How wearable devices are reshaping the logic of our technological civilisation

Wearable devices and AI-powered glasses are rapidly gaining popularity and gradually shaping a new technological trend. In this article, we explore what these devices are, the opportunities they offer, and why they have become a major topic of discussion across the technology industry.

Humans have always sought ways to make technology an extension of themselves. From measurement tools worn on the wrist to glasses capable of perceiving more than the human eye, this trajectory has evolved over decades. By 2026, it has taken on the characteristics of a genuine anthropological shift. Wearables are no longer niche gadgets designed primarily for enthusiasts; they are increasingly becoming a comprehensive interface between individuals and the digital world, a medical tool, a productivity enhancer, and, importantly, the focal point of one of the most intense corporate competitions of our time. This is not merely the emergence of another consumer electronics market. It raises a broader question: where does the human end and the device begin?

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A Market Gaining Momentum: The Numbers and the Limits of Understanding

In this case, the raw market figures speak more clearly than any metaphor. The global wearable technology market was valued at $92.9 billion in 2025, and is projected to grow to $229.97 billion by 2033, representing a compound annual growth rate (CAGR) of 12.1%. For comparison, that figure exceeds the annual budgets of many countries around the world.

Total global shipments reached 537.9 million units in 2024, with ear-worn devices accounting for 342.2 million units. Meanwhile, the number of smartwatch users worldwide reached 562.86 million in 2025, reflecting a 23.7% increase compared with the previous year.

However, behind these aggregate figures lies a more important development: the market’s structure is changing dramatically. Smartwatches recorded their first decline in shipments in 2024 before returning to growth in 2025. At the same time, smart rings posted an 88% increase in shipments in 2024, making them the fastest-growing category in the wearable technology sector. This shift represents more than a change in form factor. It signals a fundamental reorientation of the market – from devices that primarily convey status and display information to devices designed to continuously monitor the human body. Increasingly, wearables operate unobtrusively, collecting data around the clock and integrating seamlessly into everyday life.

Approximately 40% of new wearable devices introduced in 2026 incorporate artificial intelligence capabilities, while 70% of consumers prioritize health-related features – such as ECG monitoring, blood oxygen saturation tracking, and heart rate monitoring – when selecting a device. The market is increasingly moving toward healthcare applications, signaling a gradual convergence between consumer wearables and medical technology. As a result, the traditional distinction between a “fitness tracker” and a “medical device” is becoming progressively less defined.

From the Wrist to the Finger: The Anatomy of a New Level of Precision

One of the most notable developments in the medical monitoring segment has been the latest update to the Oura smart ring. Announced on May 28, 2026, and shipped beginning June 4, the Oura Ring 5 is positioned as both the world’s smallest smart ring and the company’s most clinically ambitious device to date. The ring is 40% smaller than its predecessor, constructed from lightweight, hypoallergenic titanium, and built around a new hardware architecture that, according to the company, delivers more accurate measurements across a broader range of finger types and skin tones than any previous generation.

However, the most significant innovations are not found in the device’s physical characteristics. The Oura Ring 5 launches with a suite of features that effectively move it beyond the category of a consumer fitness tracker and into a space closely watched by clinicians, researchers, and technology analysts: continuous passive biosensing as a tool for preventive and predictive health monitoring. The integration of laboratory test results, GLP-1 tracking for patients using medications for obesity and diabetes, and participation in an Institutional Review Board (IRB)-approved brain health study all point to the same trend. A small titanium ring worn on a finger is gradually evolving into a clinically relevant health-monitoring instrument.

In March 2026, Oura announced a strategic partnership with leading healthcare providers aimed at integrating data from its smart rings into clinical care pathways for chronic disease management. The collaboration enables physicians to access continuous patient health metrics – including heart rate variability, body temperature trends, and sleep patterns – to support personalized treatment plans and early-intervention strategies. Taken together, these developments illustrate a broader shift in the wearable technology landscape. Devices that were once designed primarily to track activity and wellness are increasingly becoming part of a data-driven healthcare ecosystem, where continuous monitoring may contribute to earlier detection of health risks and more individualized care.

Among its competitors, Bond Ring stands out as the world’s first “continuous” smart ring to receive FDA clearance. The device measures ECG, clinical-grade blood pressure, body temperature, heart rate variability, SpO₂, and body composition, while also incorporating ambient light, noise, and ultraviolet sensors, as well as haptic feedback capabilities. In this context, the phrase “a health laboratory on your finger” is no longer merely a journalistic metaphor – it is becoming a literal description of the device’s functionality.

At the same time, another trend is emerging. By conservative estimates, an individual using two or more AI-powered health wearables can generate more than 500 unique data points per day. These may include heart rate variability measurements recorded every five minutes, overnight blood oxygen saturation readings, skin temperature trends, post-meal glycemic response curves, step counts, stress indicators, sleep-stage classifications, and recovery metrics.

The question is no longer whether such data can be collected. The more consequential questions concern who controls it, who analyzes it, and where the boundary lies between medical monitoring and continuous surveillance of the human body. As wearable technologies become increasingly sophisticated, the challenge shifts from data acquisition to data governance, privacy, and the ethical use of highly personal biological information.

Smartwatches in 2026: maturity and new functionality

Smartwatches are in a paradoxical state. On one hand, this is the most mature and widely adopted segment of the wearable devices market. The wrist-worn category accounted for the largest share of revenue – 51.4% in 2025 – and smartwatches remain a flagship product line for Apple, Samsung, Garmin, and Huawei. On the other hand, this is precisely the segment where pressure from new competitors and shifting consumer expectations is most clearly felt.

The smartwatch market in 2025 experienced a reshuffling of positions: Apple, which recorded seven consecutive quarters of decline, lost the top position to Huawei in Q1 2025. Huawei rose to the top of the global wrist-worn wearable market, driven by the synergy of the HarmonyOS ecosystem and the launch of Band 10. This represents a symbolic shift: the American company that effectively shaped the modern smartwatch market has been overtaken by a Chinese competitor, primarily due to a loss of share in the world’s fastest-growing regional market.

In June 2026, Samsung announced new health monitoring features for its Galaxy wearables, including vital sign tracking, a heart health score, daily cardiac load, and AI-based analytics of biometric indicators. In the same month, Google expanded its wearable lineup with the release of Fitbit Air – a lightweight, screenless fitness tracker focused on continuous health monitoring. The trend is clear: major players are systematically shifting from “a device with health features” toward “a medical device in a consumer form factor.”

Projected smartwatch market revenue is expected to reach $34.91 billion in 2026. 66% of users regularly track physical fitness, and 42% use smartwatches for heart health monitoring. These figures reflect not just consumer demand, but a broader shift in the role technology plays in personal health management: from a passive observer to an active intermediary between individuals and the healthcare system.

Smart Glasses with Intelligence: from Google Glass to the Post-Smartphone Era

If smartwatches and rings represent evolution, then AI-powered glasses are a potential revolution. This development has progressed slowly, through a series of failures and unmet expectations. However, 2026 has provided strong reasons to believe that a turning point has finally been reached.

To understand the significance of what is happening today, it is necessary to return to 2013. At that time, Google released Glass – a pair of smart glasses with a small display, a microphone, and a camera, intended to become the first step into a post-screen era. The failure was complete and painful: consumers rejected the device due to discomfort, limited battery life, obvious technological extravagance, and, most critically, social stigma.

The second phase in the evolution of smart glasses introduced rudimentary frame-mounted cameras and basic notification mirroring – a category that Google Glass both pioneered and significantly discredited due to weak UX, limited battery performance, and social alienation.

The third phase – the one we are currently in – looks fundamentally different. Not because the technology itself has changed in isolation, but because everything around it has shifted: generative AI has become powerful enough to run on edge devices, battery technology has significantly improved, and – most importantly – integration with established fashion brands has addressed the issue of social acceptance that ultimately doomed Google Glass.

Meta and the Art of Gradual Normalization

Meta’s strategy in the field of AI glasses deserves separate analysis, as it demonstrates both a sophisticated marketing logic and a deep understanding of consumer psychology. The first generation of Ray-Ban Stories was released in September 2021 at a starting price of $299. Although these experimental smart glasses did not achieve significant sales between 2021 and 2023, they laid the foundation for AI-enabled eyewear.

This is the core of the strategy: not to immediately impress consumers, but to gradually accustom them to the idea that glasses with built-in technology are normal. The first generation taught users to stop paying attention to a camera embedded in the frame. The second – Ray-Ban Meta (2023) – introduced real AI capabilities. This release marked a turning point: global shipments of AI glasses were projected to grow from 410,000 units in 2023 to an estimated 5.1 million units by 2025. Meta is aiming to reach 10 million pairs of AI glasses sold by the end of 2026.

According to IDC, Meta held 72.2% of the global XR market at the end of 2025, driven by its partnership with EssilorLuxottica and an expanded portfolio that now includes sports frames under the Oakley brand. However, the key product is not Ray-Ban. The key product is Orion.

Orion: the Mission of a New Sense of Reality

Orion is not just a gadget; it is the first compelling argument for a “post-smartphone era.” Priced at $2,999, it offers a glimpse into a future where technology is continuous, invisible, and ubiquitous.

Technically, Orion is a distributed computing system: heavy computational workloads are offloaded to a wireless pocket device, while the glasses themselves remain relatively lightweight. Meta’s research and development in silicon carbide optical lenses – a material typically used in military radar systems – has enabled a field of view of approximately 70°, the widest in the AR glasses form factor, while minimizing unwanted optical artifacts.

But the most revolutionary element is not the optics. It is the control interface. A neural wristband detects electrical signals traveling from the brain to the fingers before the hand has even begun to move, enabling selection, scrolling, and text input through micro-gestures that are imperceptible to others, with haptic feedback that simulates the sensation of pressing digital buttons. This is not a metaphor for the future – it is a description of a device that already exists in 2026.

The practical applications are compelling: real-time visual intelligence (point the glasses at a broken engine part and receive repair instructions), overlay translation on top of foreign-language text, and contextual reminders about people in a meeting. These are the use cases that 2013 only promised – and now, finally, the technology is mature enough to deliver on them.

Google, Snap, and the Competition for the Consumer’s Face

Meta is not alone in this race. At Google I/O 2026, the company introduced its first consumer smart glasses focused on AI-powered audio features, without a visual display – emphasizing a lightweight and practical design. The glasses are available in two frame styles: Gentle Monster for a bold, contemporary aesthetic, and Warby Parker for a more classic, professional look, targeting different user preferences. Powered by Gemini AI, the glasses offer hands-free productivity, contextual memory, and integration with third-party applications.

Choosing an “audio-first” design with no display is a deliberate decision. It is driven not by technical limitations, but by consumer psychology: glasses without a visible screen are more socially acceptable and easier to wear throughout the entire day. The absence of a display enables a lighter design, making them more comfortable for extended use. Combined with efficient battery management, they are well suited for users who need reliable, always-available technology on the move.

Snap is pursuing a different – more ambitious and at the same time riskier – path. Snap Specs combine AI glasses and a full VR headset into a single device. Equipped with dual Snapdragon processors (one for computer vision, one for AR rendering), hand tracking and spatial mapping, waveguide displays with a 51° field of view, and noticeably bulky lenses, they represent fully autonomous AR glasses that push the boundaries of what is currently possible.

Snap announced a multi-year agreement with Qualcomm to equip Specs with Snapdragon XR chips, confirming a consumer launch later this year. This partnership enables more on-device AI processing without constant reliance on the cloud, as well as improved battery efficiency.

Apple is maintaining its traditionally cautious approach: preparing quietly before making a major impact. In May 2026, the company accelerated development of AI wearables, including smart glasses, AI-powered AirPods with enhanced capabilities, and a wearable pendant focused on visual intelligence and AI interaction. However, at the time of writing, Apple has not yet brought smart glasses to market, although analysts suggest that Tim Cook is personally prioritizing this project at a level of involvement that is unprecedented in his career.

Privacy Under Glass: The Most Dangerous Boundary

No analytical article about AI glasses can ignore the question of privacy – not as a matter of trend, but because it is the central issue that will determine whether these devices become mainstream or remain niche products.

Students at Harvard University used PimEyes together with Ray-Ban Meta glasses to display real-time information – including names, phone numbers, and home addresses – directly from the faces of people captured by the glasses’ camera. A Meta spokesperson’s comment that this is possible with any camera is technically correct, but it overlooks the social dynamics entirely: precisely because Ray-Ban glasses look like ordinary eyewear, they represent a far more powerful surveillance tool than any visibly conspicuous camera.

In February 2026, The New York Times reported that Facebook was planning to add facial recognition capabilities to its glasses. In June 2026, Wired reported that the company had already begun shipping facial recognition code. The Irish Data Protection Commission called for stricter measures to ensure compliance with GDPR requirements.

Regulatory responses are already taking shape. The EU Artificial Intelligence Act, which became fully enforceable by 2026, may classify certain Meta AI glasses features as “high-risk” if they involve biometric data processing. This would require fundamental rights impact assessments, transparency measures, and risk mitigation procedures. As a result, some features have already faced delays or restrictions within the EU.

This raises a fundamental question that extends beyond Meta. If tens of millions of people wear glasses with always-on cameras, every public interaction becomes a potential recording. Every street effectively turns into an environment of continuous surveillance. The social contract governing the right to anonymity in public space is not adapted to a reality in which a “spy camera” can appear as a stylish Ray-Ban frame.

Architecture of the Future: Three Stages of the Revolution

To understand where we are and where we are heading, it is useful to define the architecture of the AI glasses evolution. The development of smart eyewear follows a clear three-stage trajectory, where each stage adds display complexity at the cost of weight, battery life, and price. The first stage is the current one – audio-first AI glasses; the second stage introduces display-enabled glasses; and the third stage represents true AR glasses.

The first stage dominates today’s market: Ray-Ban Meta, Google’s partnerships with Warby Parker and Gentle Monster, and Huawei’s HarmonyOS ecosystem. These are stylish frames with built-in microphones, speakers, a camera, and voice-based AI. There is no display and no digital overlay onto the physical world – but they are highly practical for everyday use.

The second stage is represented by Snap Specs and waveguide-based devices such as Xreal: a small projection display within the field of view showing notifications, navigation cues, or subtitles. This is where true “augmented” functionality begins to emerge – but at the cost of added weight, complexity, and price.

The third stage is Meta’s Orion, and potentially future products from Apple and Google: full digital overlay of objects onto physical space, interaction with three-dimensional holograms, and the replacement of physical monitors. This is the stage where “smart glasses” evolve into a new computing interface – and where production costs remain far beyond mass-market accessibility.

Wearability as a Social Problem

The technical discussion around AI glasses often overlooks a key dimension: social acceptance. Not every technology can be neutrally integrated into public space – and glasses are a particularly sensitive form factor precisely because the human face remains the most personal and socially meaningful interface.

Google Glass failed not only due to technical limitations. It failed because users were immediately labeled with the derogatory term “glasshole,” and society sent a clear signal: wearing a camera-equipped device on the face is perceived as a statement that prioritizes one’s digital interaction over respect for those nearby.

Meta addressed this problem through its partnership with Ray-Ban – one of the most recognizable fashion brands in the world. When AI glasses look identical to iconic Wayfarer frames, social stigma disappears along with visibility. Wired described Meta’s products as “some of the best glasses” the company has ever tested, and noted that it is “unquestionably winning the battle for face-worn devices” – despite ongoing privacy concerns.

Industry reporting points to a broader fashion-tech revival: brands are beginning to treat smart glasses as seasonal consumer products. This shifts the logic of adoption – comfort and style can outweigh technical specifications in purchasing decisions. If this trend continues, the AI glasses market will eventually consolidate around a small number of key fashion partnerships, where the technological component becomes only one factor among others such as design, materials, and brand identity.

Enterprise and Industry: The Invisible Revolution

In parallel with the consumer market, a less visible but equally significant transformation is unfolding in the corporate and industrial sectors. Around 46% of enterprises have adopted wearable technologies for employee safety, real-time tracking, and workflow automation. Smart glasses and AR wearables now account for over 19% of usage in the corporate environment.

In logistics, AR glasses allow warehouse workers to instantly identify required items without needing to hold a tablet or handheld terminal. In healthcare, surgeons can view MRI results directly during operations without shifting their attention away from the patient. In manufacturing, technicians receive step-by-step repair instructions overlaid directly onto the components they are working on.

Industrial use of wearable devices has increased by 22% across logistics, manufacturing, and construction sectors, driven by workforce monitoring and productivity optimization. This figure is important because enterprises, as a whole, represent a more predictable and less volatile market than consumers. If large corporations standardize AR glasses for specific workflows, this could become a more powerful catalyst for mass production and cost reduction than any consumer-driven trend.

The geopolitical aspect of wearable technologies

There is another aspect that rarely appears in technology coverage but carries strategic importance: wearable devices as a geopolitical instrument. Huawei – a company with strong state ties – now sits at the top of the smartwatch market. Apple faces regulatory constraints in China, while Chinese brands are aggressively expanding into global markets. Meanwhile, the EU is building its own regulatory architecture through the AI Act, which limits the operational flexibility of both American and Chinese companies in Europe.

This three-way competition – between the United States, China, and the European Union – is unfolding simultaneously across hardware, software, regulation, and standard-setting. Questions such as whose AI will be embedded in glasses worn by billions of people, which companies will store and process biometric data, and which legal system will define the boundaries of acceptable use all extend far beyond consumer electronics. The human face – and the technologies worn on it – is becoming, quite literally, a battleground for competing models of digital sovereignty.

Where All These Roads Lead

Humanity is entering an era that can be described with a single word: wearability. Technology no longer stays in the pocket or on the desk – it moves onto the body, into the body, and alongside the body. A smart ring on the finger tracks heart rate variability and warns of early signs of illness. Glasses translate language in real time and remind you of the name of someone you have already met. A watch transmits data to a doctor, who adjusts treatment without any physical contact.

Taken together, these systems suggest a gradual reconfiguration of human–technology interaction: from discrete tools we actively use to continuous layers of augmentation embedded in daily life.

This is neither utopia nor dystopia in itself. It is a new reality with its own spectrum of opportunities and risks. The question is whether individuals, societies, and states will have enough time and understanding to develop adequate norms before the technology becomes too deeply embedded to be effectively governed.

The revolution taking place is indeed quiet – at least for now. But the question it raises for each of us is loud and clear: who decides which version of reality you see through your glasses?

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How Wearables and AI Glasses Are Rewriting the Logic of Technological Civilization