OEMs and Suppliers' Embodied Artificial Intelligence (and AI Robot) Layout Trend Report, 2024-2025

Table of Content

1. 1 Overview of EAI
2. 
   
3. 1.1 Terminology
4. 
   
5. Terminology (1)
6. 
   
7. Terminology (2)
8. 
   
10. 
    
11. 1.2 Policy
12. 
    
13. With Strong Policy Support, Regions Have Established Innovation Centers and Laid out AI Robot Industry Clusters
14. 
    
15. National Humanoid Robot Policies/Plans (2021-2024)
16. 
    
17. National Top-level Design Support the Development of the Humanoid Robot Industry
18. 
    
20. 
    
21. 1.3 Overview of EAI
22. 
    
23. Basic Concept (1)
24. 
    
25. Basic Concept (2)
26. 
    
27. Development and Evolution
28. 
    
29. Status Quo of Industrial Development
30. 
    
31. Application Scenario Evolution
32. 
    
33. With Mature Technology, the Humanoid Robot Industry at Home and Abroad Has Been Developing Fast
34. 
    
36. 
    
37. 1.4 Overview of AI Humanoid Robots
38. 
    
39. Definition
40. 
    
41. Composition
42. 
    
43. AI Foundation Models Empower Humanoid Robot Technology Routes
44. 
    
45. Intelligent Grading
46. 
    
47. Case 1 of AI Foundation Models Empowering Humanoid Robot Technology Routes (1)
48. 
    
49. Case 1 of AI Foundation Models Empowering Humanoid Robot Technology Routes (2)
50. 
    
51. Case 2 of AI Foundation Models Empowering Humanoid Robot Technology Routes (1)
52. 
    
53. Case 2 of AI Foundation Models Empowering Humanoid Robot Technology Routes (2)
54. 
    
55. Other applications of AI foundation models - LLMs Empower Robotic Arm Planning and Control of AI Humanoid Robots
56. 
    
57. Application Scenarios
58. 
    
59. Industry Chain
60. 
    
62. 
    
63. 1.5 Commonalities and Differences between Automotive and Robotics Industries
64. 
    
65. Commonalities between Smart Cars and Robots in Hardware Components
66. 
    
67. Commonalities between Smart Cars and Robots in Software Technology
68. 
    
69. Commonalities between Smart Cars and Robots in Supply Chain and Production
70. 
    
71. Commonalities between Xpeng/Tesla’s Humanoid Robots and Smart Cars in Technology
72. 
    
73. Differences between Smart Cars and EAI (1)
74. 
    
75. Differences between Smart Cars and EAI (2)
76. 
    
78. 
    
79. 1.6 EAI Team Building
80. 
    
81. EAI Team Building of Domestic OEMs (1)
82. 
    
83. EAI Team Building of Domestic OEMs (2)
84. 
    
85. EAI Team Building of Domestic OEMs (3)
86. 
    
87. EAI Team Building of Domestic OEMs (4)
88. 
    
89. EAI Team Building of Domestic OEMs (5)
90. 
    
91. EAI Team Building of Domestic OEMs (6)
92. 
    
94. 
    
95. 2 Overview of EAI Technology
96. 
    
98. 
    
99. 2.1 Technology System
100. 
     
101. Three Core Links in Realization of EAI
102. 
     
103. Multimodal Foundation Models Drive Embodied Perception to Embodied Cognition
104. 
     
105. Embodied Imagination: Imagine How the Perceived Objects and Tasks Are Performed in Simulation Engines
106. 
     
107. Embodied Execution: Transform Solutions Generated in Embodied Imagination into Practice
108. 
     
109. EAI Can Be Viewed as an “AI Agent” That Interacts with the Environment
110. 
     
111. EAI Is Quite Different from Traditional Intelligence in Learning Methods
112. 
     
113. Four Core Elements of EAI (1)
114. 
     
115. Four Core Elements of EAI (2)
116. 
     
117. EAI Technology System
118. 
     
119. EAI Technology System - Perception Module
120. 
     
121. EAI Technology System - Decision-making Module
122. 
     
123. EAI Technology System - Action Module
124. 
     
125. EAI Technology System - Feedback Module
126. 
     
128. 
     
129. 2.2 Brain of EAI
130. 
     
131. Composition
132. 
     
133. Technology Core: Foundation Models
134. 
     
136. 
     
137. 2.2.1 VLMs (Hierarchical Models)
138. 
     
139. Summary
140. 
     
141. Pi Zero
142. 
     
143. PaLM-E: Embodied Multimodal Language Model
144. 
     
145. Figure AI Collaborates with OpenAI to Launch a Three-tier Decision-making Solution
146. 
     
147. Noematrix Brain
148. 
     
149. Galbot’s Universal Three-tier Foundation Model System
150. 
     
152. 
     
153. 2.2.2 VLA (End-to-end)
154. 
     
155. Summary
156. 
     
157. Concept and Technology Stack
158. 
     
159. NAVILA: Vision-Language-Action Model for Legged Robots for Navigation
160. 
     
161. OpenVLA: Open Source Vision-Language-Action Model
162. 
     
163. OpenVLA: End-to-end Training of VLM
164. 
     
165. Vision-Language-Action (VLA) Model - Robotic Transformer2 (RT-2)
166. 
     
167. Uni-NaVid Proposes a VLA Model That Unifies Multiple Embodied Navigation Tasks
168. 
     
169. QUAR-VLA: Vision-Language-Action Model for Quadruped Robots
170. 
     
171. RoboMamba: End-to-end VLA Model
172. 
     
174. 
     
175. 2.2.3 VLN (Vision-Language Navigation)
176. 
     
177. Summary
178. 
     
179. Basic Concept
180. 
     
181. Main Implementation Methods
182. 
     
183. Comparison between VLA and VLN Models
184. 
     
185. LH-VLN: Vision-Language Navigation with a Long-term Development Vision: Platforms, Benchmarks and Methods
186. 
     
187. Safe-VLN: Collision Avoidance for Autonomous Robot VLN in Continuous Environments
188. 
     
189. MC-GPT: Augment VLN through Memory Graphs and Reasoning Chains
190. 
     
192. 
     
193. 2.2.4 World Models
194. 
     
195. Summary
196. 
     
197. Basic Architecture
198. 
     
199. Definition and Application
200. 
     
201. AgiBot and Shanghai AI Lab Propose the Embodied 4D World Model - EnerVerse
202. 
     
203. 3D-VLA: A 3D Vision-Language-Action Generative World Model
204. 
     
205. RoboDreamer: Learning Compositional World Models for Robot Imagination
206. 
     
207. IRASim - A World Model in Robotics
208. 
     
209. Robotic World Model: A Neural Network Simulator for Robust Policy Optimization in Robotics
210. 
     
212. 
     
213. 2.3 EAI Ontology
214. 
     
215. EAI Actively Interacts with the Physical Environment and Covers a Wide Range of Embodied Forms
216. 
     
217. Humanoid Robot Composition
218. 
     
219. Three Core Sensors of Robots - Force/Torque Sensor
220. 
     
221. Three Core Sensors of Robots - Vision Sensor/Tactile Sensor
222. 
     
223. Actuator: Key Component of Robot Hardware System
224. 
     
225. Robot Actuator Classification
226. 
     
227. Key Part of Linear Drive - Ball Screw
228. 
     
229. High-value Robot Reducers
230. 
     
231. Robot’s Core Driver - Motor
232. 
     
233. Servo Motor: Responsible for Precise Robot Control
234. 
     
235. Key Component of Dexterous Hand - Coreless Motor
236. 
     
237. Tesla Optimus Uses Frameless Torque Motors in 28 Actuators
238. 
     
239. Dexterous Hand Composition
240. 
     
241. Dexterous Hand Classification by Transmission Method
242. 
     
243. Dexterous Hand Perception System
244. 
     
246. 
     
247. 2.4 Simulation Data
248. 
     
249. Summary of EAI Data Generalization Models
250. 
     
251. UnrealZoo: A Rich Collection of Photo-realistic 3D Virtual Worlds Built on Unreal Engine
252. 
     
253. RoboTwin: A Dual-Arm Robot Benchmark with Generative Digital Twins
254. 
     
255. RoboGSim: A Real2Sim2Real Data Synthesizer and Closed-loop Simulator
256. 
     
257. Arbitrary Point Trajectory Model: ATM Framework
258. 
     
260. 
     
261. 3 Transformation of Intelligent Driving Practitioners to EAI
262. 
     
263. Practitioners Transitioning from Intelligent Driving to Other Arenas (1)
264. 
     
265. Practitioners Transitioning from Intelligent Driving to Other Arenas (2)
266. 
     
267. Practitioners Transitioning from Intelligent Driving to Other Arenas (3)
268. 
     
270. 
     
271. 3.1 Galaxea AI Is Committed to Full-stack Independent R&D of Embodied Robots, and Raised over RMB200 million in Pre-Series A Financing
272. 
     
273. The First EAI Company to Implement an End-to-end Simulation Learning Algorithm in a Closed Loop
274. 
     
275. Novel Visual Simulation Learning Algorithm: 3D Diffusion Strategy (DP3)
276. 
     
277. Launch of R1 Full-size Dual-arm Humanoid Robot
278. 
     
280. 
     
281. 3.2 LimX Dynamics Focuses on the R&D and Manufacturing of Sports Intelligence and Legged Robots
282. 
     
283. Leverage the Understanding Capabilities of LLMs to Promote the Integration of Spatial and Motion Intelligence on Humanoid Robots
284. 
     
285. Release of CL-2
286. 
     
287. TRON 1 "Three-in-one" Modular Polymorphic Bipedal Robot
288. 
     
290. 
     
291. 3.3 Galbot Has Developed Tens of Millions of Scenario Data and Billions of Captured Data
292. 
     
293. DexGraspNet 2.0
294. 
     
295. Open6DOR Spatial Intelligent Foundation Model System
296. 
     
297. End-to-end Navigation Foundation Model - NaVid
298. 
     
299. Release of Galbot (G1)
300. 
     
302. 
     
303. 3.4 The Former Head of Autonomous Driving at Alibaba Damo Academy Founded Udeer?AI
304. 
     
305. LPLM-10B EAI Model
306. 
     
307. Master2000 Plug-and-play Universal Embodied Brain
308. 
     
309. AI 130 Commercial Patrol Robot
310. 
     
312. 
     
313. 3.5 CenoBots
314. 
     
315. Four Core Technologies of Intelligent Cleaning Robots
316. 
     
317. SP50 Intelligent Cleaning Robot
318. 
     
319. L4 AI-powered Washer Dryer Robot
320. 
     
322. 
     
323. 3.6 AI? Robotics Solves the Core Problem of EAI: Extend AGI to the Physical World
324. 
     
325. Universal EAI System: AI2R Brain
326. 
     
327. Alpha Bot 1S Debuted at the 2024 World Robot Conference
328. 
     
330. 
     
331. 3.7 Wanren AI - Foundation Model Application Covering the Entire Disease Process
332. 
     
333. Dong Feng Model: “New Engine” Driving the Comprehensive Upgrade of The Medical Industry
334. 
     
335. Memex Technology System
336. 
     
338. 
     
339. 3.8 Jacobi.ai Is Committed to the Commercialization of Open Scenarios
340. 
     
341. J-Box Technology
342. 
     
343. J-Mind Technology
344. 
     
346. 
     
347. 3.9 PIA AUTOMATION Deploys Humanoid Robots in Industrial Scenarios
348. 
     
349. Most Core Chips of Humanoid Robots Have Been Replaced by Domestic Counterparts
350. 
     
351. JARVIS Humanoid Robot
352. 
     
353. Strategic Cooperation with Beijing Embodied AI Robot Innovation Center
354. 
     
356. 
     
357. 4 Layout of OEMs in EAI
358. 
     
359. Layout of Global OEMs in EAI Robots (1)
360. 
     
361. Layout of Global OEMs in EAI Robots (2)
362. 
     
363. Robot Deployment Timeline of OEMs
364. 
     
365. Parameters of OEMs’ Latest Robots (1)
366. 
     
367. Parameters of OEMs’ Latest Robots (2)
368. 
     
369. Parameters of OEMs’ Latest Robots (3)
370. 
     
372. 
     
373. 4.1 Tesla
374. 
     
375. Development History of Optimus
376. 
     
377. Evolution of Optimus (1)
378. 
     
379. Evolution of Optimus (2)
380. 
     
381. Evolution of Optimus (3)
382. 
     
383. Latest Features of Optimus (1)
384. 
     
385. Latest Features of Optimus (2)
386. 
     
387. Latest Features of Optimus (3)
388. 
     
389. Introduction to Optimus Gen 3
390. 
     
391. Three Major Updates of Optimus Gen 3
392. 
     
393. Degrees of Freedom of Optimus Gen 3
394. 
     
395. Comparison between Three Generations of Optimus
396. 
     
397. Hardware Parameters and Cost Breakdown of Optimus
398. 
     
399. Optimus - Environmental Perception
400. 
     
401. AI Humanoid Robot BOM Cost Estimation
402. 
     
403. AI Humanoid Robot Hardware Disassembly - Design Based on Automotive Technology (1)
404. 
     
405. AI Humanoid Robot Hardware Disassembly - Design Based on Automotive Technology (2)
406. 
     
407. AI Humanoid Robot Hardware Disassembly - Design Based on Automotive Technology (3)
408. 
     
409. AI Humanoid Robot Hardware Disassembly - Rotary Actuator
410. 
     
411. AI Humanoid Robot Hardware Disassembly - Linear Actuator
412. 
     
413. AI Humanoid Robot Hardware Disassembly - Hand Control
414. 
     
415. AI Humanoid Robot Hardware Disassembly - Knee Joint
416. 
     
417. AI Humanoid Robot Hardware Disassembly - Brain
418. 
     
419. AI Humanoid Robot Hardware Disassembly - Brain Chip
420. 
     
421. AI Humanoid Robot Hardware Disassembly - Brain Training Module
422. 
     
423. AI Humanoid Robot Hardware Disassembly - Brain Training Cluster
424. 
     
425. AI Humanoid Robot Software Algorithm - Introduction to FSD - Migration of FSD Technology to Optimus
426. 
     
427. AI Humanoid Robot Software Algorithm - Introduction to FSD - FSD Is Connected with OPTIMUS Underlying Module
428. 
     
429. AI Humanoid Robot Software Algorithm - Introduction to FSD - FSD Neural Network Training
430. 
     
431. AI Humanoid Robot Software Algorithm - Introduction to FSD - FSD Neural Network Training Progress
432. 
     
433. AI Humanoid Robot Software Algorithm - Introduction to FSD - FSD Massive Database Supports Robot AI Training
434. 
     
435. AI Humanoid Robot Software Algorithm - Perception Algorithm (1)
436. 
     
437. AI Humanoid Robot Software Algorithm - Perception Algorithm (2)
438. 
     
439. AI Humanoid Robot Software Algorithm - Perception Algorithm (3)
440. 
     
441. AI Humanoid Robot Software Algorithm - Perception Algorithm (4)
442. 
     
443. AI Humanoid Robot Software Algorithm - Motion Planning Algorithm (1)
444. 
     
445. AI Humanoid Robot Software Algorithm - Motion Planning Algorithm (2)
446. 
     
447. AI Humanoid Robot Software Algorithm - Motion Planning Algorithm (3)
448. 
     
450. 
     
451. 4.2 Xpeng
452. 
     
453. Comparison between Two Generations of Humanoid Robots
454. 
     
455. Basic Parameters of the Fourth-generation Humanoid Robot "Iron"
456. 
     
457. “Iron” Eagle Eye Vision System and AIOS
458. 
     
459. Turing AI Chip
460. 
     
461. Application Prospects of “Iron”
462. 
     
463. Introduction to AI Humanoid Robots
464. 
     
465. AI Humanoid Robot Hardware Disassembly - Joint
466. 
     
467. AI Humanoid Robot Hardware Disassembly - Dexterous Hand
468. 
     
469. AI Humanoid Robot Hardware Disassembly - Robotic Arm
470. 
     
471. AI Humanoid Robot Software Algorithm - Perception and Interaction Are Connected with Automotive Underlying Capabilities
472. 
     
473. AI Humanoid Robot Software Algorithm - Automotive Technology - XNGP Foundation Model
474. 
     
475. AI Humanoid Robot Software Algorithm - Automotive Technology - Underlying XNGP Technology: XBrain
476. 
     
477. AI Humanoid Robot Software Algorithm - Perception Architecture - XNet 2.0
478. 
     
479. AI Humanoid Robot Software Algorithm - Perception Architecture - XNet Data Annotation
480. 
     
481. AI Humanoid Robot Software Algorithm - Planning & Control Architecture - XPlanner
482. 
     
484. 
     
485. 4.3 Xiaomi
486. 
     
487. Robot Layout
488. 
     
489. AI Humanoid Robot Planning
490. 
     
491. Quadruped Robot: CyberDog 2
492. 
     
493. CyberOne Hardware Architecture
494. 
     
495. CyberOne Joint Module
496. 
     
497. CyberOne Power System
498. 
     
499. CyberOne Communication System
500. 
     
501. CyberOne Control System
502. 
     
503. CyberOne Software Algorithm
504. 
     
506. 
     
507. 4.4 GAC
508. 
     
509. Comparison between the Second- and Third-generation Robots in Parameters and Features
510. 
     
511. The Second-generation EAI Robot
512. 
     
513. Basic Parameters of the Third-generation EAI Robot - GoMate
514. 
     
515. GoMate Drive and Control Integrated Joint Module
516. 
     
517. GoMate Micro Low Voltage Servo Driver
518. 
     
519. GoMate Dexterous Hand
520. 
     
521. GoMate Software and System
522. 
     
523. Application of Autonomous Driving Technology on Humanoid Robots
524. 
     
526. 
     
527. 4.5 BYD
528. 
     
529. EAI Layout
530. 
     
532. 
     
533. 4.6 Hyundai
534. 
     
535. Acquisition of 80% Shares in Boston Dynamics
536. 
     
537. X-ble Shoulder Exoskeleton Robot
538. 
     
539. X-ble MEX Wearable Medical Robot
540. 
     
541. Two Exoskeleton Wearable Devices Were Launched in September 2019
542. 
     
543. DAL-e Intelligent Service Robot
544. 
     
546. 
     
547. 4.7 Chery
548. 
     
549. New Bipedal Robot: Mornine
550. 
     
551. Mornine Application Planning
552. 
     
554. 
     
555. 4.8 Toyota
556. 
     
557. Humanoid Robot Development History
558. 
     
559. TRI Partners with Boston Dynamics to Develop Humanoid Robots
560. 
     
561. "Busboy” Home Service Robot
562. 
     
563. Welwalk Wearable Robot
564. 
     
566. 
     
567. 4.9 Huawei
568. 
     
569. Robot Layout
570. 
     
571. Official Entry into EAI Industry with Further Strengthened Trends
572. 
     
573. Pangu EAI Model
574. 
     
576. 
     
577. 5 EAI Layout of Automotive Industry Chain Suppliers
578. 
     
579. Sensor
580. 
     
581. Speed Reducer
582. 
     
583. Dexterous Hand, Motor
584. 
     
585. Complete Machine
586. 
     
588. 
     
589. 5.1 Hesai Technology
590. 
     
591. Introduction
592. 
     
593. Robot LiDAR
594. 
     
595. Mini High-performance 3D LiDAR
596. 
     
597. LiDAR Suitable for Robot Scenarios - QT128
598. 
     
599. LiDAR Suitable for Robot Scenarios - XT32
600. 
     
602. 
     
603. 5.2 RoboSense
604. 
     
605. Introduction
606. 
     
607. Papert 2.0
608. 
     
609. Active Camera
610. 
     
611. Digital LiDAR Empowers Automotive and Robot Perception Capabilities
612. 
     
613. Incremental Robot Parts Development
614. 
     
616. 
     
617. 5.3 Tuopu Group
618. 
     
619. Introduction
620. 
     
621. Plan to Invest RMB5 Billion in Building a Production Base for Core Robot Components
622. 
     
623. Build the Competitiveness of the Robot Actuator Business with Multiple Core Advantages
624. 
     
626. 
     
627. 5.4 Sanhua Intelligent Controls
628. 
     
629. Introduction
630. 
     
631. Robot Project Layout
632. 
     
633. Strategic Cooperation with Leaderdrive
634. 
     
636. 
     
637. 5.5 Inovance
638. 
     
639. Introduction
640. 
     
641. SCARA Robot - IR-S4
642. 
     
643. Six-joint Robot - IR-R300
644. 
     
645. Supporting Robot Software
646. 
     
647. IRCB500 Industrial Robot Control Cabinet
648. 
     
649. Industrial Robot Precision Machinery - Ball Screw
650. 
     
651. Industrial Robot Precision Machinery - Linear Guide
652. 
     
654. 
     
655. 5.6 Zhaowei Machinery & Electronics
656. 
     
657. Introduction
658. 
     
659. High-performance Micromotor Technology Helps the Application of Humanoid Robots
660. 
     
661. A Press Conference Was Held at the China Hi-Tech Fair and Highly Reliable Dexterous Hands Integrated with Finger Drive Were Officially Launched
662. 
     
663. Machine Joint Brushless Servo
664. 
     
665. Micro Drive System for Walking Actuator of Lawn Mowing Robot
666. 
     
668. 
     
669. 5.7 Shuanghuan Company
670. 
     
671. Introduction
672. 
     
673. RV Reducer Layout
674. 
     
675. High-precision Harmonic Transmission Reducer
676. 
     
677. High-precision Robot Cycloid Planetary Reducer - SHPR-C
678. 
     
680. 
     
681. 5.8 HCFA
682. 
     
683. Introduction
684. 
     
685. Robot Research Project
686. 
     
687. “YOLO01” Universal Humanoid Robot
688. 
     
689. Self-developed Parts of “YOLO01” Humanoid Robot (1)
690. 
     
691. Self-developed Parts of “YOLO01” Humanoid Robot (2)
692. 
     
694. 
     
695. 5.9 Thundersoft
696. 
     
697. Introduction
698. 
     
699. The Next Generation of Multi-modal Intelligent Robots Will Be Empowered by Arm Technology
700. 
     
701. Thundercomm Officially Launched RUBIK Pi 3 (Development Kit)
702. 
     
703. Rubik Robot Foundation Model
704. 
     
705. KNEWBOTS Unveiled Many New Intelligent Robots at CeMAT ASIA on November 5, 2024 (1)
706. 
     
707. KNEWBOTS Unveiled Many New Intelligent Robots at CeMAT ASIA on November 5, 2024 (2)
708. 
     
709. KNEWBOTS Robot Software Platform (RSP)
710. 
     
712. 
     
713. 5.10 CATL
714. 
     
715. Introduction
716. 
     
717. Robot Layout: Independent Robotic R&D and External Cooperation in Parallel
718. 
     
719. Launch of CharGo"" Mobile Storage, Charging And Inspection Integrated Robot "
720. 
     
722. 
     
723. 5.11 ZongMu Technology
724. 
     
725. Introduction
726. 
     
727. FlashBot
728. 
     
729. FlashBot Business Model - Empower the Integration of Light, Storage and Charging
730. 
     
732. 
     
733. 5.12 SenseTime
734. 
     
735. Introduction
736. 
     
737. EAI Layout
738. 
     
739. SenseNova 5.5 Empowers Humanoid Robots with "Eyesight" and "Brain Power"
740. 
     
741. Large Devices Create a New Generation of AI Infrastructure for EAI
742. 
     
744. 
     
745. 5.13 Haomo.AI
746. 
     
747. Introduction
748. 
     
749. A Variety of Robots Have Landed in the Wisdom Valley, Working together to Create New Productivity
750. 
     
751. DriveGPT Empowers Little Magic Camel
752. 
     
754. 
     
755. 5.14 Horizon Robotics
756. 
     
757. Profile
758. 
     
759. Evolution of Sweet Potato Robot
760. 
     
761. Release of Full Link Sweet Potato Robot at the 2024 Developer Day
762. 
     
763. RDK One-stop Intelligent Robot Developer Kit (1)
764. 
     
765. RDK One-stop Intelligent Robot Developer Kit (2)
766. 
     
767. Rising Sun 5 Intelligent Computing Chip
768. 
     
769. Sweet Potato Robot Algorithm Center (NodeHub)/RDK-Copilot Development Assistant
770. 
     
772. 
     
773. 6 Development Trends of EAI
774. 
     
775. 6.1 Technology Trends
776. 
     
777. EAI Promotes the Development of Robotics Technology from Simple Perception to Multi-modal Perception
778. 
     
779. Coordinated Development of Software and Hardware Promotes Positive Industry Cycle
780. 
     
781. The Vision + Touch Solution Has Better Technical Indicators and Is Expected to Become the Mainstream Solution in the Future
782. 
     
783. Technology Trends
784. 
     
786. 
     
787. 6.2 Product Trends
788. 
     
789. Various Robot Carrier Forms Develop Together
790. 
     
791. EAI and Various Robot Carrier Forms Develop Together - Robot Dog
792. 
     
793. EAI and Various Robot Carrier Forms Develop Together - Special Robots
794. 
     
795. Product Trends
796. 
     
798. 
     
799. 6.3 Industrial Market Trends
800. 
     
801. Global and Chinese Humanoid Robot Markets Continue to Grow
802. 
     
803. Market Demand Trend: Humanoid Robots Are Expected to Alleviate the Labor Shortage in the Market
804. 
     
805. An Investment Boom in EAI in 2024 with Incremental Components and Embodied Models Favored by Investors
806. 
     
807. Industry Trends
808.