ubuntu/ROS2 workflows.
Service, spare parts, warranty, and local repair routes in Europe must be clarified before procurement.

D) Operational Trust & Commercial Reality

Known Concerns:

The Kuavo / XTRON-5 is a connected humanoid platform with 5G-A, Wi-Fi, Ethernet, Bluetooth, and CAN-bus interfaces.
The KaihongOS / OpenHarmony software stack may create unfamiliar security, update, and integration requirements for Western enterprise teams.
Camera, LiDAR, microphone, telemetry, and cloud-linked robotics workflows may create data-governance obligations.
Partnership-based deployments may involve custom software branches, restricted SDK access, or non-standard support terms.

Operational Recommendations:

Request a complete software architecture statement before deployment.
Confirm whether the selected configuration runs ROS1 only, ROS2 beta, or a proprietary middleware layer.
Use segmented enterprise networks for pilot deployments.
Clarify data routing, cloud dependency, logging, remote access, and update-control behavior.
Request written confirmation of SDK access, developer documentation, firmware policy, and software licensing.
Require a configuration sheet identifying Kuavo-5 vs Kuavo-5W, hand type, sensors, battery, OS version, and support scope.

Safety Status:

The Kuavo / XTRON-5 should be treated as an advanced industrial pilot and research humanoid platform. It should not be treated as a plug-and-play collaborative industrial robot until site-specific safety documentation, certification status, emergency procedures, and risk assessments are confirmed.

Commercial Reality

The Leju Robotics Kuavo / XTRON-5 is commercially relevant because it connects humanoid robotics with industrial pilot programs, modular hardware, and large-scale manufacturing ambitions.

Commercial Position:

Modular humanoid platform
Industrial pilot robot
Factory and intralogistics test platform
Service and exhibition guide robot
Embodied AI research system
Bipedal / wheeled humanoid development platform

Procurement Reality:

Procurement should be treated as inquiry-based and project-specific.
European availability appears linked to strategic industrial partnerships rather than general retail distribution.
Buyers should confirm whether they are purchasing Kuavo-5, Kuavo-5W, XTRON-5, or another related configuration.
Pricing, delivery, warranty, certification, software access, and support terms should be verified through a formal quotation.
DACH buyers should request CE/EU documentation, service route, spare-parts policy, and German/English safety documentation before deployment.

E) BotReburn Trust Note

The Leju Robotics Kuavo / XTRON-5 is a relevant BotReburn platform because it represents a modular bridge between bipedal humanoid development and practical industrial deployment. The bipedal Kuavo-5 and wheeled Kuavo-5W distinction is especially important for future resale, refurbishment, and verification.

For future resale, refurbishment, and verification, the most important checks will be:

Exact model identification: Kuavo-5, Kuavo-5W, XTRON-5, or XTRON KUAVO-MY.
Configuration type: bipedal, wheeled, modular, hand type, gripper type, and sensor package.
Battery health, runtime under payload, charge behavior, and replacement availability.
Actuator condition, joint torque behavior, gait stability, and fall or impact history.
Hand condition, finger actuation, gripper wear, and payload-use history.
ROS1 / ROS2 status, SDK version, KaihongOS version, and software access rights.
Network configuration, 5G-A setup, cloud dependency, firmware version, and update history.
Original invoice, pilot agreement, Schaeffler or partner documentation if applicable, service history, and configuration sheet.

Second-Life Relevance:

The Kuavo / XTRON-5 is considered a medium-to-high future second-life candidate for industrial pilots, robotics labs, service robotics, and embodied AI development. Its resale value will depend heavily on exact configuration, software openness, regional support, actuator condition, battery lifecycle, certification documentation, and whether the unit was used in controlled pilots or high-load industrial testing.

LimX Dynamics

Technical Due Diligence & Trust Report

LimX Dynamics — Oli EDU

Humanoid Locomotion Research Platform | Last verified: 2026-05-14

A) Short Overview

As-of date: 2026-05-14 (Europe/Berlin).
The LimX Dynamics Oli EDU appears to be a research-oriented humanoid robot platform associated with locomotion learning, whole-body control, reinforcement learning, and motion-imitation research. Based on reviewed documentation, the platform is relevant for academic robotics labs and embodied AI research rather than general consumer or industrial deployment. Commercial availability in the EU/DACH region could not be independently verified from official manufacturer or authorized distributor documentation during this review. Therefore, BotReburn does not currently classify Oli EDU as a verified commercially purchasable EU/DACH humanoid platform without additional procurement evidence. A formal report should only be upgraded after an official LimX sales page, distributor listing, quotation route, or manufacturer confirmation is obtained.

B) Key Facts (Table)

Field	Verified Information
Manufacturer / Brand owner	LimX Dynamics
Model generation / version	Oli / Oli EDU — exact commercial version unknown
Height, weight	Unknown (not stated in reviewed official documentation)
Degrees of freedom (DoF)	Unknown (not stated in reviewed official documentation)
Sensors	Unknown (not stated in reviewed official documentation)
Compute / OS	Unknown (not stated in reviewed official documentation)
Battery runtime + charge time	Unknown (not stated in reviewed official documentation)
Connectivity	Unknown (not stated in reviewed official documentation)
SDK / programming	Unknown (not stated in reviewed official documentation)
ROS / ROS2 support	Not verified
Safety	Unknown (not stated)
IP rating	Unknown (not stated)
Warranty / support	Unknown (not stated)
Commercial availability EU/DACH	Not verified
Procurement route	Unknown — official sales route not verified

Discrepancies (Abweichung)

The model name “Oli EDU” appears in research/discovery context, but no official manufacturer product page or distributor listing was verified in this review.
Commercial availability, pricing, warranty, SDK access, and EU/DACH support remain unverified.
Existing research records mention “LimX Oli robot,” but do not establish purchasability or procurement conditions.
BotReburn should treat this model as “research-observed / procurement-unverified” until official sales evidence is available.

C) Capabilities & Limits

Verified Capabilities (Can):

Used in humanoid locomotion research involving velocity tracking and motion imitation.
Relevant for reinforcement learning and whole-body control research.
Appears suitable as a robotics research platform in controlled laboratory settings.
Associated with data-efficient humanoid robot learning research.
May be relevant for embodied AI locomotion benchmarking.

Known Constraints (Limits):

No verified official commercial listing was found in reviewed documentation.
No verified EU/DACH distributor, support route, warranty, or delivery terms were confirmed.
No confirmed public technical specification sheet was verified.
No verified SDK, ROS, ROS2, API, or developer package information was confirmed from official documentation.
No verified safety certification, IP rating, or operating environment statement was found.
Should not be presented as a confirmed purchasable humanoid platform without further evidence.

D) Verified Deployments

Organization / records	Deployment / Use Case	Status
PvP / SRL4Humanoid research records	Velocity tracking and motion imitation experiments on LimX Oli robot	Verified secondary research records
Public deployment list	Not centrally published	No further verified deployments found
EU/DACH institutional use	Unknown	Not verified

Public deployment list not centrally published; examples limited to verified records.

E) Media & BotReburn Trust Note

Official Media Links

Manufacturer product page: Not verified
Official documentation: Not verified
Official support portal: Not verified
Official distributor listing: Not verified

BotReburn Trust Note (Procurement Guidance)

Do not classify Oli EDU as commercially verified until an official sales route is confirmed.
Request direct written confirmation from LimX Dynamics before adding this model to a purchasable humanoid list.
Require a formal quotation, configuration sheet, warranty terms, and support route before considering EU/DACH procurement.
Verify whether “Oli EDU” is a standalone commercial model, an internal research platform, or a configuration name.
Confirm SDK, ROS/ROS2, simulation support, API access, and developer documentation before treating it as an EDU platform.
Clarify service, spare parts, battery replacement, and repair routing for Europe.
Request safety documentation, operating environment limits, and any CE/EU compliance information.
For BotReburn, this model should remain in “Watchlist / Needs Procurement Verification” status.

Noetix Robotics

Technical Due Diligence & Trust Report

Noetix Robotics — E1

Commercial Bipedal Research and Service Platform | Last verified: 2026-08-08

A) Short Overview

The Noetix Robotics E1 is a commercially offered, mid-size bipedal humanoid platform for research, education, exhibitions, guided interaction, and supervised service demonstrations. Noetix lists standard E1 and E1 EDU configurations with a modular hardware design, optional dexterous hands and LiDAR, onboard perception, voice-model support, and configuration-dependent developer access.

For BotReburn, the E1 is a strong but configuration-sensitive future secondary-market candidate. Manufacturer sales inquiry, international reseller listings, and a public used-unit listing establish commercial reality. Residual value will depend heavily on the exact E1 variant, installed compute and hand options, battery health, software and SDK rights, regional support, and whether the seller can document a safe reset and transfer of accounts, licenses, and technical materials.

Official / Manufacturer-Stated Use Cases

University research, robotics development, and embodied-intelligence experimentation
Education, laboratory instruction, and supervised developer training
Exhibition, brand presentation, guided tours, and shop interaction
Multimodal voice interaction and public-facing service demonstrations
Family or elder-companionship demonstrations in controlled environments

Commercial Availability

Noetix lists E1 and E1 EDU as purchasable through a sales consultant and provides a global-sales contact route. International sellers also advertise the E1 as in stock or sourced to order, and at least one reseller lists a used E1. No official public manufacturer price was identified. Buyers must obtain a signed quotation defining the exact revision, configuration, delivery territory, import costs, commissioning, warranty, software entitlements, support route, and compliance documentation.

B) Key Facts

Category	Noetix Robotics E1	Notes
Manufacturer	Noetix Robotics	Beijing Noetix Robotics Technology Group Co., Ltd.
Model / variants	E1 and E1 EDU	Configuration and developer-access differences require verification
Form factor	Full-body, two-legged humanoid	Bipedal locomotion with two articulated arms
Dimensions	Approx. 136 x 47 x 29 cm	Official standing dimensions
Weight	Approx. 40 kg	Official current specification; reseller data can differ
Degrees of freedom	23-28 DoF	Configuration dependent
Leg / arm / waist	6 DoF per leg; 5 DoF per arm, with options; waist optional	Official configuration table
End effector	Five-fingered hand; optional dexterous hand	Exact hand hardware must be identified
Peak knee torque	150 N.m	Manufacturer-stated laboratory figure
Walking load figure	Up to 5 kg	Officially described as continuous-walking carrying capacity; task meaning is not fully defined
Compute	6 TOPS base; up to 6 + 67 TOPS on E1 EDU	High-compute option uses NVIDIA Jetson Orin Nano Super
Perception	Depth camera and IMU	LiDAR is described as an optional expansion
Interaction	Microphone array and large-model voice support	Exact language/model licensing is not public
Connectivity	Wi-Fi 6 and Bluetooth 5.2	Connected deployment requires network controls
Battery / runtime	10.5 Ah quick-release battery / approx. 2-3 hours	Workload and configuration dependent
Software	Intelligent OTA; SDK support on development configuration	Confirm documentation, API, update, and license scope in writing
Commercial price	Manufacturer quote required	Third-party new and used prices vary materially by region and configuration
EU conformity	No public model-specific declaration identified	Obtain CE and applicable machinery/radio documentation before EU use or resale

Values are manufacturer-stated unless the Notes column indicates otherwise. Configuration-specific verification is required before purchase or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Walk bipedally and perform manufacturer-demonstrated movements such as dancing, jumping, and travel over varied terrain in controlled conditions.
Support voice-based, multi-round interaction using a large-model voice stack and onboard microphones.
Use modular options such as a dexterous hand, LiDAR, higher compute, and a quick-release battery to match research, education, or service-demonstration needs.
Provide depth-camera and IMU data for perception, balance, interaction, and secondary-development workflows.
Support deeper customization on the E1 EDU configuration with high-compute hardware and manufacturer-stated technical and SDK support.
Deliver supervised demonstrations for exhibitions, guided tours, education, and human-robot-interaction research.

Known Constraints (Limits)

The E1 is an emerging research and demonstration platform, not a validated general-purpose autonomous worker or certified industrial cobot.
The published 5 kg figure is described as continuous-walking carrying capacity and should not be treated as a verified per-arm or manipulation payload without a task-specific acceptance test.
Hardware is highly configuration dependent: DoF count, hand type, LiDAR, compute, battery, controller, developer access, and software rights may differ between E1, E1 EDU, revisions, and distributor stock.
Public reseller listings contain inconsistent height, weight, DoF, runtime, and hand descriptions, making serial-level configuration verification essential.
No public model-specific CE declaration, certificate number, functional-safety rating, IP rating, rated slope or stair capability, or standardized manipulation benchmark was identified.
No public security architecture, component-level service manual, complete spare-parts catalogue, patch-support lifetime, or standardized used-unit factory-reset procedure was identified.
At approximately 40 kg, a fall or uncontrolled arm movement can create substantial collision, crush, transport, and property-damage risk.

D) Operational Trust & Commercial Reality

Known Concerns

The E1 combines Wi-Fi, Bluetooth, microphones, a depth camera, large-model voice interaction, OTA updates, optional high-level development, and manufacturer remote-assistance capability. This creates identity, privacy, remote-access, and software-supply-chain exposure.
Public materials do not clearly define secure boot, signed-update enforcement, encryption architecture, default credentials, account isolation, telemetry, data residency, retention, or resale account transfer.
No public software bill of materials, coordinated vulnerability-disclosure policy, security advisory archive, patch-support commitment, or independent penetration-test report was identified.
Noetix's public service terms permit device access with consent for diagnosis and warn owners to back up data before service; a second-life process must therefore remove prior-owner data and re-establish trusted administrative control.
Developer-mode control, custom algorithms, optional LiDAR, and high-compute modules can materially change both safety behavior and the attack surface.

Operational Recommendations

Record the serial number, production revision, exact E1 variant, installed compute, hands, sensors, batteries, controller, accessories, firmware, and licensed software before valuation.
Obtain unit-specific CE and radio documentation, declarations, safety instructions, battery-transport records, and destination-country compliance evidence before deployment or resale.
Place the robot on a segmented network; disable unused wireless services and restrict outbound update or model endpoints and inbound administration to approved destinations.
Require a documented ownership-transfer and data-erasure procedure covering credentials, Wi-Fi profiles, audio and image data, maps, logs, developer keys, model accounts, OTA enrollment, and remote-support access.
Baseline the firmware, configuration, APIs, SDK package, documentation, and license files, and confirm whether E1 EDU development rights transfer to a new owner.
Operate only in a controlled zone with trained supervision, a verified stop method, fall clearance, restricted public proximity, and staged validation after every hardware or software change.

Safety Status

The E1 should be treated as a 40 kg mobile machine with high-torque joints and configuration-dependent software. Manufacturer descriptions of complex movement do not substitute for a unit-specific safety assessment. Public-facing use requires verified stopping behavior, fall and collision clearance, controlled access, trained supervision, battery and charging controls, and documentary confirmation of the exact compliance scope for the destination market.

Commercial Reality

Commercial Position

Mid-size research and embodied-intelligence humanoid
Education and developer platform, particularly in E1 EDU configuration
Exhibition, guided-interaction, and service-demonstration robot
High-potential secondary-market model with configuration-sensitive value

Procurement Reality

The official product page offers E1 and E1 EDU through consultant contact rather than a fixed public manufacturer price.
International sellers provide purchase channels, but prices and specifications vary; the signed quotation and manufacturer build sheet must control.
A public used E1 listing proves an emerging secondary market and illustrates the need for serial-level configuration verification.
Published standard after-sales terms apply only to mainland China, authorized personal-use purchases, and exclude resale; international transferable support requires a separate contract.
Confirm warranty, repair logistics, spare parts, batteries, shipping fixtures, SDK and OTA access, customs, and local compliance.

E) BotReburn Trust Note

The Noetix Robotics E1 is relevant to BotReburn's future second-life market, but value must be based on verified configuration, condition, ownership, and transferable software and support rights rather than model name or promotional capability alone.

Priority Refurbishment and Resale Checks

Identity, ownership chain, exact E1/E1 EDU revision and build sheet, unit-specific CE/radio documents, labels, manuals, and safety instructions
Fall and collision history; frame, covers, feet, hands, cables and ingress; joint backlash, encoders, gearbox noise, thermal condition, gait and stopping behavior
Battery cycles, capacity, cell balance, swelling, quick-release mechanism, charger, runtime, and replacement availability
Depth camera, IMU, microphones, speakers, optional LiDAR, controller, compute, Wi-Fi, Bluetooth, navigation, and interaction
Firmware and OTA baseline, SDK/API, licenses, accounts, credentials, reset evidence, software and service transfer, repair records, spares, packaging, and staged acceptance test

Second-Life Relevance

High potential, but selective. Prioritize documented E1 EDU units; reject uncertain identity, missing safety records, non-transferable software, unsupported modifications, or no credible repair and battery route.

Technical Due Diligence & Trust Report

Noetix Robotics — N2 Athlete

Compact Bipedal Research and Performance Platform | Last verified: 2026-08-08

A) Short Overview

The Noetix Robotics N2 Athlete is a commercially offered compact bipedal humanoid designed for dynamic locomotion, education, research, and public demonstrations. Noetix lists N2 and N2 EDU configurations with 18 body degrees of freedom, high-torque knees, visual teaching, onboard perception, quick-release batteries, and configuration-dependent high-compute and developer access.

For BotReburn, the N2 is a strong future secondary-market candidate. It has official purchase inquiry, international dealer availability, a documented six-to-eight-week professional supply route, replacement-battery listings, and a public used-unit offer. Its resale value will nevertheless depend on exact variant, fall and impact history, joint and battery condition, installed compute, API and SDK rights, regional support, and verifiable software reset and ownership transfer.

Official / Manufacturer-Stated Use Cases

Bipedal locomotion, reinforcement-learning, and dynamic-motion research
University, school, and STEM education programs
Entertainment performance, exhibitions, and technology demonstrations
Custom action programming and visual motion teaching
Supervised human-robot-interaction and embodied-AI development

Commercial Availability

Noetix lists N2 and N2 EDU as purchasable through a sales consultant and provides global-sales contact. RBTX markets the N2 for research and education with a usual delivery time of six to eight weeks, while other international sellers list new or used units and replacement batteries. Prices and specifications vary by channel and configuration, so only a signed quotation and manufacturer build record should define the purchased asset.

B) Key Facts

Category	Noetix Robotics N2 Athlete	Notes
Manufacturer	Noetix Robotics	Beijing Noetix Robotics Technology Group Co., Ltd.
Model / variants	N2 Athlete and N2 EDU	Compute and developer-access differences require verification
Form factor	Compact full-body, two-legged humanoid	Bipedal locomotion with two articulated arms
Dimensions	Approx. 118 x 47 x 29 cm	Official standing dimensions
Weight	Approx. 30 kg	Official specification; some reseller listings differ
Degrees of freedom	18 DoF	5 DoF per leg and 4 DoF per arm
End effector	Spherical or five-fingered hand	Configuration dependent; manipulation is limited
Peak knee torque	150 N.m	Manufacturer-stated laboratory figure
Maximum speed	Up to 3.2 m/s	Manufacturer-reported event performance
Walking load figure	Approx. 5 kg	Described as continuous-walking carrying capacity; not a verified arm payload
Compute	6 TOPS base; up to 6 + 67 TOPS on N2 EDU	High-compute option uses NVIDIA Jetson Orin Nano Super
Perception	Depth camera and IMU	RBTX describes 3D vision; verify exact camera count and model
Connectivity	Wi-Fi 6 and Bluetooth 5.2	Connected deployment requires network controls
Battery / runtime	48 V, 7 Ah quick-release battery / approx. 1-2 hours	Workload and dynamic-motion dependent
Software	Intelligent OTA; high- and low-level control interfaces	Developer access and SDK scope depend on configuration and contract
Commercial supply	Manufacturer quote; international dealer availability	RBTX states a usual six-to-eight-week delivery time
Used-market evidence	Public used-unit listing identified	Listing data must be reconciled with official specifications
EU conformity	No public model-specific declaration identified	Obtain CE and applicable machinery/radio documentation before EU use or resale

Values are manufacturer-stated unless the Notes column indicates otherwise. Configuration-specific verification is required before purchase or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Walk and run bipedally, with a manufacturer-reported speed of up to 3.2 m/s in demonstrated conditions.
Perform high-dynamic movements including jumping, dancing, and continuous flips in manufacturer demonstrations.
Support visual teaching and multi-dimensional custom action programming for education and demonstrations.
Provide depth-camera and IMU data for balance, locomotion, perception, and research workflows.
Offer high- and low-level motion-control interfaces for research and secondary development when the required configuration and license are included.
Provide a performance record that includes manufacturer-reported second place in a humanoid half-marathon and a gymnastics championship.

Known Constraints (Limits)

The N2 is optimized for locomotion and performance research, not dexterous manipulation, industrial work, or unsupervised public service.
Eighteen body DoF and simple end-effectors limit useful grasping, coordinated manipulation, and general-purpose task execution.
The approximately one-to-two-hour runtime requires battery and duty-cycle planning, especially for dynamic demonstrations.
High-speed running, jumping, and flips significantly increase fall, impact, actuator, structural, floor, and bystander risk and may accelerate wear.
Public reseller listings contain inconsistent weight, compute, hand, speed, and condition data; unit-specific build and test evidence is essential.
No public model-specific CE declaration, certificate number, functional-safety rating, IP rating, rated stair or slope specification, or independent endurance benchmark was identified.
No public security architecture, complete spare-parts catalogue, patch-support lifetime, or standardized used-unit factory-reset procedure was identified.

D) Operational Trust & Commercial Reality

Known Concerns

The N2 combines Wi-Fi, Bluetooth, depth sensing, microphones, OTA updates, onboard AI compute, motion-control APIs, and manufacturer remote-assistance capability. These interfaces expose both information-security and physical-control risk.
Low-level joint control is valuable for research but can bypass safe high-level behavior and convert software errors, malicious code, or compromised credentials into falls, collisions, or joint damage.
Public materials do not clearly define secure boot, signed-update enforcement, encryption architecture, default credentials, telemetry, logging, update provenance, or resale account transfer.
No public software bill of materials, vulnerability-disclosure policy, security advisory archive, patch-support commitment, or independent penetration-test report was identified.
The base and EDU compute stacks may differ materially; unknown modifications or an untrusted developer image should be treated as a complete software-provenance failure.

Operational Recommendations

Record the serial number, production revision, N2 versus N2 EDU status, hand type, compute module, cameras, battery, controller, accessories, firmware, and software entitlements before valuation.
Obtain unit-specific CE and radio documentation, declarations, safety instructions, battery-transport records, and destination-country compliance evidence before deployment or resale.
Place the robot on a segmented network; disable unused wireless services and restrict OTA, administration, and developer access to approved systems and named operators.
Require a documented ownership-transfer and data-erasure procedure covering credentials, Wi-Fi profiles, audio and image data, logs, developer keys, OTA enrollment, and remote-support access.
Create a trusted firmware and SDK baseline and perform a staged motion test from low-energy standing and walking through any approved dynamic maneuvers.
Operate within a controlled exclusion zone with trained spotters or restraint procedures, a verified emergency-stop method, suitable flooring, fall clearance, and no unprotected bystanders during dynamic testing.

Safety Status

The N2 should be treated as a 30 kg high-dynamic mobile machine capable of running, jumping, and falling with substantial energy. Athletic demonstrations are not evidence of safe public autonomy. Refurbishment and operation require structural inspection, conservative staged testing, a controlled exclusion zone, verified stopping behavior, battery and charging controls, and documentary confirmation of the exact compliance scope for the destination market.

Commercial Reality

Commercial Position

Compact athletic humanoid for locomotion and reinforcement-learning research
University, school, and STEM education platform
Performance, exhibition, and technology-demonstration robot
Strong secondary-market candidate with unusually high fall-history sensitivity

Procurement Reality

The official product page offers N2 and N2 EDU through consultant contact rather than a fixed public manufacturer price.
RBTX provides a professional international purchase route with a stated six-to-eight-week usual delivery time, while other sellers list new inventory, used units, and replacement batteries.
A public used N2 listing proves an emerging secondary market, while inconsistent weight and compute data require serial-level identification and a build record.
Published standard after-sales terms apply only to mainland China, authorized personal-use purchases, and exclude resale; international transferable support requires a separate contract.
Confirm warranty, repair logistics, structural parts, batteries, shipping fixtures, SDK/API and OTA access, customs, and local compliance.

E) BotReburn Trust Note

The Noetix Robotics N2 Athlete is relevant to BotReburn's future second-life market, but value must be based on verified configuration, condition, ownership, and transferable software and support rights rather than model name or promotional capability alone.

Priority Refurbishment and Resale Checks

Identity, ownership chain, exact N2/N2 EDU revision and build sheet, unit-specific CE/radio documents, labels, manuals, and safety instructions
Fall, flip, jump, collision and repair history; frame, covers, feet, hands and cables; joint backlash, encoders, gearbox noise, thermal behavior, gait and stopping behavior
Battery cycles, capacity, cell balance, swelling, quick-release mechanism, charger, runtime, and replacement availability
Depth cameras, IMU, microphones, speakers, controller, compute, Wi-Fi, Bluetooth, visual teaching, and purchased motion interfaces
Firmware and OTA baseline, SDK/API, licenses, accounts, credentials, reset evidence, software and service transfer, repair records, spares, packaging, and staged acceptance test

Second-Life Relevance

High potential, with strict intake controls. Prioritize documented N2 EDU units with clean structural histories; reject uncertain identity, undisclosed falls, non-transferable software, unsafe modifications, or no credible repair route.

RobotEra

Technical Due Diligence & Trust Report

RobotEra — L7

Full-Size High-Performance Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The RobotEra L7 is a full-size bipedal humanoid robot platform developed by Beijing RobotEra Technology Co., Ltd. for embodied AI research, dynamic mobility, fine manipulation, teleoperation, logistics experimentation, and high-performance humanoid demonstrations.

The L7 is positioned as a human-scale humanoid platform combining large-scale dynamic motion with fine manipulation. It is designed to support both full-body bipedal operation and upper-body deployment configurations, which may reduce integration complexity for selected research or industrial test environments.

Official Use Cases:

Embodied AI Research
Full-Body Teleoperation
Logistics and Parcel Handling
Industrial Manipulation Research
High-Dexterity Task Development
Public Demonstration and Performance Robotics

Commercial Availability:
The RobotEra L7 is commercially accessible through specialized inquiry and distributor channels. Extend Robotics lists the RobotEra L7 with a contact-for-pricing process, indicating that procurement should be treated as a configuration-specific professional or enterprise purchase rather than a consumer-grade online checkout.

B) Key Facts

Category	RobotEra L7	Notes
Manufacturer	Beijing RobotEra Technology Co., Ltd.	China
Model	L7	Full-size bipedal humanoid
Height	171 cm	Manufacturer-reported via CES release
Weight	~70 kg	Publication-dependent; some profiles list ~65 kg
Degrees of Freedom	55 DOF	Full-body platform
Arm System	7-DoF bionic arms	Manufacturer-reported
Hand System	XHAND1 dexterous hands	12 active DoF
Dual-Arm Payload	Up to 20 kg	Manufacturer-reported
Peak Joint Torque	Up to 400 N·m	Distributor / technical profile data
Mobility	Walking, running, jumping, dynamic motion	Demonstration-based evidence
Teleoperation	Full-body teleoperation supported	Manufacturer-reported
AI System	ERA-42 / VLA-oriented embodied AI stack	Hardware details not fully public
Sensors	Binocular vision, 3D LiDAR, perception stack	Exact sensor specifications not fully public
Connectivity	Ethernet, USB, HDMI, wireless control	Publication-dependent
Battery Runtime	Unknown	Not clearly published
Charge Time	Unknown	Not clearly published
IP Rating	Unknown	No confirmed public rating
ROS / ROS2 Support	Unknown	Not clearly stated for L7
Commercial Status	Contact for pricing / inquiry	Professional procurement path

C) Capabilities & Limits

Verified Capabilities (Can):

Full-size bipedal humanoid motion with 55 degrees of freedom.
Human-scale manipulation using 7-DoF arms and XHAND1 12-DoF dexterous hands.
Dual-arm payload capability up to 20 kg, suitable for logistics and manipulation research.
Full-body teleoperation for complex or non-standard tasks.
High-dynamic movement demonstrations including running, jumping, spinning, and balance recovery.
Fine manipulation research through professional dexterous hand hardware.
Support for both full-body humanoid and upper-body configurations, depending on deployment requirements.

Known Constraints (Limits):

Battery capacity, runtime, and charging time are not clearly published in the reviewed documentation.
IP rating and environmental operating limits are not clearly stated; outdoor or wet operation should not be assumed.
Safety certifications for unrestricted collaborative industrial use are not publicly verified.
Detailed compute specifications for the ERA-42 embodied AI system are not fully public.
ROS / ROS2 support is not clearly confirmed for the L7 model.
EU/DACH service infrastructure, spare-part routing, warranty terms, and repair workflows require direct confirmation.
The platform should be treated as a high-performance research and pilot humanoid, not as a fully standardized industrial cobot.

D) Operational Trust & Commercial Reality

Known Concerns:

The L7 is a sensor-rich and network-connected humanoid platform.
Full-body teleoperation, visual perception, microphones, and embodied AI workflows may involve sensitive operational or personal data.
Enterprise deployments may require clarity on data routing, remote access, operator logging, software licensing, and update control.
The proprietary nature of the ERA-42 / VLA-oriented stack may create vendor lock-in and long-term lifecycle dependency.

Operational Recommendations:

Request a complete software and data-processing statement before deployment.
Confirm whether video, audio, teleoperation, and task data can be processed locally.
Use segmented enterprise networks for pilot or research deployments.
Confirm access to SDKs, APIs, teleoperation interfaces, and any software licensing terms in writing.
Require a configuration sheet defining hands, sensors, compute package, battery, warranty, and support level.
Operate only in controlled indoor environments until safety certification and environmental limits are contractually confirmed.

Safety Status:
The RobotEra L7 should currently be treated as an advanced humanoid research and pilot platform. It is not yet verified by BotReburn as a fully certified collaborative industrial robot for unrestricted operation around unprotected workers.

Commercial Reality

The RobotEra L7 is a high-performance humanoid platform with strong technical relevance for research, teleoperation, logistics experimentation, and advanced manipulation.

Commercial Position:

Full-size humanoid research platform
High-performance embodied AI platform
Teleoperation and manipulation testbed
Logistics and industrial pilot candidate
Public demonstration and performance humanoid
Dexterous-hand development platform

Procurement Reality:

L7 procurement is handled through inquiry-based professional channels.
Extend Robotics lists the model with contact-for-pricing access.
Public pricing, warranty, regional service terms, and delivery conditions are not standardized across published materials.
Buyers should request a signed quotation, exact configuration, software access scope, warranty terms, spare-part plan, and regional service route.
Any claim around runtime, certification, industrial readiness, or autonomous deployment should be confirmed directly with RobotEra or the authorized distributor.

E) BotReburn Trust Note

The RobotEra L7 is a relevant BotReburn platform because it combines full-size humanoid form, high dynamic performance, dexterous hands, teleoperation, and a clear push toward logistics and embodied AI experimentation.

For future resale, refurbishment, and verification, the most important checks will be:

Exact model identification and configuration sheet.
Verification of XHAND1 hand type, condition, calibration, and actuator health.
Battery health, runtime behavior, charging system, and battery replacement availability.
Joint wear, impact history, balance behavior, and signs of high-dynamic motion stress.
Sensor integrity, including binocular vision, LiDAR, microphones, and perception hardware.
Teleoperation interface, software license status, and data-routing configuration.
Firmware version, update history, SDK/API access, and support entitlement.
Original invoice, purchase agreement, warranty scope, distributor record, and service history.

Second-Life Relevance:
The RobotEra L7 is considered a medium-to-high future second-life candidate for research labs, teleoperation developers, logistics pilots, and advanced manipulation environments. Its resale value will depend heavily on documentation quality, hand condition, actuator wear, software access, battery lifecycle, and availability of regional support.

UBTECH Robotics

Technical Due Diligence & Trust Report

UBTECH — Walker S1

Industrial Humanoid Platform | Last verified: 2026-02-02

A) Short Overview

The UBTECH Walker S1 is a full-sized industrial humanoid robot platform designed by UBTECH for factory and logistics workflows within smart manufacturing environments.

Manufacturer-Stated Use Cases:

Industrial Logistics Integration: Coordinating manufacturing logistics, including parts handling and intra-factory delivery scenarios.
Vehicle Manufacturing Workflows: Application in automotive production lines for specialized industrial tasks.
Industrial Deployment Positioning: Specifically labeled and engineered as an "industrial humanoid" for high-stakes production environments.

Commercial Availability:

Commercial procurement is currently handled on a quote-based inquiry basis. For the European market, availability is subject to regional distributor allocations.

B) Key Facts

Category	UBTECH Walker S1	Notes / Variant
Manufacturer	UBTECH Robotics	-
Model Positioning	Industrial humanoid robot	Target: Smart Manufacturing
Height (Standing)	172 cm	(See Discrepancies)
Weight	76 kg	-
Total DoF (Degrees of Freedom)	41	Full-body coordination
Payload / Load	15 kg	Rated carrying capacity
Peak Joint Torque	250 N·m	High-performance actuation
Battery / Runtime	Unknown	Not confirmed in official documentation
Sensors / Perception	Panoramic fisheye + RGB-D	Includes force/torque sensing
OS / Framework	ROSA 2.0	UBTECH proprietary framework
IP Rating	Unknown	Environmental sealing not stated
Warranty	Policy-based	Verify via contract/quote

Note on Discrepancies: There is a conflict in reported height; while official materials state 172 cm, some published third-party data mistakenly list "138 m." Lead-times for the EU are currently listed as "subject to availability" by regional partners.

C) Capabilities & Limits

Verified Capabilities (Can):

Industrial Design: Purpose-built for structured factory workflows and coordination with manufacturing logistics.
High-Grade Actuation: Capable of handling significant loads (15 kg) with a high peak torque of 250 N·m.
Perception Stack: Advanced spatial acquisition using panoramic and depth sensors combined with force feedback.

Known Constraints (Limits):

Environmental Sealing: No official IP rating is stated; suitability for dusty or wet environments is Unknown.
Operational Runtime: Battery life and charging cycles are not confirmed in official public documentation.
Software Integration: While ROSA 2.0 is used, official ROS2 support scope remains Unknown.

D) Verified Deployments (Reported)

Organization	Location	Purpose
BYD	China	Practical training in factory scenarios
Foxconn	Shenzhen, China	Industrial collaboration and training
Zeekr (Geely)	Ningbo, China	Industrial work integration ("clocking in")
Audi FAW NEV	Changchun, China	Reported industrial deployment narrative

E) BotReburn Trust Note (Procurement Guidance)

Configuration Sheet: Always require a specific as-quoted configuration sheet (payload, runtime, spares) as a purchase appendix.
Runtime Confirmation: Treat all battery claims as Unknown until they are explicitly confirmed in a signed specification sheet.
Environment Suitability: Since the IP rating is unknown, validate the robot's suitability for your specific environment (dust, coolant mist, humidity) before deployment.
After-Sales Scope: Strictly confirm the service routing and escalation paths for EU buyers via UBTECH's commercial channels.
Deployment Status: While media reports show various factory "trainings," treat these as pilot phases unless a model-specific production confirmation is provided.

Technical Due Diligence & Trust Report

UBTECH — Walker S2

Industrial Humanoid with Autonomous Battery Exchange | Last verified: 2026-06-25

A) Short Overview

The UBTECH Walker S2 is a full-size bipedal industrial humanoid designed for manufacturing, logistics, inspection, and quality-control workflows. At approximately 176 cm and 70 kg, with 52 degrees of freedom, the platform is positioned for enterprise deployments rather than consumer or general educational use.

Its defining feature is a dual-battery system with an autonomous exchange process of approximately three minutes. This is intended to reduce charging downtime and support near-continuous operation when a compatible battery station and operating environment are available.

Manufacturer-Stated and Reported Use Cases

Automotive and electronics manufacturing
Intra-factory logistics and material handling
Quality inspection and carton handling
Fleet-coordinated industrial workflows
Early-stage aviation-manufacturing trials

Commercial Availability

Walker S2 procurement is handled through enterprise sales and regional integration partners. No binding public list price is available, and published price ranges vary materially by configuration and channel. Buyers should rely only on a signed quotation that defines hardware, software, commissioning, service, compliance documentation, and regional support.

B) Key Facts

Category	UBTECH Walker S2	Notes
Manufacturer	UBTECH Robotics	Industrial Walker platform
Height	176 cm	Published product specification
Weight	Approx. 70 kg	Configuration-dependent figures may be higher
Degrees of freedom	52	Includes 11 DoF per dexterous hand
Arm configuration	7 DoF per arm	Dual-arm manipulation
Rated carrying load	Up to 15 kg total	Confirm in the purchased configuration
Hand grip capability	Up to 7.5 kg per hand	Finger-level limits are lower
Maximum speed	Up to 2 m/s	Controlled conditions
Perception	Fisheye, RGB, RGB-D, stereo vision, IMUs and force sensing	Exact sensor package must be confirmed
Battery system	Dual 48 V LiFePO4 batteries	Autonomous exchange in approximately 3 minutes
Runtime	Task-dependent	Published figures differ between walking and low-motion operation
Software architecture	Local Co-Agent plus BrainNet 2.0 fleet layer	Exact compute and OS configuration require confirmation
Connectivity	Wi-Fi and Bluetooth; optional cellular connectivity may be offered	Configuration dependent
Operating environment	0-40 degrees C; 20-80% humidity; indoor industrial use	Avoid flammable, corrosive, or strong-EMI environments
Safety distance	At least 1.5 m during operation	Operator guidance
Commercial status	Enterprise quotation	No standardized public list price
EU conformity	Product-specific evidence not publicly established	Require signed documentation before EU use or resale

Configuration-specific verification is essential. Weight, runtime, compute hardware, software version, connectivity, price, and regional compliance may differ between units and contracts.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Perform bipedal industrial movement and coordinated whole-body manipulation.
Carry up to 15 kg as a combined two-arm load under defined conditions.
Use fourth-generation dexterous hands with tactile sensing for industrial handling tasks.
Exchange its own battery packs through a compatible station to reduce operational downtime.
Coordinate tasks, status monitoring, and fleet behavior through local and connected software layers.
Operate across a vertical workspace of up to approximately 1.8 m with a highly mobile waist.
Support structured factory and logistics pilots with documented enterprise customers.

Known Constraints (Limits)

Current task productivity has been described as materially below trained human performance for selected workflows; deployment economics require task-specific validation.
Battery endurance is workload-dependent, and published figures differ between walking, standing, and light-work conditions.
Exact compute hardware, operating-system version, SDK scope, account binding, and software-transfer rights are not standardized publicly.
Independent functional-safety certification and product-specific EU conformity documentation were not publicly established in the reviewed material.
The platform is not suitable for flammable, corrosive, wet, or strongly electromagnetically disturbed environments unless a contracted configuration explicitly permits them.
Public deployment claims include pilots and concept tests; they should not be treated automatically as mature, unattended production use.

D) Operational Trust & Commercial Reality

Operational Trust

The robot combines cameras, microphones, wireless connectivity, remote administration, over-the-air updates, and fleet coordination. Enterprise buyers should obtain a written description of data routing, retention, authentication, encryption, remote access, and update control.
No complete public software bill of materials, product-specific security audit, ownership-transfer procedure, or standardized resale reset process was identified.
A physical emergency-stop function and operational safety guidance are documented, but buyers must validate stopping behavior, fall clearance, collision zones, payload limits, and site-specific risk controls on the delivered unit.
For EU operation, camera, microphone, teleoperation, and fleet data may require a documented privacy assessment and local processing controls.

Commercial Reality

Reported deployments and trials include automotive, electronics, logistics, border-service, and aviation-manufacturing environments; maturity varies from pilot or concept testing to broader industrial rollout.
Enterprise orders and delivered-unit claims indicate real market activity, while production targets and certification status remain time-sensitive.
Purchase-price indications span a wide range, and service, commissioning, battery infrastructure, compliance work, training, and human supervision can materially increase total cost.
Regional warranty, spare-parts access, repair routing, software entitlement, fleet services, and support response times require contractual confirmation.

E) BotReburn Trust Note

The Walker S2 is a credible industrial humanoid with meaningful market activity and a distinctive autonomous battery-exchange system. It remains a configuration-sensitive asset whose practical value depends on task productivity, software rights, battery infrastructure, compliance evidence, and long-term service access.

Priority Procurement and Second-Life Checks

Confirm serial identity, exact hardware configuration, build record, ownership chain, and service history.
Obtain a signed product-specific specification covering payload, runtime, compute, sensors, hands, software version, connectivity, and environmental limits.
Require the applicable declaration of conformity, safety documentation, battery-transport records, operating instructions, and destination-market evidence.
Inspect joint wear, backlash, gearbox noise, thermal behavior, balance, stopping behavior, dexterous-hand condition, sensors, and prior collision or fall history.
Test both battery packs, exchange station, cycle history, cell health, runtime, charging behavior, and replacement availability.
Verify firmware provenance, administrative control, account release, data erasure, update rights, SDK/API entitlements, fleet-service access, and license transfer.
Define warranty, spare parts, maintenance intervals, technical support, response times, remote-access boundaries, and repair logistics in the purchase contract.
Run a task-specific acceptance trial using the intended payload, cycle time, floor conditions, network architecture, and safety zone before final acceptance.

Second-Life Relevance

Current second-life potential is moderate but conditional. Value can improve as installed fleets mature and transfer, compliance, service, and software-rights processes become standardized. Units without a complete ownership record, safe reset, battery infrastructure, conformity evidence, or transferable support should be treated as high-risk assets.

Unitree

Technical Due Diligence & Trust Report

Unitree Robotics — G1

Compact Humanoid Research Platform | Last verified: 2026-06-24

A) Short Overview

The Unitree G1 is a compact bipedal humanoid platform designed for robotics research, education, embodied-AI development, and controlled demonstrations. The base configuration focuses on mobility and general interaction, while EDU configurations add broader joint options, development access, higher onboard computing capacity, and optional dexterous hands.

The platform is commercially offered at a comparatively accessible entry price for a humanoid robot. Buyers must nevertheless distinguish the base and EDU tiers before ordering: low-level development, ROS 2 workflows, advanced compute, and active hands are configuration-dependent and should never be assumed from the G1 model name alone.

Manufacturer-Positioned Use Cases

Humanoid locomotion, balance, and whole-body-control research
Embodied AI, imitation learning, and reinforcement-learning development
University and corporate robotics laboratories
Controlled demonstrations, education, and human-robot-interaction experiments
Light manipulation with suitably equipped EDU configurations

Commercial Availability

The base G1 is publicly offered from approximately US$13,500 before shipping, duties, taxes, accessories, and regional compliance costs. EDU configurations are priced substantially higher depending on joint count, computing hardware, hands, and development package. Buyers should obtain a configuration-specific quotation and written confirmation of software access, warranty, delivery, and regional service.

B) Key Facts

Category	Unitree G1	Notes
Manufacturer	Unitree Robotics	Hangzhou, China
Platform type	Compact bipedal humanoid	Research, education, and demonstrations
Height	Approximately 127-132 cm	Configuration dependent
Weight	Approximately 35 kg	Including battery, depending on configuration
Degrees of freedom	23 base; approximately 29-43 EDU	Hands and torso options change the total
Maximum knee torque	Approximately 90 N.m base; up to 120 N.m EDU	Peak value, not a continuous-duty rating
Arm payload	Approximately 2 kg base; up to about 3 kg EDU	Task and posture dependent
Hands	Fixed end effectors base; optional active hands EDU	Exact hand type must be documented
Perception	3D LiDAR, depth camera, microphone array	Delivered sensor revision must be verified
Compute	8-core CPU base; optional NVIDIA modules EDU	Advanced AI compute is configuration dependent
Battery	Quick-release lithium battery, approximately 9 Ah	Condition and transport paperwork are important for resale
Runtime	Approximately 2 hours	Motion and compute load dependent
Connectivity	Wi-Fi 6 and Bluetooth 5.2	Requires controlled network configuration
Development	EDU configurations support deeper development and ROS 2 workflows	Base model does not provide equivalent access
Commercial status	Publicly offered; some configurations by quotation	Delivery time and regional support require confirmation
IP rating	Not publicly specified	Indoor controlled use should be assumed

Material Configuration Differences

The base and EDU configurations differ in joint count, hands, computing hardware, and software permissions.
Promotional motion demonstrations do not establish payload endurance, industrial duty cycle, or collaborative safety.
Exact serial revision, delivered accessories, firmware, and calibration package materially affect value and usability.

C) Capabilities & Limits

Verified or Documented Capabilities

Perform dynamic bipedal locomotion, balancing, recovery, and coordinated whole-body motions in controlled environments.
Support perception and navigation research through an integrated LiDAR and depth-camera stack.
Provide deeper development workflows on EDU configurations, including ROS 2 integration and reinforcement-learning experimentation.
Support optional active hands and higher compute for laboratory manipulation and embodied-AI work.
Use a removable battery architecture that can reduce downtime when healthy spare packs and approved charging equipment are available.

Known Constraints

The base configuration is not equivalent to an open research platform; buyers needing low-level control should select and document the correct EDU tier.
The approximately two-hour runtime is scenario dependent and may fall under intensive motion, sensing, or AI workloads.
Arm payload is limited, and the G1 is not intended for heavy industrial manipulation.
No public IP rating, unrestricted collaborative-operation certification, or standardized industrial uptime result was identified in the reviewed material.
Falls and aggressive demonstrations can damage reducers, bearings, encoders, cables, feet, covers, sensors, and frame alignment even when the robot still powers on.
Battery transport requires specialist planning and should not be treated like ordinary passenger luggage.

D) Operational Trust & Commercial Reality

Cybersecurity and Data Governance

Publicly reported vulnerabilities affecting shared Unitree platform components create a material security concern for networked deployment. The current firmware and remediation status must be verified immediately before purchase or recommissioning.
Wireless provisioning, remote services, sensor streams, and update functions increase the importance of network isolation, account control, and documented data routing.
Audio, video, telemetry, and operational logs may create privacy and cross-border data-governance obligations in enterprise, education, and public-facing settings.
Until the installed software baseline has been assessed, the robot should be operated only on an isolated test network with tightly controlled credentials and outbound connectivity.

Operational Recommendations

Record the exact model tier, serial number, production revision, firmware, SDK, compute module, hands, sensors, batteries, charger, and accessories.
Reset accounts, wireless settings, credentials, and remote-access services before connecting a second-hand unit to any institutional network.
Archive a known-good recovery image, calibration data, configuration files, and permitted development packages.
Begin testing with reduced motion limits, fall protection, an exclusion zone, trained operators, and an accessible power cut-off.
Require written confirmation of the current security-remediation status, software permissions, update policy, warranty, and support rights.

Commercial Reality

The low base price does not represent the total cost of a research-ready EDU configuration.
Shipping, import duties, taxes, compliant battery logistics, accessories, hands, computing upgrades, training, spares, and regional service can materially increase total cost.
Regional distributor support may improve procurement and repair routing, but buyers should confirm whether the seller is authorized and whether warranty or software rights transfer to a second owner.
A formal quotation should identify every hardware and software option and should not use the generic term "G1" without a configuration schedule.

E) BotReburn Trust Note

The Unitree G1 has strong second-life potential because of its recognizable platform, comparatively low entry price, active research use, and modular EDU configurations. Its resale value is nevertheless highly dependent on configuration transparency, mechanical condition, battery health, transferable software access, and a verifiable secure software baseline.

Priority Refurbishment and Resale Checks

Confirm base versus EDU tier, serial number, production revision, original quotation, invoice, configuration sheet, and ownership history.
Inspect fall history, frame alignment, feet, covers, fasteners, cables, reducers, bearings, backlash, encoder consistency, joint noise, temperature, and current draw.
Inventory hands, compute modules, LiDAR, depth camera, microphones, controller, charger, batteries, transport fixtures, and all optional accessories.
Test battery identity, age, cycles, cell balance, swelling, connectors, usable capacity, charger condition, and storage history.
Verify firmware, SDK rights, calibration files, recovery procedures, account reset, update history, licenses, and the current security-remediation status.
Conduct acceptance testing with physical support and reduced limits before standing, low-speed walking, manipulation, stop behavior, fault recovery, and thermal observation.
Do not publish or resell the unit for connected institutional use until network behavior and software security have been independently cleared for the intended environment.

BotReburn should treat a complete, low-fall-history EDU unit with healthy batteries, documented software rights, and a verified secure configuration as the strongest resale candidate. An undocumented base unit or any unit with uncertain remediation status requires a substantial risk discount and restricted testing conditions.

Technical Due Diligence & Trust Report

Unitree Robotics — H2

Full-Size Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The Unitree H2 is a full-size humanoid robot platform developed by Unitree Robotics as the successor-level expansion of the company’s H-series humanoid line. With a human-scale body, bionic head design, 31 degrees of freedom, and high joint torque, the H2 is positioned between advanced humanoid research, high-end demonstration, and future commercial service applications.

Unlike smaller platforms such as the Unitree G1 or R1, the H2 is designed as a 182 cm, 70 kg humanoid system with stronger actuation, longer limbs, a larger battery, and a more human-like physical presence.

Official Use Cases:

Humanoid Robotics Research
Embodied AI Development
Human-Robot Interaction
Demonstration & Showcase Applications
Light Service and Experimental Task Development

Commercial Availability:
The Unitree H2 is commercially listed through Unitree’s official shop at a public base price of $29,900 USD, excluding taxes, shipping, customs duties, and regional import costs. The H2 EDU version is available through sales contact and is required for secondary development and deeper software customization.

B) Key Facts

Category	Unitree H2	Notes
Manufacturer	Unitree Robotics	China
Model	H2	Full-size humanoid
Height	182 cm	1820 × 456 × 218 mm
Weight	~70 kg	With battery
Degrees of Freedom	31 DOF	Full-body articulation
Single Arm DoF	7 per arm	Human-like reach and motion
Single Leg DoF	6 per leg	Dynamic bipedal locomotion
Waist / Head DoF	3 / 2	Supports body posture and gaze orientation
Arm Payload	Rated ~7 kg / Peak ~15 kg	Manufacturer-published, configuration dependent
Arm Joint Torque	Up to 120 N·m	Manufacturer-published
Leg Joint Torque	Up to 360 N·m	Manufacturer-published
Battery	15 Ah / 0.972 kWh	Quick-release smart battery
Battery Runtime	~3 hours	Scenario dependent
Compute	Intel Core i5 base	EDU adds Intel Core i7 / high-compute options
AI Compute Option	Up to Jetson AGX Thor / 2070 TOPS	EDU / configuration dependent
Sensors	Binocular camera, microphone array, speaker	Wide-FOV humanoid vision
Connectivity	Wi-Fi 6, Bluetooth 5.2	Network-connected platform
SDK Access	EDU only	Secondary development gated
Warranty	8 months / 12 months EDU	Manufacturer-published
Commercial Status	Listed / available through Unitree	EDU via sales inquiry

C) Capabilities & Limits

Verified Capabilities (Can):

Full-size humanoid motion with 31 degrees of freedom and high-torque leg actuation.
Human-scale movement research through 7-DoF arms, 6-DoF legs, 3-DoF waist, and 2-DoF head.
Bionic head design for more expressive human-robot interaction and social robotics research.
Wide-field binocular vision, microphone array, and speaker system for perception and voice interaction.
EDU configuration supports secondary development and higher compute options for advanced research.
Quick-release battery system and OTA update support for practical operation and platform maintenance.

Known Constraints (Limits):

The base H2 is not the correct choice for custom software development; secondary development is officially tied to the EDU version.
The platform weighs approximately 70 kg and has powerful actuation, making controlled environments, safety distance, and trained operators essential.
Battery runtime is listed at approximately 3 hours, but real operating time may vary depending on motion intensity, compute load, and task profile.
Functional dexterous manipulation may require configuration-specific hardware; the base model should not be assumed to include full research-grade hands.
No public documentation was found in the checked official documentation for unrestricted collaborative industrial safety certification.
The H2 should be treated as an advanced humanoid platform, not as a plug-and-play consumer household robot.

D) Operational Trust & Commercial Reality

Known Concerns:

The H2 is a network-connected humanoid platform using Wi-Fi 6 and Bluetooth 5.2.
Audio and visual sensors create privacy and data-governance obligations in enterprise, education, and public-facing environments.
Unitree’s broader humanoid and quadruped ecosystem has previously raised cybersecurity attention, so enterprise buyers should request firmware, patch, and network-hardening documentation before deployment.

Operational Recommendations:

Use isolated test networks for laboratory and enterprise deployments.
Confirm firmware version, update policy, and data-routing behavior before first operation.
Require a safety zone during motion testing, especially for dynamic gait, balance, and manipulation experiments.
Use safety tethering or controlled test environments during development and high-agility motion testing.
Confirm whether the selected configuration includes EDU access, dexterous hands, high-compute hardware, and development documentation before purchase.

Safety Status:
The H2 should currently be treated as a powerful research and development humanoid platform. It is not yet verified by BotReburn as a fully certified collaborative industrial robot for unrestricted operation around people.

Commercial Reality

The Unitree H2 is one of the lowest-priced full-size humanoid platforms publicly listed by an established robotics manufacturer.

Commercial Position:

Full-size humanoid research platform
High-end demonstration system
Embodied AI development platform
Human-robot interaction testbed
Future service robotics candidate

Procurement Reality:

Base H2 is publicly listed by Unitree at $29,900 USD.
Taxes, shipping, customs duties, local compliance costs, and accessories are not included in the base price.
H2 EDU requires direct sales contact and should be selected when SDK access, custom development, or high-compute research is required.
Buyers should request a formal quotation specifying exact configuration, compute module, hand hardware, warranty scope, spare-part access, and software permissions.

E) BotReburn Trust Note

The Unitree H2 is a high-priority BotReburn platform because it combines full-size humanoid form, public commercial listing, strong actuation, and a realistic future second-life market profile.

For future resale, refurbishment, and verification, the most important checks will be:

Exact model tier: H2 vs H2 EDU.
Development access: closed commercial configuration vs secondary-development configuration.
Battery health, charge cycles, and quick-release battery condition.
Joint wear, actuator noise, and signs of impact from dynamic motion testing.
Head, camera, microphone, and sensor integrity.
Firmware version, OTA history, and cybersecurity hardening.
Availability of original quote, invoice, warranty documents, and configuration sheet.
Verification of optional hardware such as dexterous hands and high-compute modules.

Second-Life Relevance:
The H2 is considered a strong future second-life candidate due to its commercial availability, human-scale design, expected research adoption, and comparatively low entry price for a full-size humanoid robot. However, its long-term resale value will depend heavily on configuration transparency, actuator condition, battery lifecycle, software access, and regional service availability.

Technical Due Diligence & Trust Report

Unitree Robotics — R1

Consumer & Education Humanoid Platform | Last verified: 2026-05-14

A) Short Overview

The Unitree R1 is an ultra-lightweight humanoid robot platform developed by Unitree Robotics for education, research, and consumer-focused embodied AI applications. Designed around a “movement first” philosophy, the R1 emphasizes dynamic locomotion, portability, and affordability while maintaining compatibility with modern AI and robotics development frameworks.

Official Use Cases:

Education & Robotics Research
Human-Robot Interaction (HRI)
Embodied AI & Reinforcement Learning
Consumer Demonstration & Home Robotics

Commercial Availability:
The Unitree R1 is officially available through preorder and direct purchase channels. The platform is offered in multiple configurations, including closed consumer models and open EDU variants with full SDK and ROS 2 development support.

B) Key Facts

Category	Unitree R1	Notes
Manufacturer	Unitree Robotics	China
Height	121–123 cm	Child-scale humanoid
Weight	~25–29 kg	Single-person portable
Degrees of Freedom	20–38+ DOF	Variant dependent
Max Speed	Up to 9 km/h	Dynamic locomotion
Payload	~2 kg per arm	Light manipulation
Battery Runtime	~1 hour	Quick-release battery
Sensor System	Monocular / Binocular Vision	Depends on variant
AI Compute	Up to 100 TOPS (EDU)	Jetson Orin options
SDK Access	EDU models only	ROS 2 supported
Commercial Status	Available / Preorder	Global distribution

C) Capabilities & Limits

Verified Capabilities (Can):

Dynamic movement including running, recovery, balancing, and advanced motion demonstrations.
Portable deployment for classrooms, laboratories, and mobile robotics research.
Open development support on EDU variants including reinforcement learning workflows and ROS 2 integration.
Advanced dexterous hand options available on higher-tier EDU models.

Known Constraints (Limits):

Consumer variants are closed systems without low-level software access.
Battery runtime remains limited for long-duration autonomous operation.
Payload capacity is optimized for lightweight manipulation only.
Current deployment focus remains education, R&D, and demonstration environments rather than industrial heavy-duty workflows.

D) Operational Trust & Commercial Reality

Known Concerns:

Independent researchers identified Bluetooth-related vulnerabilities in late 2025 affecting unauthorized actuator access on some Unitree humanoid systems.
Some deployments raised data governance concerns regarding outbound traffic and cloud connectivity.

Operational Recommendations:

Use isolated enterprise VLAN environments for institutional deployments.
Maintain current OTA firmware updates.
Verify regional compliance requirements before public deployment.
Confirm software access level before purchase (Consumer vs EDU).

Safety Status:
The R1 is not currently positioned as a certified collaborative industrial humanoid platform for unrestricted factory deployment.

Commercial Reality

The R1 is currently one of the lowest-cost commercially accessible humanoid robots from an established manufacturer.

Available Variants:

R1 Air
R1 Basic
R1 EDU Series (U1–U6)

Market Position:

Consumer & Hobbyist Entry
Education & University Research
AI Development Testbed
Affordable Humanoid Platform

Estimated Pricing:

R1 Air: ~$4,900
R1 Basic: ~$5,900
EDU variants: higher depending on compute and hand configuration

E) BotReburn Trust Note

The Unitree R1 represents one of the strongest indicators that humanoid robotics is transitioning from laboratory systems toward scalable commercial accessibility.

Key procurement considerations:

Verify whether SDK access is required before selecting a model tier.
Confirm spare-part availability and regional service support.
Evaluate cybersecurity policies for enterprise or educational network environments.
Understand the distinction between consumer demonstration models and full research-grade EDU systems.

For second-life and refurbishment markets, the R1 is considered a high-potential future volume platform due to its low price point, expected deployment scale, and educational adoption potential.

Technical Due Diligence & Trust Report

Unitree Robotics — H1 and H1-2

Full-Size Dynamic Humanoid Research Platforms | Last verified: 2026-08-09

A) Short Overview

Unitree H1 and H1-2 are full-size, electrically powered bipedal humanoid research platforms. They share Unitree's high-torque joint architecture, removable 0.864 kWh battery, 3D LiDAR and depth-camera perception, onboard platform and user-development computers, and access to the Unitree SDK ecosystem. They are nevertheless materially different products: H1 is the lighter, faster 19-DoF locomotion platform, while H1-2 is a heavier 27-DoF iteration with two-axis ankles, seven-axis arms, a waist joint, and materially greater manipulation capability.

For BotReburn, both platforms remain relevant to a specialist institutional second-life market, but they must never be grouped under a generic H1 listing. H1 has an official shop entry showing a US$90,000 records amount while directing buyers to contact sales for the actual price. H1-2 has current product documentation, developer interfaces, and an official industry-order route, but no separate public shop SKU or list price was identified. H1-2 should therefore be classified as commercially offered by request, not as directly orderable online.

Manufacturer-Positioned Use Cases

Dynamic bipedal locomotion, balance, disturbance recovery, and whole-body-control research
Humanoid manipulation and embodied-AI development, especially on H1-2
Perception, navigation, mapping, teleoperation, and multimodal robotics experiments
University, corporate, and national-laboratory humanoid research programs
Controlled demonstrations, data collection, and algorithm validation

Commercial Availability

H1 remains listed in Unitree's official global shop with a US$90,000 records amount, but the listing explicitly requires contact with sales for the actual price. H1-2 appears on the current official H1/H1-2 product page, in the current developer documentation, and within Unitree's industry-level order workflow, but no separate checkout listing or public price was identified. The order form describes a submitted booking as an expression of intent followed by sales confirmation. H1 is therefore a quote-confirmed commercial product; H1-2 is a commercial RFQ/order-intent product whose configuration, delivery, support, and price must be confirmed in a signed quotation.

B) Key Facts

Category	Unitree H1 and H1-2	Notes
Manufacturer	Unitree Robotics	Hangzhou, China
Models assessed	H1 and H1-2	Separate configurations; do not value under one generic model name
Height	H1 approx. 1.805 m; H1-2 approx. 1.788 m	Derived from current manufacturer key dimensions
Weight	H1 approx. 47 kg; H1-2 approx. 70 kg	Including battery according to product table context
Degrees of freedom	H1 19; H1-2 27	H1 total also stated in Unitree commercial communications
Leg architecture	H1 5 DoF each; H1-2 6 DoF each	H1-2 adds a second ankle axis
Arm architecture	H1 4 DoF each; H1-2 7 DoF each	H1 arms described as expandable
Waist / hands	H1 configuration dependent; H1-2 waist plus optional hands	H1-2 supports optional Dex5-1 or other compatible hands
Maximum joint torque	Knee approx. 360 N.m	Joint-specific peak values; not continuous torque
H1-2 arm load	Rated approx. 7 kg; peak approx. 21 kg	Manufacturer-published; posture and duration conditions are not fully defined
Mobility	H1 3.3 m/s stated; H1-2 below 2 m/s	H1 potential above 5 m/s is a manufacturer capability statement
Battery	15 Ah, 0.864 kWh; max. 67.2 V	Quickly removable; verify pack identity, health, and transport status
Compute	Intel Core i5 platform PC plus Core i7 user PC	Optional Intel or NVIDIA Orin NX modules; H1-2 supports up to three devices
Perception	3D LiDAR plus depth camera	Exact sensor models and revisions must be inventoried
Development	Unitree SDK2 and published H1/H1-2 interfaces	Delivered software access and low-level permissions must be verified
Commercial route	H1 shop/RFQ; H1-2 industry-order RFQ	H1-2 has no separate public checkout SKU identified
Warranty	Not stated on the current H1/H1-2 product page	General terms apply; exact duration and second-owner eligibility require contract records

Values are manufacturer-published unless the Notes column indicates otherwise. Configuration-specific verification is required before purchase or resale.

C) Capabilities & Limits

Verified or Manufacturer-Documented Capabilities (Can)

Walk and perform highly dynamic bipedal motions using Unitree's high-torque electric joint system.
Support low-level and high-level development through published H1/H1-2 interfaces and Unitree SDK2 redocumentation.
Acquire depth and point-cloud data through the installed 3D LiDAR and depth-camera stack for mapping, perception, and navigation research.
Use separate platform and user-development computers, with optional additional compute for AI, perception, and control workloads.
Provide materially stronger dual-arm manipulation capability on H1-2 through seven-axis arms, a waist joint, and optional dexterous hands.
Operate with quick-change battery procedures to reduce research downtime when multiple healthy packs and approved charging equipment are available.

Known Constraints (Limits)

H1 and H1-2 are not interchangeable. They differ in mass, speed, leg and arm kinematics, ankle design, manipulation capability, optional hardware, and likely maintenance burden.
H1-2 lacks a separate public online-shop SKU and list price. An official product page and order-intent route support commercial status, but availability is less transparent than a direct checkout product.
Manufacturer speed, payload, and peak-torque values are not standardized endurance or duty-cycle guarantees and should not be treated as continuous industrial performance ratings.
No current public H1/H1-2 IP rating, collaborative-robot certification, functional-safety performance level, standardized uptime result, or second-owner support program was identified.
Falls and aggressive motion can damage reducers, bearings, encoders, cables, feet, covers, sensors, battery mounts, and frame alignment even when the robot remains able to stand or walk.
The manufacturer states that products continue to iterate and that delivered appearance and parameters may differ. Serial-specific build documentation is therefore essential.

D) Operational Trust & Commercial Reality

Known Concerns

The platforms combine multiple general-purpose computers, Ethernet and wireless networking, sensor streams, remote-control functions, SDK access, and low-level joint interfaces. A compromised or misconfigured software stack can produce high-energy physical motion.
Software value depends on access rights, exact SDK version, firmware, motion services, calibration files, user accounts, keys, network settings, and any optional third-party compute or teleoperation packages delivered with the robot.
Continuous platform iteration and mixed community examples can create configuration drift and unclear provenance unless the seller provides a reproducible software baseline with version hashes.
No public H1/H1-2-specific SBOM, secure-boot assurance, signed-update policy, vulnerability-disclosure process, guaranteed patch lifetime, or documented secure second-owner reset procedure was identified.

Operational Recommendations

Isolate the robot and development workstation from office and production networks until accounts, keys, services, wireless settings, and software images have been inventoried and reset.
Archive a known-good recovery image, SDK and firmware versions, configuration and calibration files, software revisions, licenses, checksums, and the exact optional-compute configuration.
Implement role-based access, restricted engineering interfaces, signed change records, controlled update testing, and an offline recovery procedure.
Require the seller to remove proprietary datasets, credentials, remote-access tooling, personal information, and institution-specific code without deleting the condition records needed for condition verification.
Recommission first with suspension or fall-arrest equipment, reduced motion limits, an exclusion zone, trained spotters, an accessible power cut-off, and a documented fall-recovery procedure.
Obtain written confirmation of software, SDK, support, update, warranty, and service rights for the second owner before publication or settlement.

Safety Status

H1 and especially the approximately 70 kg H1-2 must be treated as experimental high-energy machines. Peak joint torque reaches approximately 360 N.m, and emergency power removal can cause an uncontrolled fall. Public dynamic demonstrations are not records of collaborative safety. Initial inspection and acceptance testing require a controlled test area, physical separation, fall arrest where appropriate, trained operators, conservative speed and torque limits, approved lithium-battery procedures, and a planned method for safely recovering a disabled robot.

Commercial Reality

Commercial Position

H1: established full-size dynamic locomotion research platform
H1-2: higher-mass manipulation-focused iteration with 27 DoF
Both: commercially offered through manufacturer-controlled sales channels
Specialist institutional assets rather than consumer or plug-and-play industrial robots

Procurement Reality

Treat the H1 shop amount of US$90,000 as a records only because Unitree instructs customers to contact sales for the actual price.
Treat H1-2 as RFQ only. Require an official signed quotation identifying H1-2 explicitly rather than accepting a generic H1 order description.
Require the quotation and invoice to list robot revision, all joint and hand options, computers, LiDAR, cameras, batteries, charger, controller, transport fixtures, spares, software access, training, warranty, and service location.
Confirm import classification, taxes, lithium-battery transport, local conformity obligations, end-use restrictions, delivery acceptance, and responsibility for return-to-factory freight.
Do not assume that remaining warranty, support entitlement, online services, software licenses, or developer access transfer automatically to a second owner.

E) BotReburn Trust Note

The Unitree H1 and H1-2 are relevant to BotReburn's future second-life market, but value must be based on verified configuration, condition, ownership, and transferable software and support rights rather than model name or promotional capability alone.

Priority Refurbishment and Resale Checks

Model identity: H1 versus H1-2, serial number, production revision, original quotation, invoice, configuration sheet, ownership, and export/import records
Mechanical condition: fall history, frame alignment, feet, covers, fasteners, cables, reducers, bearings, backlash, encoder consistency, joint noise, temperature, and current draw
H1-2-specific hardware: two-axis ankles, seven-axis arms, waist joint, hands/end effectors, load history, and every installed compute and sensor option
Battery system: pack identity, age, cycles, cell balance, swelling, connector condition, capacity test, charger, storage history, spare packs, and transport documentation
Perception and compute: both base computers, optional Orin/Intel modules, LiDAR, depth camera, networking, controller, emergency handling, and all accessories
Software and trust: firmware, SDK, motion services, calibration, recovery image, software revisions, accounts, keys, logs, update history, licenses, and secure reset
Acceptance test: suspended or supported power-up, each joint at reduced limits, sensors, battery runtime, controlled standing, low-speed walking, stop behavior, fault recovery, and thermal observation

Second-Life Relevance

H1 is a strong but specialist second-life candidate because it has recognizable market history, current official sales visibility, public development redocumentation, and a comparatively lower 47 kg mass. H1-2 is a credible conditional candidate with stronger manipulation capability, but its RFQ-only commercial route, 70 kg mass, higher complexity, and configuration variability reduce liquidity. BotReburn should accept either model only under its exact designation and should prioritize complete, low-fall-history units with healthy batteries, verifiable software access, documented maintenance, original procurement documentation, and a reproducible acceptance test.