
Until today, manufacturing has been the backbone of robotics adoption. These industrial robots were largely rule-based and rigid, designed to repeat motions with high precision within highly structured environments. They followed pre-programmed paths and depended heavily on fixtures and consistent inputs. They are well suited for tasks such as CNC machining—precision manufacturing requiring exact, repeatable positioning—or spot welding.
The emergence of Generative Artificial Intelligence (GenAI) is unlocking greater potential for the robotics industry, ranging from personalised household assistance to agentic robots and even quantum robotics, driving renewed investment interest across the sector. As a result, the robotics sector, as measured by the Global X Robotics & Artificial Intelligence ETF (NASDAQ: BOTZ), delivered a 15% return in 2025. While this performance was strong, the sector still trailed the broader technology market, reflecting the fact that many robotics applications remain concentrated in manufacturing, which faced a slowdown amid uncertainty over US President Donald Trump’s tariff policies.
In this article, we examine the investment case for robotics by identifying both the opportunities and the risks within the sector.
Table 1: PMI showing contraction in business activities across most regions

Robots have been making their presence felt in manufacturing
Across global manufacturing, robot density (a measure of robots per 10,000 workers) has been rising rapidly. This trend is most evident in automotive manufacturing, historically one of the most highly automated sectors.
In 2023, the global average robot density reached 162 units per 10,000 employees, more than double the level of 74 recorded seven years earlier. China now has nearly 470 robots per 10,000 workers, placing it ahead of Germany and Japan. The US also reports a high density, at around 295 robots per 10,000 employees, with approximately 40% of new robot installations in 2024 concentrated in the automotive industry.
Falling automation costs and rising labour expenses further reinforce the structural global reshoring trend. Average US hourly manufacturing wages reached USD 34 in 2025 and are expected to rise to USD 39 by the end of the decade. Meanwhile, the average cost of industrial robots is expected to continue declining even as functionality improves. These dynamics allow robotic systems to be deployed more widely and flexibly, shifting the economic advantage decisively toward automation.
Amazon alone now operates over one million warehouse robots globally, using fleets such as Proteus and Sparrow to transport and identify packages with minimal human input. Its DeepFleet AI model coordinates the movement of this vast robot network across its fulfilment operations, which Amazon reports has improved robot travel efficiency by approximately 10%.
Robotics adoption is not limited to logistics. In automotive manufacturing, highly specialised industrial robots already dominate welding, painting, and stamping processes. In healthcare, surgical robots are transforming operating rooms by enhancing precision, reducing recovery times, and expanding access to complex procedures. Intuitive Surgical’s da Vinci installed base has nearly doubled over the past five years, reaching 10,488 units as of June 2025. Robotics has also gained traction in transportation, with autonomous robotaxis and delivery pods increasingly operating in urban environments. Waymo has completed over 250,000 driverless trips across five major US cities since inception, while Tesla’s Robotaxi service, although limited to specific areas such as Austin, Texas, and the San Francisco Bay Area, has made notable progress.
Figure 1: Manufacturing wages continue to grow while average cost per industrial robot declined

Table 2: Automotive Manufacturing workflow

Physical AI integration is next
Physical AI represents the convergence of digital intelligence with real-world execution, extending AI beyond purely digital applications. Robotics elevates AI from a purely digital tool into the operating system of the physical environment. As generative AI models grow more capable and hardware becomes cheaper and more versatile, we are rapidly entering the era of Physical AI—where machines can perceive, reason, and execute in real time to augment human workflows.
At CES 2026, where leading technology companies showcase their latest innovations, NVIDIA CEO Jensen Huang mentioned the term “Physical AI” no fewer than 17 times, underscoring its importance as the next competitive frontier for AI and a potential new driver of revenue growth.
Unlike traditional rule-based robots, physical AI systems integrate perception, reasoning, and action, enabling adaptation in dynamic environments.
For example, autonomous vehicles detect cyclists earlier than human drivers with sensor fusion. Delivery drones dynamically adjust flight paths in response to wind conditions.
One key enabler is the development of vision-language-action (VLA) models. Physical AI adopts training methods from large language models while incorporating data that represents the physical world.
Multimodal VLA models integrate computer vision, natural language processing, and motor control. Similar to the human brain, these models allow robots to interpret their environment and select appropriate actions (Figure 2).
From an investment perspective, the evolution toward Physical AI reshapes where value accrues within the robotics ecosystem.
Early gains were concentrated in hardware manufacturers and industrial automation providers, but the next phase may favour companies supplying AI compute, sensors, motion control components, and simulation software that enable adaptive robotics systems.
Figure 2: How vision-language-action models work

Humanoids: from concept to early deployment
One of the most promising physical embodiments of Physical AI is the humanoid robot.
Humanoids are structurally compelling as they combine AI with human-like mobility, enabling them to operate in warehouses, hospitals, offices, and homes without requiring environments to be redesigned.
Unlike fixed industrial machines, humanoids can walk, manipulate objects, and interact naturally, addressing labour shortages and improving productivity in human-centric spaces. Over time, they may even extend into household environments to assist with daily tasks.
Table 3: Humanoid robots usually face a more complex, unstructured working environment
|
Category |
Humanoid Robot |
Industrial Robot |
|
Tasks |
Multifunctional daily tasks, including interaction with humans |
Repetitive tasks such as welding, assembly and packaging |
|
Working environment |
Unstructured |
Structured |
|
Structure |
Complex |
Relatively simple |
|
Degrees of freedom |
> 20 |
Up to 6 |
|
Mobility |
Usually bipedal |
Fixed |
|
Precision requirement |
Medium, suitable for general tasks |
Relatively high |
|
Applications |
Services, manufacturing, education, elderly care, etc. |
Industrial manufacturing |
|
Selling price |
US$15k – 250k |
US$2k – 60k |
|
Source: BofA Global Research |
||
How advance are current humanoid? Today’s humanoid robots have progressed well beyond laboratory prototypes but remain in the early stages of real-world usefulness. They can walk, balance, navigate human environments, and perform basic tasks such as stacking, carrying, or simple assembly. More advanced models, such as Figure AI’s Figure 02 and 03, are equipped with multiple sensors, cameras, onboard AI systems, and dexterous hands capable of precise object manipulation.
The rapid acceleration in humanoid development is driven by three key factors:
1) AI advancement. Recent progress has shifted development focus from the “body” to the “brain.” While 2025 emphasised improvements in physical capabilities—such as folding clothes, boxing, or delicately holding fragile objects— industry focus is increasingly shifting toward cognitive capabilities, including task decomposition, environmental understanding, model inference, and human interaction. Software-defined, modular systems now enable rapid reconfiguration and reduce integration risks, supporting mass customisation. NVIDIA’s launch of NVIDIA Cosmos™, a platform of generative world foundation models, allows developers to generate large volumes of photorealistic, physics-based synthetic data, significantly shortening training and testing cycles.
2) The increased in Degrees of Freedom (DOF) - DOF measures how many independent joint movements a robot can perform and correlates with dexterity and flexibility. Tesla’s Optimus currently leads with an estimated 40+ total DOF, including 22 in the hands and multiple joints across the arms and body. This compares with approximately 28 DOF in human hands. Figure AI follows with roughly 16 DOF per hand, in addition to joints across the limbs.
3) Declining bill of materials (BoM) cost. While mass production of fully autonomous humanoids capable of operating across environments may still take several years, we expect BoM costs to decline by more than 50% over the next five years. This is driven by economies of scale and improved component design, particularly if the majority of components are manufactured in China.
Figure 3: BOM cost set to decline over the years

Source: BofA Global Research estimates
The market potential is substantial. Some industry estimates suggest humanoids could automate a meaningful share of industrial labour roles by the mid-2030s, translating into nearly USD 5 trillion in economic value.
Pilot deployments, such as Agility Robotics’ Digit and Figure AI’s humanoids, are already underway in logistics and manufacturing. Recently, Tesla CEO Elon Musk indicated that Optimus robots may be sold to the public by the end of 2027, potentially accelerating investment interest. While truly general-purpose humanoids may still be years away, a more realistic path involves deploying robots with limited capabilities initially and gradually expanding functionality over time.
Figure 4: Total units in ownership could reach 3 billion by 2060E

Source: BofA Global Research estimates
China – A rising structural leader in robotics supply chain
Background: China, once defined primarily as a manufacturing powerhouse, is gradually transitioning toward developed-nation status and now faces demographic challenges similar to other advanced economies. As of end-2024, approximately 22% of China’s population was aged 60 or above. This ageing trend, combined with rising tertiary education levels that reduce the supply of low-skill factory labour, exacerbates labour shortages.
To maintain global manufacturing competitiveness and address these structural challenges, the Chinese government has prioritised domestic technology innovation and self-sufficiency. This policy direction has supported investor interest in domestic robotics-related equities.
Although China’s humanoid robotics industry remains at an early stage, we see significant long-term potential driven by:
(i) technology self-sufficiency as a core national strategy over the next five years; and
(ii) a comprehensive manufacturing supply chain that provides a competitive advantage in producing humanoid hardware components such as motors, reducers, and roller screws.
China is already the world’s largest exporter of service robots, and as humanoid manufacturers seek to reduce BoM costs, Chinese component suppliers are likely to gain global market share.
Figure 5: Top 10 countries for service robot suppliers (‘000 units)

Still Challenges to overcome
At current levels, humanoid robot companies still need to overcome a series of key bottlenecks, including:
1) Cost. Although component commoditisation and open-source development are lowering barriers to entry, humanoids require advanced AI chips and processors, keeping costs higher than traditional industrial robots. This cost gap is likely to persist in the near term, even as prices gradually decline.
2) Trustworthy AI and safety. The smallest error rates can have cascading effects in physical systems, potentially leading to production waste, product defects, equipment damage, or safety incidents. AI model errors or hallucinations could be perpetuated and amplified across entire production runs, creating compounding downstream effects on costs and operations.
AI-powered machines can behave unpredictably even after extensive safety testing. The stakes rise significantly in public spaces, where autonomous systems must navigate unpredictable human behavior. To scale physical AI systems across various industries, comprehensive safety strategies that integrate regulatory compliance, risk assessments, and continuous monitoring are necessary.
Future opportunities for robotics
1. Quantum robotics— the integration of quantum computing with AI-powered robotics—remains at a very early stage but holds long-term promise. Quantum algorithms could significantly enhance processing speed, navigation, decision-making, and fleet coordination, while quantum sensors may improve perception and interaction.
2. Longer-term upside may emerge from consumer applications. Applications could include elderly and disability care, cleaning, meal preparation, and household maintenance. With humanoid material costs expected to fall from approximately USD 35,000 in 2025 to around USD 13,000 over the next decade—and manufacturing costs already declining sharply between 2023 and 2024—mass production is becoming increasingly feasible.
ETF Idea: Global X Robotics & Artificial Intelligence ETF and Global X China Robotics and AI ETF
Given the early-stage nature of humanoid adoption and uncertainty around ultimate winners, diversified exposure through thematic ETFs may provide more balanced access to the theme.
Global X Robotics & Artificial Intelligence ETF (NASDAQ: BOTZ)
The ETF tracks the underlying index Indxx Global Robotics & Artificial Intelligence Thematic Index, which is designed to invest in companies that are expected to benefit from the increased adoption and utilization of robotics and Artificial Intelligence (“AI”), including companies involved in the development and production of:
– Industrial Robots and Automation: robots and robotic automation products and services, with a focus on industrial applications.
– Unmanned Vehicles and Drones: unmanned vehicles (including hardware and software for autonomous cars), drones and robots for both military and consumer markets.
– Non-industrial Robotics: robots and AI that are used for non-industrial applications, including but not limited to agriculture, health care, consumer applications and entertainment.
– Artificial Intelligence: applications, technologies and products that utilize Artificial Intelligence for data analysis, predictive analytics, task automation and other applications.
Companies that derive a significant portion (50% or greater) of their revenues from the above industries/segments or that demonstrate the above industries/segments to be a primary business focus are eligible for inclusion in the index.
Table 2: Top 10 companies within the ETF
|
Company |
Wgt (%) |
How It Relates to Robotics / Humanoids |
|
NVIDIA Corp |
10.89% |
Core AI and robotics computing platform provider. Supplies GPUs, AI accelerators, and software stacks (CUDA, Isaac, Omniverse) used to train, simulate, and control robots and humanoids. Critical for vision, autonomy, and AI “brains.” |
|
FANUC Corp |
9.13% |
Industrial robotics leader. Produces factory robots (arms, CNC automation). |
|
ABB Ltd |
8.80% |
Robotics and automation systems provider. Strong in industrial robots, motion control, drives, and power electronics. |
|
Intuitive Surgical Inc |
6.24% |
Medical robotics pioneer. Creator of the da Vinci surgical robot. Highly advanced in robotic precision, control, and human-machine interfaces, which inform future humanoid dexterity concepts. |
|
Keyence Corp |
5.85% |
Sensors, vision systems, and automation components. Supplies machine vision, laser sensors, and inspection systems that are essential “eyes and nerves” for robots, including humanoids. |
|
Daifuku Co Ltd |
4.59% |
Material handling and warehouse automation specialist. Develops automated logistics systems and robotic handling solutions. Active in smart factories and automated environments. |
|
SMC Corp |
3.87% |
Actuators and motion components supplier. Major producer of pneumatic and electric actuators, valves, and control systems—core physical components used in many robots (including humanoid joints and grippers). |
|
Yaskawa Electric Corp |
3% |
Motion control and industrial robot manufacturer. Known for servo motors, drives, and robotic arms. These motion technologies are foundational for humanoid joint control and coordination. |
|
AeroVironment Inc |
2.99% |
Autonomous systems and robotics for defense. Specializes in drones and unmanned systems rather than humanoids. |
|
Pegasystems inc |
2.98% |
AI decisioning and automation software. Contributes at the software layer (process automation, AI decision logic) that could integrate with robotic workflows and autonomy systems. |
Global X China Robotics and AI ETF (HKEX: 2807)
The ETF is designed to track the performance of the underlying index, FactSet China Robotics and Artificial Intelligence Index, which invests in companies either headquartered or incorporated in Mainland China and Hong Kong which focus on productising and developing hardware and software products with the ability to perform tasks with a high level of precision and automation. The Index seeks to capture main players throughout the robotics and artificial intelligence value chain, including industrial automation machineries, artificial intelligence software, and robotics line makers. Companies are categorised into two themes:
(i) industrial automation machineries and robotics makers
(ii) artificial intelligence software.
Table 3: Top 10 companies within the ETF
|
Company |
Wgt(%) |
Link to Robotics / Humanoids |
|
Baidu Inc. (ADR) |
8.8% |
AI algorithms, large language models, perception & autonomy software used in robots and humanoids |
|
iFLYTEK |
7.8% |
Speech recognition, natural language interaction for service robots and humanoids |
|
Beijing Kingsoft Office |
7.4% |
Minimal direct robotics relevance; possible AI software spillover |
|
SUPCON Technology |
7.4% |
Industrial automation, process control systems used alongside robots in smart factories |
|
SenseTime Group |
6.9% |
Visual perception for robots, humanoids, autonomous systems |
|
Hangzhou Hikvision Digital |
6.9% |
Machine vision, sensors used in robotics and autonomous systems |
|
Shenzhen Inovance Technology |
6.2% |
Servo motors, motion controllers — core components of robots & humanoids |
|
Zhejiang Dahua Technology |
5.6% |
Vision sensors and AI analytics used in autonomous & robotic systems |
|
Horizon Robotics |
5.2% |
AI processors for robotics, autonomous machines, embodied intelligence |
|
Han’s Laser Technology |
4.4% |
Precision manufacturing equipment used to produce robot & humanoid components |
|
Source: Mirae Asset, Bloomberg Finance L.P., iFAST, iFAST compilations. Data as of 29 January 2026. |
||
Conclusion
Robotics (particularly humanoids) remains early-stage, but advances in AI capability and declining hardware costs are improving commercial viability. Automation, historically concentrated in manufacturing, is now expanding across a broader range of industries, enhancing productivity, precision, and scalability. As humanoid and autonomous systems continue to evolve, they are increasingly bridging the gap between industrial efficiency and human adaptability. Over time, these systems are likely to contribute meaningfully to productivity gains across manufacturing, services, and eventually, household environments.
That said, the humanoid theme remains nascent, with mass production and broad commercial deployment still several years away. As such, while the long-term opportunity is compelling, near-term outcomes are likely to remain uneven and highly sensitive to technological execution, cost curves, and regulatory developments.
Investors should adopt a selective and measured approach, recognising that adoption will likely be gradual and uneven.
Table 4: Valuation for Global X Robotics & Artificial Intelligence ETF (Indxx Global Robotics & Artificial Intelligence Thematic Index)
|
2025 |
2026EST |
2027EST |
2028EST |
|
|
Revenue |
1,177.73 |
1,306.94 |
1,449.62 |
1,532.27 |
|
Revenue Growth (%) |
-1.78 |
10.97 |
10.92 |
5.7 |
|
Earnings |
130.7 |
179.96 |
216.93 |
262.47 |
|
Earnings Growth (%) |
-9.11 |
37.68 |
20.54 |
20.99 |
|
P/E |
45.69 |
33.59 |
27.86 |
23.03 |
|
Fair P/E |
35 |
|||
|
Upside Potential (%) |
52% |
|||
|
Target Price |
56 |
Table 5: Valuation for Global X China Robotics and AI ETF (FactSet China Robotics and Artificial Intelligence Index)
|
HKD |
2025 |
2026EST |
2027EST |
2028EST |
|
Revenue |
27.3 |
34.25 |
39.17 |
42.67 |
|
Revenue Growth (%) |
-14.94 |
25.47 |
14.35 |
8.95 |
|
Earnings |
2.37 |
3.35 |
4.35 |
5.03 |
|
Earnings Growth (%) |
-37.46 |
41.74 |
29.86 |
15.5 |
|
P/E |
53.37 |
40.43 |
31.13 |
26.95 |
|
Fair P/E |
39 |
|||
|
Upside Potential (%) |
45% |
|||
|
Target Price |
94 |
Declaration:
This research report was prepared with the assistance of artificial intelligence (AI) tools. iFAST Financial Pte Ltd does not rely exclusively on AI for content generation; the content of this report – including all investment theses, ratings, price targets and conclusions – has been independently reviewed and verified by the research analyst(s) to ensure accuracy and professional integrity.
For specific disclosure, at the time of publication of this report, IFPL (via its connected and associated entities) and the analyst who produced this report hold a NIL position in the abovementioned securities.

