Radiology is the clear winner of the AI race related to regulatory authorizations,

 

Artificial intelligence has intruded quickly into the healthcare space.  AI has had unique applications in each specialty. The applications range from image recognition and analysis to others listed below.

Radiology is the clear winner of the AI race related to regulatory authorizations, does it mean that,

1) 𝐦𝐨𝐫𝐞 𝐫𝐚𝐝𝐢𝐨𝐥𝐨𝐠𝐢𝐬𝐭𝐬 will be needed to keep on improving these algorithms; or

2) 𝐟𝐞𝐰𝐞𝐫 𝐫𝐚𝐝𝐢𝐨𝐥𝐨𝐠𝐢𝐬𝐭𝐬 will be able to do the same amount of jobs with the help of that many AI technologies?

Which one is closer to what we will experience in the next 10 years?

The infographic: We put all the FDA-approved AI-based medical technologies from the official FDA database on this infographic and we grouped them by the medical specialty or category they were approved for.

Artificial Intelligence in Healthcare: A Revolution in Medicine

Artificial Intelligence (AI) is rapidly transforming the healthcare landscape, revolutionizing diagnostics, treatment plans, drug development, and even patient care. With its ability to process vast amounts of data, identify patterns, and make predictions faster than humans, AI is proving to be an invaluable tool in improving medical outcomes. This article explores how AI has entered the healthcare space, its benefits, challenges, and what the future holds.

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AI in Diagnostics: Enhancing Accuracy and Speed

One of the most impactful areas of AI in healthcare is diagnostics. AI-powered algorithms can analyze medical images, detect anomalies, and assist in identifying diseases with remarkable precision. For example:

• Medical Imaging: AI-driven systems, such as Google's DeepMind and IBM Watson, can analyze X-rays, MRIs, and CT scans to detect conditions like cancer, brain hemorrhages, and fractures. AI can identify tumors at earlier stages, improving survival rates.
• Pathology: AI-powered pathology tools can analyze tissue samples and detect cancerous cells more accurately than traditional methods.
• Ophthalmology: AI has been instrumental in detecting diabetic retinopathy by analyzing retinal scans, helping prevent blindness in diabetic patients.

These innovations reduce diagnostic errors and allow physicians to make faster, more accurate decisions, ultimately improving patient outcomes.

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AI in Drug Discovery and Development

Developing a new drug typically takes years and costs billions of dollars. AI is accelerating this process by:

• Predicting Molecular Interactions: AI algorithms can simulate and analyze how different molecules interact, identifying potential drug candidates in a fraction of the time.
• Repurposing Existing Drugs: AI helps identify new uses for existing drugs, as seen with some medications being repurposed during the COVID-19 pandemic.
• Personalized Medicine: AI assists in designing treatments tailored to individual genetic profiles, enhancing effectiveness and reducing side effects.

By streamlining drug discovery, AI is making it possible to develop life-saving treatments faster and more efficiently.

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AI in Surgery: Enhancing Precision and Safety

Surgical procedures are becoming safer and more precise with the integration of AI-powered robotic systems. AI assists surgeons by:

• Providing Real-Time Guidance: AI-powered robots, like the da Vinci Surgical System, help perform minimally invasive procedures with higher accuracy and reduced recovery time.
• Augmenting Decision-Making: AI analyzes preoperative scans to assist in planning complex surgeries.
• Automating Simple Procedures: AI-driven robotic systems can handle repetitive surgical tasks, allowing surgeons to focus on critical aspects of the procedure.

AI in surgery not only improves outcomes but also reduces complications and shortens hospital stays.

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AI in Patient Care and Administration

Beyond clinical applications, AI is enhancing the efficiency of healthcare systems by:

• AI Chatbots & Virtual Assistants: AI-driven chatbots like Ada and Babylon Health provide symptom analysis and recommend whether patients should seek medical attention.
• Predictive Analytics: AI analyzes electronic health records (EHRs) to predict disease outbreaks, readmission risks, and patient deterioration.
• Automating Administrative Tasks: AI reduces paperwork by streamlining billing, scheduling, and medical coding, allowing healthcare professionals to focus more on patient care.

AI is playing a vital role in making healthcare more accessible, efficient, and patient-centric.

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Challenges and Ethical Considerations

Despite its advantages, AI in healthcare faces several challenges:

• Data Privacy & Security: Handling sensitive patient data raises concerns about privacy and cybersecurity threats.
• Bias in AI Algorithms: AI systems can inherit biases from training data, leading to disparities in medical diagnoses and treatments.
• Regulatory Hurdles: The approval process for AI-driven medical tools is complex, with regulatory bodies requiring extensive validation.
• Human Oversight: While AI enhances decision-making, human doctors are still essential for interpreting AI-generated insights and making final medical decisions.

Addressing these challenges is crucial for ensuring AI’s responsible and effective integration into healthcare.

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The Future of AI in Healthcare

AI’s role in healthcare will continue to expand, with future developments likely to include:

• AI-Powered Wearable Devices: Advanced health monitoring tools that provide real-time analysis of vital signs and early disease detection.
• AI-Driven Precision Medicine: More personalized treatments based on individual genetic and lifestyle factors.
• Autonomous AI-Operated Clinics: The potential for AI-powered healthcare centers providing diagnoses and basic treatments without human doctors.

As AI technology evolves, it will redefine the way healthcare is delivered, making it more efficient, accessible, and personalized.

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Conclusion

Artificial intelligence is revolutionizing the healthcare industry, offering groundbreaking solutions in diagnostics, drug discovery, surgery, patient care, and administration. While challenges remain, the benefits of AI in improving healthcare outcomes are undeniable. By embracing AI responsibly and addressing ethical concerns, the medical field can harness its full potential, paving the way for a future where technology and human expertise work together to save lives.

Final Thought: AI is not here to replace doctors—it is here to empower them. The combination of human intelligence and artificial intelligence is the key to a more advanced and effective healthcare system.

CES (Consumer Entertainment Show)

A Physician Goes To CES 2025: My Top 10 Takeaways

The Top 10

Now that I have returned to reality and had a chance to catch my breath, here are my top 10 overall impressions—medically related and general. 1. First, the numbers: The final statistics, courtesy of CES, are themselves pretty staggering. 4500+ exhibitors and 141K+ attendees, including 6K+ media. No wonder I’m worn out. The number of exhibitors and attendees was slightly up over last year.  

2. As expected, AI was front and center, everywhere, all the time. While many presenters went out of their way to establish that AI was becoming embedded in products and what we all do, just like the internet or electricity, you couldn’t tell it from the exhibit floor. The AI capabilities of every product were being shouted from the rooftops, whether AI actually had a significant role in what was being offered or not. We are not over the hype cycle in consumer products or in medicine by any means.

Ahh, the products. With over 4,500 exhibitors, it’s impossible to see even the tip of the proverbial iceberg when it comes to the products displayed. Here’s the thing, though. I would guess some 75-80% of the products displayed will never see the light of day again. They are just too experimental and pie in the sky to go mainstream, at least not yet. Some 15-20% of the products displayed do something that other, more established products already do. That leaves a small percentage of products that we will actually see in the marketplace. Why bother with the exhibit halls, then? It’s to see possibilities. It’s to see concepts and ideas. It’s to see products that may morph into products that actually do make it. What product did I see that I think may go mainstream? Eyeglasses that double as hearing aids. It is too a good fit between practicality and vanity to not work. One other end of the spectrum was the flying car that was touted as the first flying car to fit in your trunk. WTF? 

On the top future uses of robots is in hospitals, such as delivering food or pharmaceuticals from the kitchen or pharmacy and/or caring for sernors at home, allowing assisted living at @home. There was an increased emphasis on robots this year.   A few exhibitors displayed human-looking robots that could perform assembly line-type tasks. My guess is that a more efficient robot would be less human-looking and more practical-oriented. I don’t think we are beyond the cute stage for human robots quite yet.

Another thing I didn’t report on is quantum computing. I did go to several sessions and tried to get my head around it. (One presenter said classic computing is based on math, and quantum computing is based on physics. I sort of get it.) The best I can tell from all the presentations is that quantum computers will be supercomputers that exponentially increase what can now be done by classic computers. But most agree the technology is not yet far enough along to know precisely what applications can be developed to work with these computers.  The use of quantum computing in medicine is unclear other than being able to do some things better and faster. One thing that all the quantum presenters did talk about (and about which they were visibly concerned) was the impact of quantum on cyber security. The sheer power of these computers could very well render most cyber security protections obsolete. And precious little appears to be being done about it.

10. Covid? What Covid? Very few people were wearing masks. Very few references were made to Covid anywhere. I got the distinct impression that the fear of Covid has faded into the woodwork. I got the impression that this show, more than any other, has entirely returned to the pre-Covid normal. We shall see post-show, I suppose. Pre-Covid, it was a standard joke that most attendees came down with the “CES crud” post-show. It may be that even if Covid hits attendees, we won’t hear much about it. 

Medical technologies at CES 2025

Manufacturers and healthcare professionals actively participated in the event, driven by a shared commitment to finding innovative solutions that can enhance the support they provide to their customers and patients. Their presence reflects a collaborative effort to address pressing challenges in the industry, to improve overall health outcomes. By engaging in discussions and exploring new technologies, they aim to develop strategies that will not only meet the needs of their clients but also elevate the standard of care in healthcare settings.  

SoundPass Medical

• • An ultrasound-guided stylet for external ventricular drains that provides real-time 3D imaging 
  • LaparoVision

    A single-use laparoscope lens cleaner that helps surgeons maintain visibility during procedures 
  • 
    
    
  • miLab   
  • 

    
    
  • An AI-powered, automated digital microscope that analyzes blood samples in 15 minutes. miLab is an adoption of visual imagery for the analysis of microscope images. T
  • 
    

    

    
    
  • Elythea

    An AI platform that predicts pregnancy complications early 
  • Tone Buds   (Ozlo)

    These noise-making earbuds have some special features, including helping you fall asleep and stopping playing when you're out.
  • • SNORE BLOCKING: Our soft silicone tips passively block noise, while our Science-backed Sleep Sounds help cover up noisy sleep disruptions like snoring partners, loud cities, dogs barking, and more.
    • SUPER COMFY: Side Sleeper Approved. Ozlo Sleepbuds feature ultra-soft, squishy silicone tips that mold to your ears, providing unparalleled comfort and a secure-fit, even for all-night wear.
    • HOW THEY WORK: Sleepbuds use state-of-the-art Bluetooth Low Energy (BLE) technology to minimize battery size, making them tiny and comfortable for all sleeping positions. For optimal streaming, keep Sleepbuds within 10 feet of the Smart Case and your phone within 30 feet.
    • STREAM ALL NIGHT: Enjoy up to 10 hours of playtime on a single charge, with the Smart Case providing extra power on the go for added convenience and portability.
    • SLEEP DETECTION: Sleepbuds' biometric sensors can seamlessly detect when you fall asleep, auto-magically switching from your streaming audio to built-in noise-masking sounds.
    • IN-EAR ALARM: Ozlo Sleepbuds have a built-in personal alarm that gently wakes you from your sound sleep without jarring you or your partner.
    • SLEEPBUDS LEGACY: With decades of headphone engineering expertise, our team acquired the original Sleepbuds patents to create the next generation—Ozlo Sleepbuds. Redesigned from the ground up, they’re engineered for your best sleep yet.

    • DESIGNED FOR SLEEP: Sleepbuds apply an innovative connection design that uses the Smart Case as a bridge to your phone. This enables Sleepbuds to use Bluetooth Low Energy (BLE), which reduces power consumption and the need for a bulky battery. The space savings allow Sleepbuds to be super tiny and provide all-night comfort.
    • CLINICALLY PROVEN: Our Sleep Technology is Clinically Proven to Help You Fall Asleep Faster and Stay Asleep Longer, Without Pharmaceutical Intervention – and the Associated Side Effects.
  • Hyodol  

    
    

    An AI-based companion robot doll that helps older adults with dementia feel less lonely 
  • Eyas    

    
    

    A digital therapy platform that helps patients with ADHD and mild cognitive changes. (Neurodivergence)  
  • 
    
  • EYAS (EYe-ear-Attention System) Global-only computerized cognitive rehabilitation system linked to eye tracking. Maximization of the development improvement effect by linking the patient's vision with the system. Children with difficulty in learning and doing their assignments. Children with attention deficit, hyperactivity disorder.
  • Children require flexible thinking in the cognitive process. Children with difficulty in visual and auditory perception.
•  
• 
  
•  At CES 2025, there were many other innovative healthcare technologies highlighting advancements aimed at improving patient care, accessibility, and overall health management. Here are some of the notable developments:

   

  Asahi Kasei's Microdevices: These devices depend upon semiconductors to sense chemicals such as carbon dioxide and other sensors such as:

  A fall detection system that uses millimeter-wave radar and AI to monitor movement without compromising privacy.

  A battery-free smart diaper that alerts caregivers when it needs changing, powered by moisture.

  A contactless stethoscope that monitors vital signs without physical contact [1][2].

  MedicosBiotech's Cure Silk:

  An AI-driven chronic wound care solution that utilizes spider silk protein-based patches to enhance healing, accompanied by an app for personalized treatment suggestions [2].

  OnMed's Clinic-in-a-Box:

  A compact solution providing real-time doctor consultations, vital checks, and e-prescriptions, designed to improve healthcare access in underserved communities [2].

  Hyodol's AI Companion Robot:

  A robot designed to assist older adults with dementia, providing companionship and reminders for medication and meals [1].

  Eli Health's Hormometer:

  A portable device that allows users to track hormone levels at home using a saliva sample, delivering results in about 20 minutes [2].

  Noul's miLab System:

  An AI-powered digital microscope that automates blood sample analysis, providing high-resolution images and diagnostic insights in just 15 minutes [2].

  Variowell's Thermal Comfort Topper:

  A bed topper that monitors heart rate and body zones to adjust temperature for optimal sleep comfort [2].

  InTheTech's EYAS:

  A digital therapy platform for patients with mild cognitive impairment and ADHD, utilizing eye-tracking technology to enhance cognitive training [1][2].

  FlowBeams' BoldJet:

  A needle-free injection system that uses lasers to deliver vaccines and medications painlessly, reducing the risk of needlestick injuries [2].

  Withings' Omnia Smart Mirror:

  A smart mirror that reads vital stats and provides health reports, integrating with a companion app for comprehensive health tracking [3].

  These innovations reflect a growing trend towards integrating technology into healthcare to enhance patient experiences and outcomes, making healthcare more accessible and efficient.

Mark your calendar for next year's 2026 CES, held in  Las Vegas.  

The 2026 Consumer Electronics Show (CES) will take place in Las Vegas, Nevada from January 6–9, 2026. The event will be held at the Las Vegas Convention Center.

Register for CES 2026

• 
  

Google's Quantum Chip Just Broke Reality (You Won't Believe What It Can ...

Google's Quantum Chip Just Broke Reality (You Won't Believe What It Can Do!)

A quantum computer

Is tis imaage a real quantum computer, or an AI generated image?

A quantum chip image

Are quantum chips real?  The image abovemay very well have been generated by artificial intelligence.

Willow is a company known for its advancements in quantum computing, particularly with its focus on developing quantum chips. Their work often involves creating specialized hardware that leverages the unique properties of quantum mechanics to enhance computational capabilities.

In the context of quantum chips, Willow may be involved in areas such as:

Quantum Processing Units (QPUs): These are the heart of quantum computers, where quantum algorithms are executed. Willow's research likely focuses on improving the efficiency and stability of QPUs.

Material Science: Like other companies in the field, Willow may explore new materials and technologies for building qubits, which are the fundamental units of quantum information.

Integration with Classical Systems: Quantum chips need to work alongside classical computing systems. Willow may be developing solutions for better integration and hybrid computing models.

Quantum Algorithms: Besides hardware, understanding and developing quantum algorithms that can effectively utilize the power of quantum chips is crucial. Willow might also be involved in this aspect.

1. Technology Development

Qubit Technology: Willow may explore various qubit technologies, such as superconducting qubits, trapped ions, or topological qubits, each with distinct advantages and challenges.

Scalability: A significant challenge in quantum computing is scaling up the number of qubits while maintaining coherence and minimizing error rates. Willow's research might focus on techniques that allow for larger, more stable quantum systems.

2. Quantum Error Correction

Error Mitigation: Quantum systems are prone to errors due to decoherence and noise. Willow could be working on error correction protocols that enhance the reliability of quantum computations.

Fault-Tolerant Quantum Computing: Developing methods to create fault-tolerant quantum chips is crucial for practical applications. Willow’s contributions in this area could be significant.

3. Applications of Quantum Chips

Optimization Problems: Quantum chips can solve certain optimization problems much faster than classical counterparts. Willow might target industries like logistics, finance, or pharmaceuticals for practical applications.

Simulation of Quantum Systems: Quantum chips are particularly well-suited for simulating molecular and material interactions at the quantum level, which can be beneficial for drug discovery and materials science.

4. Collaboration with Academia and Industry

Willow may collaborate with universities and research institutions to advance quantum technology. These partnerships can facilitate knowledge exchange and accelerate innovation in quantum chip development.

5. Public Engagement and Education

As part of the quantum computing ecosystem, Willow might engage in outreach and educational initiatives to raise awareness about quantum technologies and their potential, helping to foster a skilled workforce in the field.

6. Prototypes and Demonstrations

Building and demonstrating prototypes of quantum chips is essential for proving concepts and attracting investment. Willow may showcase their advancements through public demonstrations or partnerships with other tech companies.

7. Market Position and Future Outlook

There will be intensive research and development of quantum computing.

Types of Quantum Chips

Superconducting Quantum Chips

Mechanism: These chips use superconducting circuits to create and manipulate qubits. Superconductors allow current to flow without resistance, enabling rapid operations.

Advancements: Companies like Google and IBM have made significant progress with superconducting chips, achieving notable qubit counts and coherence times.

Trapped Ion Quantum Chips

Mechanism: Trapped ion chips use ions confined in electromagnetic fields as qubits. Lasers are employed to manipulate the states of these ions.

Advantages: They often exhibit longer coherence times compared to superconducting qubits, which can enhance computational fidelity. Companies like IonQ are leaders in this technology.

Photonic Quantum Chips

Mechanism: These chips utilize photons (light particles) as qubits. They manipulate quantum states through optical components like beam splitters and waveguides.

Scalability: Photonic quantum computing has potential for scalability and integration with existing telecommunications infrastructure.

Topological Quantum Chips

Mechanism: This emerging technology seeks to use anyons (quasi-particles) that exist in two-dimensional space. They are theorized to be more robust against decoherence.

Research: While still largely experimental, topological qubits could pave the way for more stable quantum computers.

Functioning of Quantum Chips

Qubits: The fundamental units of quantum information, qubits can exist in multiple states simultaneously (superposition) and can be entangled with one another, leading to complex computational capabilities.

Quantum Gates: Quantum chips perform operations using quantum gates, which are the equivalent of classical logic gates but operate on qubits and enable the manipulation of their states.

Quantum Circuits: A series of quantum gates form a quantum circuit, which is used to execute quantum algorithms.

Current Developments

Research and Prototypes: Many institutions are actively researching quantum chips, developing prototypes to test new materials and architectures.

Quantum Advantage: Researchers are striving to achieve "quantum advantage," where quantum computers can solve specific problems faster than classical computers.

Hybrid Systems: There’s increasing interest in hybrid systems that combine classical and quantum computing, allowing for more practical applications of quantum technology.

Applications of Quantum Chips

Cryptography: Quantum chips could revolutionize cryptography through quantum key distribution (QKD), providing theoretically unbreakable encryption methods.

Drug Discovery: They are being explored for simulating molecular interactions and chemical reactions, potentially accelerating drug discovery processes.

Machine Learning: Quantum chips may enhance machine learning algorithms, allowing for faster processing of large datasets.

Challenges

Decoherence: Qubits are highly sensitive to their environment, leading to decoherence, which disrupts their quantum state.

Error Rates: High error rates in operations necessitate the development of error correction methods to enhance reliability.

Scalability: Building large-scale quantum computers remains a significant challenge, as increasing the number of qubits while maintaining performance is complex.

Future Outlook

Investment and Interest: The quantum computing sector has seen substantial investment from both private and public sectors, indicating strong belief in its potential.

Commercialization: As quantum technologies mature, the pathway for commercial applications is becoming clearer, with industries eagerly exploring use cases.

Quantum chips are at the forefront of transforming computation, and ongoing advancements in their development are crucial for realizing the full potential of quantum computing.

Medtech Update for 2024

 Thank You to Our Readers

Dear Readers,

We extend our gratitude for your continued support and engagement with our content. Your enthusiasm and feedback inspire us to keep exploring and sharing the latest advancements in medical technology.

Updates in Medical Technology

As we move into the new year, we are excited to witness rapid advancements in medical technology. Innovations such as telemedicine, artificial intelligence in diagnostics, and wearable health devices are transforming patient care and making healthcare more accessible. These technologies not only enhance the efficiency of medical practices but also empower patients to take charge of their health.

We look forward to bringing you more insights and updates on these exciting developments. Together, let’s continue to explore the future of healthcare!

Thank you once again for being a part of our community.

Author:  Gary M. Levin M.D.

Next steps for Neuralink

Neuralink’s human testing journey: From widely publicized malfunctions to international expansion, here’s a reminder of how far Neuralink’s BCI has come. A year ago, the first Neuralink human user, Noland Arbaugh, underwent surgery to receive the brain chip.  In a video on Musk-owned social media site X, Arbaugh was shown playing chess and other computer games using his mind.   But just a few weeks later, the device began to malfunction, prompting Neuralink to modify the brain-recording algorithm’s sensitivity before implanting the tech in the second human participant.  Now, the robotic arm study, according to Neuralink’s announcement, will cross-enroll from the ongoing PRIME study. If successful, it will mark further applicability of the technology.

Even specifically BCIs connected to robotic prosthetics are nothing new. As a refresher, the first such technology was successfully tested in a monkey in 2008. A 2012 Nature study marked the first successful use in human stroke survivors.

However, what has distinguished Neuralink’s BCI is its size and sleekness. Traditionally, BCIs are clunky and require a constant wired connection. The Neuralink chip is wireless.

OpenAI’s healthcare takeover

“A computer can never be held accountable.”

This is a famous quote for many technologists. It’s said to have surfaced from a 1979 IBM presentation about how computers should not be held responsible for management decisions.  Computer decision-making and artificial intelligence have come a long way since the 70s. But people’s wariness around a technology’s ability to make decisions with consequences is still palpable today. This is especially true in healthcare, where generative AI has been proposed to help solve issues ranging from appointment scheduling to ambient scribing to diagnosis. While GenAI overall dominates the MedTech conversation, one company's products dominate the healthcare market: OpenAI.  The company behind ChatGPT has technology deployed across hospitals, pharma, cancer care, and many other settings. To some, this is cause for concern, given that OpenAI’s products are not immune to risks of common GenAI errors like hallucinations.  But I’m not here to add to the fear around GenAI in healthcare. In many ways, I think the eager adoption of this class of technology is reason for optimism. Healthcare, notorious for its resistance to adopting new technologies, is onboard with GenAI.

And what is so fascinating to me about our sector’s embrace of OpenAI, in particular, is that it’s not a healthcare company—not by a long shot. 

These smart glasses can decode your feelings

When you think of smart glasses, you probably think of how technology augments or analyzes what you look at through them. But what if smart glasses watch you?

Brighton, UK startup Emteq Labs launched Sense, its emotion-sensing smart glasses.

Paired with Emteq’s software, the glasses’ sensors, placed along the rim, can detect minute differences in facial expressions with up to 93% accuracy.

Tech specs for smart specs: In building a product that lays somewhere between a pair of designer glasses and an AR headset, Emteq has had to be very intentional about the look, feel, and function of their product.

AR headsets are heavy, largely because of their battery packs. The Sense glasses weigh in at 62 grams, slightly heavier than Meta’s own Ray-Ban smart glasses.

To keep the weight low, the Sense glasses use optical sensors instead of cameras, which require more battery power. These sensors, inspired by the vision of the common fly, work by detecting motion vectors when points on the face move. 

The Sense glasses capture data up to 6000 times per second, looking for facial motion, especially around the eye, where motion related to emotional shifts are especially present.

The health angle: Why would we want to monitor our own feelings with a pair of smart glasses?

In monitoring involuntary facial muscle activation, the glasses aim to detect and interpret emotional shifts users may be suppressing or even unaware of. This will help users—and perhaps clinicians—track mood and mental health in a new quantifiable way.

The glasses may also eventually be used to track food intake, which reminds us of the calorie-counting algorithm we covered earlier this year.

Overall, the team is excited to eventually see this technology spawn a range of more advanced, niche tools. For instance, one potential opportunity they’d eventually like to look at is developing a tool for facial paralysis.

Another set of smart glasses?: After the spectacular failure of the Google Glass smart glasses, consumers and tech wonks alike have been bearish on this class of wearables. 

But now, with new health applications for these products, the tide appears to be turning. We discussed why this may be the case when we covered EchoSpeech, smart glasses for detecting silent speech.

Emteq sees health-focused smart glasses as riding on the wave of health-focused wearable popularity. While many common wearables—from smart watches to rings—focus on sleep and exercise, this new class of personal wearables focuses on diet and mood tracking as “the next pillar of health.”

Emteq faces competition from Big Tech players like Meta and Snap, which have also unveiled their entries into the smart glasses arena.