Tag: #sensors

When Smart Homes Can Fail and Lead to Unexpected Injuries

In recent years, smart home technology has transformed the way people live. From automated lighting to voice-controlled appliances, these systems promise convenience and efficiency. However, integrating complex technology into daily life comes with new types of risks. Even a minor programming glitch or a delayed sensor can create hazards in spaces that were previously considered safe. Many homeowners assume that installing smart devices eliminates everyday dangers, but the reality is that technology can sometimes introduce unseen risks.

The appeal of controlling everything from a smartphone or tablet can give a false sense of security. While monitoring systems can detect some problems, they cannot always prevent physical accidents. For instance, a voice-activated assistant may turn on a device at the wrong time, or motion sensors may fail to detect a wet floor. These malfunctions can directly contribute to injuries that might have been avoided in a non-automated environment. As technology becomes more intertwined with living spaces, homeowners need to recognize the potential for accidents even in the most modern homes.

A deeper concern is how residents interact with multiple devices simultaneously. Homes filled with smart gadgets can create a chaotic environment if devices do not communicate effectively. Conflicting commands or overlapping schedules may leave areas dark or cluttered, which increases the chance of accidents. Careful consideration of how technology integrates into daily routines is crucial. Without thoughtful management, the very systems designed to make life safer and easier may inadvertently introduce new hazards that require constant attention.

Slip and Fall in Modern Homes

According to Weston & Pape slip and fall incidents remain among the most common household injuries, and smart homes are not immune. Shiny floors, slick tiles, and recently installed smart appliances can create hazards that go unnoticed until an accident occurs. Many people do not realize that even small changes in floor texture or lighting patterns can increase the likelihood of slipping. A misaligned smart rug sensor or a poorly lit staircase can quickly turn an ordinary walk into a dangerous fall.

Medical reports confirm that these types of injuries can lead to sprains, fractures, and long-term mobility issues. For homeowners, the challenge is balancing the desire for a technologically advanced environment with the need for safety measures that prevent slips. This may include investing in better lighting, non-slip mats, and regular inspections of automated systems. Awareness of how devices interact with the home environment is critical for reducing the chance of accidents that disrupt daily life.

Smart flooring systems and automated cleaning devices are sometimes added with the intent to reduce hazards, but they can have the opposite effect if not installed properly. For example, a vacuum robot may leave cords or small objects across the floor that sensors fail to detect. Even intelligent lighting that adjusts based on movement can create shadows or glare that misleads the eye. Combining technology with simple precautions like secure flooring, clear pathways, and careful device placement creates the safest environment for residents of all ages.

Technology and Device Malfunctions

Even the most sophisticated devices can fail under certain conditions. Smart lighting systems, automated vacuum cleaners, and intelligent flooring sensors are all susceptible to glitches. For instance, a robotic cleaner may leave cords or objects in high-traffic areas, creating tripping hazards. Similarly, voice-activated lights may not respond as intended, leaving areas dark and unsafe. These seemingly minor malfunctions can escalate quickly, especially for elderly residents or children.

Homeowners must understand that the addition of technology requires a new layer of vigilance. Regular testing and maintenance of devices can prevent accidents before they occur. Beyond physical safety, homeowners may also face emotional and financial consequences if someone is injured. The integration of smart technology offers convenience but also demands responsibility to ensure that the home remains a safe space for everyone.

Technical malfunctions are often unpredictable, which makes them particularly dangerous. Sensors may fail during power surges, and devices may misinterpret environmental changes such as humidity or temperature. Without routine checks, a system may stop performing as intended for weeks, creating hidden hazards. Recognizing that technology is not foolproof and maintaining a proactive approach can prevent accidents and help homeowners retain confidence in their smart systems.

Preventing Injuries Through Smart Design

Designing a smart home that prioritizes safety is essential. This includes installing devices in a way that reduces risks rather than creates them. Automated lighting should provide consistent illumination along pathways, especially near stairs and entryways. Motion sensors and floor sensors need to be tested frequently to ensure accurate readings. By thoughtfully planning technology placement, homeowners can reduce hazards while still benefiting from modern conveniences.

In addition, understanding how people interact with technology is key to preventing accidents. Family members may not always be aware of the risks posed by moving devices or unexpected system behaviors. Creating simple safety routines, such as clearing floors of obstacles and checking sensors regularly, ensures that technology enhances rather than compromises safety. Proper planning and awareness are vital in minimizing injury risks in technologically advanced homes.

Integrating smart home technology with traditional safety design further strengthens protections. Handrails, anti-slip mats, and well-marked walkways remain important even in homes equipped with the latest devices. Combining these measures with technology ensures that residents are protected in both predictable and unexpected situations. A deliberate, multi-layered approach to home safety reduces the chances of accidents and supports a seamless experience between convenience and protection.

Emergency Responses and Assistance

Even with precautions, accidents can occur. Smart homes often include features like automated emergency alerts and medical monitoring, which can be lifesaving. Devices can detect falls and alert family members or emergency services immediately. This rapid response can reduce the severity of injuries and provide peace of mind to residents. However, these systems are only effective if properly configured and maintained.

Homeowners should also consider redundancies. Batteries must be charged, internet connections should be stable, and emergency contacts should be kept current. Technology is a powerful tool for protecting residents, but it is not infallible. Combining technological solutions with traditional safety measures such as grab bars, rugs, and clear pathways ensures a more comprehensive approach to preventing and responding to injuries.

Maintaining open communication with family or caretakers can improve the effectiveness of emergency responses. If multiple people live in a home, everyone should understand the capabilities and limitations of the devices in use. This ensures that alerts are noticed promptly and that appropriate action is taken without confusion. Technology works best when paired with awareness and preparedness, creating a home environment where help can arrive quickly when needed.

Living Safely in a Smart World

Smart homes offer remarkable benefits, but they also introduce new challenges for everyday safety. By recognizing the risks associated with device malfunctions and slip hazards, homeowners can make informed decisions about how to implement technology. Regular maintenance, thoughtful design, and proper safety routines can reduce the likelihood of accidents and enhance the comfort of modern living spaces.

Residents must remember that technology should support, not replace, personal vigilance. Creating a home environment that is both advanced and safe requires consistent attention and practical strategies. When smart devices are used thoughtfully, the potential for injuries can be minimized, allowing families to enjoy the conveniences of a connected home without compromising well-being. Smart living does not mean risk-free living, but with careful planning, the benefits can far outweigh the dangers.

A key consideration is ensuring that smart technology remains adaptable as needs change. Families may grow, visitors may arrive, or mobility issues may develop over time. Devices and safety measures must evolve to meet these shifting demands. Regularly reassessing both technology placement and traditional safety features ensures that the home continues to provide protection for all occupants. By treating safety as an ongoing process rather than a one-time installation, residents can confidently enjoy a connected, secure living environment for years to come.

 

Smart sensors in the stillhouse: Helping Irish whiskey keep its character

Irish distilleries are celebrated worldwide for their rich heritage, time-honored methods, and the distinct character of their spirits. While traditional techniques remain central to production, many distilleries are now embracing smart sensors and automation systems.

This combination allows them to uphold the authenticity of their craft while improving consistency, quality, and efficiency throughout the production process. By merging tradition with technology, distillers can better manage complex operations and meet the rising global demand for Irish whiskey.

Key Takeaways

Irish distilleries are integrating smart sensors and automation to maintain the character of their whiskey while enhancing production efficiency and quality.

  • Smart sensors track critical factors during distillation, enabling precise control without replacing traditional craftsmanship.
  • Automation systems improve consistency and reduce human error, supporting sustainability and energy efficiency.
  • Integration of modern technology in heritage spaces enhances visibility, safety, and traceability, while preserving traditional techniques.

Embracing technology without losing craft

The stillhouse has always been the heart of a distillery, where copper pot stills transform fermented wash into spirit. Traditionally, operators relied on sensory expertiseobserving temperature, listening to the drop of the spirit, and evaluating aromato guide the distillation process.

Today, smart sensors continuously track critical factors such as temperature, pressure, and flow, alerting operators if any variable deviates from its optimal range. This approach enables precise control without replacing hands-on craftsmanship.

Supporting quality and consistency

Automation systems help distillers achieve consistent results while reducing human error. Sensors allow for early detection of potential problems, preventing variations in flavor or yield. Moreover, these systems contribute to sustainability and energy efficiency by monitoring equipment usage and identifying opportunities to reduce waste. Midleton Distillery, for example, aims to become carbon-neutral by 2026, with sensor-driven efficiency playing a crucial role.

Integrating modern tools in heritage spaces

Many Irish distilleries operate in historic buildings, which makes installing modern technology challenging. Sensors, actuated valves, and programmable logic controllers (PLCs) must be carefully integrated without compromising the structure or artisan processes.

Despite these challenges, automation enhances visibility, safety, and traceability, supporting distillers expertise rather than replacing it. These systems also allow for remote monitoring, giving operators greater flexibility to oversee production.

Benefits beyond the stillhouse

Automation extends beyond the stillhouse to fermentation, cask handling, and maturation. Sensor networks monitor conditions in real time, helping distilleries optimize production while reducing energy use and minimizing waste. This technology ensures that products maintain consistent quality and meet environmental standards. In addition, the ability to track and record every step of production is increasingly important for transparency and regulatory compliance.

Supporting operators and craft

Far from replacing the skill of master distillers, automation serves as a supportive tool. Alerts and data allow operators to intervene quickly when an issue arises, maintaining smooth operations without diminishing the craft. This balance ensures that traditional techniques remain central to production while benefiting from the reliability and precision that technology provides.

The future of Irish distilling is likely to see more advanced integration of technology. Predictive maintenance, powered by sensor data, can anticipate equipment issues before they occur, reducing downtime and costs.

Data analytics can help optimize energy use, improve production efficiency, and fine-tune flavor consistency. As consumers increasingly demand transparency regarding provenance and production practices, these systems will support traceability and sustainability. Small craft distilleries can also adopt these technologies to maintain quality while scaling operations.

For a look at how technology is being embraced in other aspects of Irish distilling, see how Jameson launched an NFC-enabled bottle to connect tradition with modern consumer engagement. For a broader overview of Irelands whiskey offerings, explore this whiskey collection.

A future built on craft and data

The fusion of smart sensors with traditional manufacturing represents a new era for Irish distilleries. Technology provides operators with tools to maintain quality, enhance safety, and increase efficiency while preserving hands-on craftsmanship.

By balancing innovation with tradition, distilleries can meet global demand, improve sustainability, and continue producing high-quality Irish whiskey that retains its distinctive character. The collaboration between technology and artisanal expertise ensures that Irish spirits will remain a trusted symbol of quality for generations to come.

The Technology Revolution Transforming Ground Operations at Irish Airports

Irish aviation stands at the intersection of traditional engineering and cutting-edge technology. As Dublin positions itself as Europe’s tech capital and Cork’s tech corridor continues expanding, the parallel transformation of airport ground operations showcases how digital innovation revolutionises even the most established industries. The integration of IoT sensors, artificial intelligence, and autonomous systems into ground support equipment represents a fascinating convergence of Ireland’s aviation and technology sectors.

Forward-thinking suppliers like Adapt GSE demonstrate how traditional ground support equipment evolves into sophisticated technological platforms. Their comprehensive service offerings now encompass not just mechanical refurbishment but integration of advanced telematics, predictive maintenance systems, and smart fleet management solutions. Operating from strategic locations serving Ireland, these providers bridge the gap between aviation’s operational demands and technology’s transformative potential.

Digital Transformation in Airport Ground Support: Ireland’s Hidden Tech Frontier

While Ireland’s tech sector focuses primarily on software development, fintech, and pharmaceutical technology, a quiet revolution unfolds on airport aprons across the country. Ground support equipment, once purely mechanical vehicles, now generates gigabytes of operational data daily. Pushback tractors equipped with GPS tracking, accelerometers, and engine monitoring systems provide real-time performance metrics. Ground power units incorporate smart power management, automatically adjusting output based on aircraft requirements whilst logging energy consumption patterns.

The data generated by modern GSE rivals that of many IoT deployments in smart cities. A single busy day at Dublin Airport might see ground support equipment generating millions of data points covering location, speed, fuel consumption, hydraulic pressure, engine temperature, and operational cycles. This data, properly analysed, reveals optimisation opportunities that Irish tech companies are uniquely positioned to exploit.

Cork Airport has emerged as a testing ground for GSE technology integration, leveraging the city’s tech expertise. Local software developers collaborate with ground handling companies to create custom analytics platforms processing GSE data streams. These platforms identify patterns invisible to human operators: subtle performance degradations predicting component failures, route optimisations reducing fuel consumption, and utilisation patterns informing procurement decisions.

Machine Learning and Predictive Maintenance: Preventing Failures Before They Happen

The application of machine learning to GSE maintenance represents one of the most promising intersections of Irish tech expertise and aviation operations. Traditional maintenance schedules, based on hours operated or calendar intervals, often result in either premature component replacement or unexpected failures. Machine learning models, trained on historical failure data and real-time sensor readings, predict component failures with remarkable accuracy.

Irish data scientists have developed algorithms analysing GSE sensor data to identify failure precursors. Vibration patterns indicating bearing wear, temperature fluctuations suggesting cooling system issues, or hydraulic pressure variations warning of seal degradation trigger maintenance alerts before failures occur. This predictive capability transforms maintenance from reactive cost centre to proactive reliability assurance.

The economic impact proves substantial. Unexpected pushback tractor failures during aircraft departure can generate costs exceeding €10,000 in delay-related expenses. Predictive maintenance systems developed by Irish tech companies have demonstrated failure prediction accuracy exceeding 85%, effectively eliminating most unscheduled downtime. For airports like Cork handling hundreds of daily movements, prevented failures translate to millions in avoided costs annually.

Autonomous GSE: Ireland’s Next Frontier in Aviation Technology

The development of autonomous ground support equipment represents perhaps the most exciting technological frontier in aviation ground operations. While fully autonomous aircraft remain distant prospects, autonomous GSE operates in controlled airport environments ideal for automation. Irish universities and technology companies actively research autonomous vehicle applications in aviation contexts.

Baggage tractors present ideal autonomous vehicle candidates. Following predetermined routes between terminals and aircraft, these vehicles operate in structured environments with defined paths. Trinity College Dublin’s robotics researchers have demonstrated autonomous baggage train navigation using LIDAR sensors and computer vision, achieving centimetre-level positioning accuracy required for aircraft proximity operations.

The progression toward autonomous pushback tractors proves more challenging but equally promising. University College Dublin’s partnership with aviation companies explores sensor fusion technologies enabling precise aircraft coupling and pushback operations. Combining GPS, inertial measurement units, and computer vision creates spatial awareness surpassing human operators in low-visibility conditions.

IoT Integration and Fleet Management Platforms

The Internet of Things revolution transforms GSE fleet management from spreadsheet-based administration to real-time operational orchestration. Every piece of modern ground support equipment becomes a connected node in vast airport IoT networks. Irish software companies have developed sophisticated platforms aggregating data from dozens of equipment types into unified operational dashboards.

These platforms leverage Ireland’s cloud computing expertise, with many running on infrastructure provided by tech giants with Irish operations. Real-time equipment tracking enables dynamic dispatch, routing the nearest available pushback tractor to departing aircraft. Utilisation analytics identify underused equipment for redeployment or disposal. Energy consumption monitoring supports sustainability reporting increasingly important for airport environmental credentials.

Integration challenges require sophisticated middleware solutions, another Irish tech strength. Ground power units from different manufacturers use proprietary communication protocols. Belt loaders vary in sensor configurations. Passenger stairs might lack any digital systems. Irish developers create universal adapters enabling legacy equipment integration alongside modern units, maximising existing investment value whilst enabling fleet-wide visibility.

Electric GSE and Smart Charging Infrastructure

The transition to electric ground support equipment creates enormous technological challenges and opportunities. Electric GSE requires intelligent charging infrastructure managing power distribution, scheduling charging sessions, and optimising energy costs. Irish cleantech companies lead development of smart charging systems specifically designed for aviation applications.

Shannon Airport’s collaboration with University of Limerick researchers produced innovative charging management systems. These platforms predict equipment energy requirements based on flight schedules, pre-positioning charged equipment for peak periods. Dynamic load balancing prevents grid overload whilst minimising demand charges. Integration with renewable energy sources, including airport solar installations, maximises sustainable energy utilisation.

Battery management systems represent critical technology for electric GSE adoption. Irish researchers develop algorithms extending battery life through optimal charging profiles and thermal management. Predictive models estimate battery degradation, enabling proactive replacement before range anxiety affects operations. These technologies prove essential for airports like Cork considering electric GSE investment but concerned about battery replacement costs.

Cybersecurity Challenges in Connected Ground Operations

The digitalisation of ground support equipment introduces cybersecurity vulnerabilities previously non-existent in mechanical systems. Connected GSE potentially provides attack vectors into airport operational networks. Irish cybersecurity companies, globally recognised for expertise, actively address these emerging threats.

Security architectures segregate GSE networks from critical airport systems whilst enabling necessary data flows. Encryption protocols protect sensor data transmission. Intrusion detection systems identify anomalous behaviour potentially indicating cyberattacks. Irish security researchers have demonstrated potential vulnerabilities in GSE systems, prompting manufacturers to implement stronger protections.

The regulatory landscape evolves to address GSE cybersecurity. The Irish Aviation Authority works with National Cyber Security Centre establishing guidelines for connected equipment deployment. These frameworks balance innovation enablement with risk management, ensuring technology adoption doesn’t compromise operational security.

Augmented Reality Applications for GSE Maintenance

Augmented reality technology, developed by Irish gaming and visualisation companies, finds unexpected applications in GSE maintenance. Technicians wearing AR headsets receive real-time guidance overlaying digital information onto physical equipment. Maintenance procedures appear as step-by-step visual instructions. Component locations highlight automatically. Torque specifications display during assembly.

Dublin-based AR developers created platforms specifically for aviation maintenance applications. These systems reduce training time for new technicians whilst improving maintenance quality. Remote support capabilities enable expert technicians to guide on-site personnel through complex procedures, effectively multiplying expertise availability.

The combination of AR with IoT sensor data creates powerful diagnostic capabilities. Technicians viewing ground power units through AR interfaces see real-time operational parameters overlaid on physical components. Temperature readings appear above motors. Pressure values display near hydraulic systems. This immediate visibility accelerates fault diagnosis and repair.

Blockchain for GSE Lifecycle Management

Irish blockchain developers explore distributed ledger applications in GSE lifecycle tracking. Every maintenance action, component replacement, and operational event records immutably on blockchain platforms. This creates transparent, tamper-proof equipment histories valuable for refurbishment certification, warranty validation, and resale transactions.

Smart contracts automate GSE leasing and maintenance agreements. Sensor data triggering maintenance thresholds automatically initiates service scheduling and payment processing. Performance guarantees execute automatically based on availability metrics. These capabilities reduce administrative overhead whilst ensuring contract compliance.

The circular economy benefits from blockchain-enabled transparency. Refurbished ground support equipment carries complete history from manufacture through multiple operational cycles. Buyers access verified maintenance records, accident history, and component provenance. This transparency increases refurbished equipment value whilst supporting sustainability objectives.

Data Analytics Driving Operational Excellence

The wealth of data generated by modern GSE enables sophisticated analytics revealing operational improvements. Irish data scientists apply techniques from financial services and e-commerce to aviation ground operations. Pattern recognition identifies inefficiencies. Correlation analysis reveals unexpected relationships. Predictive models forecast future requirements.

Turnaround time analysis correlates GSE performance with departure punctuality. Machine learning identifies factors contributing to delays: specific equipment units, operator behaviours, or procedural inefficiencies. These insights drive targeted improvements delivering measurable performance gains. Cork Airport’s implementation of data-driven GSE optimisation reduced average turnaround times by 12%.

Revenue optimisation represents another analytics application. Understanding true GSE operational costs enables accurate handling charge calculation. Dynamic pricing models adjust rates based on equipment requirements, time of day, and seasonal demand. These capabilities help Irish airports compete effectively whilst maintaining profitability.

Building Ireland’s Aviation Technology Ecosystem

The convergence of aviation and technology creates opportunities for Irish innovation ecosystem development. Startups focusing on aviation technology access substantial markets with limited competition. Government support through Enterprise Ireland and IDA Ireland could accelerate aviation technology sector growth.

University research programmes increasingly focus on aviation applications. UCD’s collaboration with Dublin Airport Authority explores autonomous vehicle applications. Cork Institute of Technology investigates electric aircraft ground handling requirements. These programmes produce graduates combining aviation knowledge with technical expertise, valuable for emerging aviation technology sectors.

Corporate partnerships between tech companies and aviation operators accelerate innovation adoption. Microsoft’s Dublin operations collaborate with airports on cloud platform deployment. Google’s data centres support aviation analytics platforms. These relationships leverage Ireland’s tech presence for aviation advancement.

Future Technologies and Irish Aviation

Emerging technologies promise continued transformation of ground support operations. Quantum computing might optimise fleet scheduling beyond current algorithmic capabilities. 5G networks enable real-time video streaming from GSE for remote operation. Artificial general intelligence could coordinate entire airport ground operations autonomously.

Hydrogen fuel cell technology, advancing rapidly, might revolutionise GSE power systems. Irish researchers investigate hydrogen production, storage, and fuel cell applications for aviation. Cork Airport’s proximity to offshore wind resources positions it ideally for green hydrogen production supporting zero-emission ground operations.

Urban air mobility vehicles will require entirely new ground support equipment categories. Electric vertical take-off aircraft need specialised charging systems, handling equipment, and maintenance platforms. Irish companies developing these technologies now position themselves advantageously for this emerging market.

Conclusion

The technological transformation of ground support equipment at Irish airports demonstrates how traditional industries evolve through digital innovation. The convergence of mechanical engineering with software development, data analytics, and artificial intelligence creates opportunities for Irish tech companies to lead globally significant innovation.

From predictive maintenance algorithms preventing equipment failures to autonomous vehicles revolutionising ground operations, technology transforms every aspect of GSE management. Irish airports benefit from proximity to world-class technology companies and research institutions, enabling rapid innovation adoption that enhances operational efficiency whilst supporting sustainability objectives.

As Ireland’s technology sector continues expanding beyond traditional software development into industrial applications, aviation ground operations provide fertile innovation territory. The combination of real operational challenges, substantial economic impact, and technological complexity creates ideal conditions for breakthrough innovations. Irish companies and researchers pioneering these developments position the nation at the forefront of aviation technology advancement.

The future of Irish aviation depends not just on aircraft and infrastructure but on the intelligent systems managing ground operations. Investment in GSE technology, whether through equipment procurement, software development, or research programmes, strengthens Ireland’s aviation competitiveness whilst creating high-value technology employment. This symbiotic relationship between aviation and technology sectors exemplifies how Ireland’s economic strategy successfully combines traditional industries with cutting-edge innovation.

 

LOOI Robot Review

The LOOI Robot, developed by TangibleFuture, is an AI desktop companion that aims to blend a charming personality with practical functionality. Unlike a traditional smart speaker, LOOI uses a docked smartphone as its “face” and brain, leveraging its camera, screen, and processing power to deliver a more interactive and expressive experience. It is designed to be a personal assistant, a fun companion, and even a robotic pet for a wide range of ages.

The word AI is now a daily thing we hear and it has got annoying over the last year but this is different rather that type into your phone or laptod and get thing spit back out at you this little guy paired with your phone makes it fun and interactive and less boring.

The product is built well too and runs on tracks rather than wheels has touch sensitive areas lights and can also charge your phone which is great.

Once paired with the app you will fill in some information and let LOOI learn over time and he will get to know you, you can have continued conversation here like you would find on other AI platforms and it does not stop after one question as you will see in the video review down below.

LOOI can sometimes be buggy but updates will fix this in time but after several weeks he has got better and updates come in menaing the company lives up to supporting its product which is great.

LOOI is best left on your desk and can be put to sleep too at the start he rambled my desk and got annoying but it was also funny watching him, he will not fly off a desk either which is cool so he is clever he has a personality and I love how he calls my name, you can enter any name by the way and he will go by that from then on.

Check the video below for more on what LOOI has to offer he is fun and great to have conversation with overall and less boring than what most of use these days in the AI and chatbot world, he talks reacts can get angry, sad and happy and you feel more connected than a phone, tablet or PC when using it, yes you do use your phone but this is different in a good way.

 

Final Verdict

The LOOI Robot is a fun and entetaining product that offers a glimpse into the future of AI companions. Its ability to turn a smartphone into a cool toy for your desk or office is pretty cool and can liven things up, people that have seen him here in action loved it some though say he can be annoying and fun at the same time.  The robot is a great choice for someone looking for a fun, affordable, and quirky desk companion in my opinion. 

Features

  • 1. Smarter Conversations, Powered by ChatGPT 🤖 LOOI isn’t just a chatbot in a robot body—it’s a storyteller, a listener, and a companion that remembers. Powered by ChatGPT, LOOI holds deep, meaningful conversations, recalls your past chats, and even shares its own dreams. Whether you’re talking about your day or your next adventure, LOOI is fully present, making interactions feel genuinely human.
  • 2. Emotionally Expressive & Full of Personality 💫 LOOI isn’t just responsive—it’s expressive. It naps, plays, gets excited, or even backs away when startled. With a rich and ever-growing set of animations and behaviors, LOOI reacts with personality and charm. It might notice your new hat and give you a compliment, or tease you when it’s in a playful mood. Every LOOI gradually develops its own unique personality through daily interaction with you.
  • 3. Multisensory Intelligence 👁️👂✋ LOOI sees you, hears you, and senses the world around it. It recognizes faces, responds to touch, and understands your gestures and voice commands. With its advanced perception and decision-making system, LOOI knows where the desk ends, detects obstacles, and reacts accordingly—whether that means stopping before a fall or backing away when you get too close. It’s more than sensors—it’s real-time awareness, thoughtfully expressed.
  • 4. Functional Meets Fun 🔋📱 Not just cute—LOOI is also practical. It’s a 10W wireless charger, a fully adjustable phone stand (0–60°), and a smart face-tracking camera mount. When idle, it can become a standby clock or even invite you to play light motion-based games. Whether you’re working, relaxing, or just having fun, LOOI adds usefulness with a touch of charm.
  • 5. A Companion That Grows With You 🌱 LOOI is perfect for individuals, families, and curious minds of all ages. It remembers your preferences, grows more attuned to your life, and keeps evolving through everyday interactions. Whether it’s guiding a child’s imagination or being your late-night chat partner, LOOI is a lovable, learning companion that becomes more you over time.

BUY

Video Review

Vitesy launches its upgraded version of Shelfy to extend food freshness #IFA2025

Vitesy, a company committed to improving people’s well-being and health through the development of sustainable and smart solutions, announces the launch of an upgraded version of the original Shelfy at IFA Berlin. This upgraded smart device is designed to extend food life, eliminate bacteria and odours, and significantly reduce household food waste.

The main upgrades from the original Shelfy include a new colour option, blue LED lighting for even more effective photocatalysis and enhanced battery performance for a more efficient charging cycle. As German households continue to waste a staggering 10.8M tonnes worth of food annually, Shelfy arrives at a crucial time to help families cut costs and live more sustainably. Vitesy will be at IFA Berlin in H1.2 Booth 113. The new Shelfy will be available from Vitesy from 16th September 2025 for an RRP of £119 [ launch offer at £109]

With its advanced photocatalytic technology, Shelfy removes harmful gases and microorganisms from inside refrigerators, reducing bacteria in the air by up to 97.5% in just 10 minutes and cutting unpleasant odours by 80%, such as those from fish or cheese. It also neutralises ethylene, the natural gas emitted by fruits and vegetables that accelerates spoilage, thereby slowing ripening and decay. The result is fresher food for longer with up to 12 extra days of shelf life.

Key features of Shelfy:

  • No filter replacements needed: The washable ceramic-coated filter helps maintain zero-waste usage and only needs to be washed under water when necessary and placed back in the device.
  • Smart sensors: Built-in temperature monitoring and door opening detection support energy efficiency.
  • Blue LED light: makes photocatalysis more efficient
  • Three adaptive modes: Eco, Crisper, and Performance mode are tailored to placement and usage needs.
  • Up to three weeks of battery life with easy USB-C recharging.
  • Full app integration: The Vitesy Hub app provides real-time fridge analytics, energy tips, and storage advice.
  • Smart home ready: Seamless compatibility with Google Assistant and Amazon Alexa.

Shelfy also contributes to broader sustainability goals. Vitesy manufactures the device without glue or harmful chemicals, packages it plastic-free and works with sustainability partner UP2You. Its reusable

design aligns with Vitesy’s commitment to a zero-waste future.

With the cost-of-living going up, Shelfy is a one-time investment that can start to pay for itself within months, making it both an eco-conscious and financially smart addition to any kitchen.

Arrive AI revolutionizing deliveries with AI & smart sensors

By incorporating TOF sensors, Arrive AI aims to tackle one of the biggest bottlenecks in the delivery industry: inefficient pickups. Currently, couriers – human or autonomous – servicing large mailboxes at strip malls or office complexes follow an inefficient process. Each stop requires physically opening boxes to check for outgoing packages. With TOF-equipped Arrive Points, couriers will know in advance which mailboxes hold items and how much truck space is required. The result is fewer wasted stops, lower fuel and battery use, faster deliveries and reduced congestion.

Beyond logistics, the data can highlight courier efficiency, empowering users to choose the most reliable providers for their delivery or return needs.

“Time is money, and even small gains in logistics efficiency add up fast,” said Arrive AI CEO Dan O’Toole. “This is another way we’re improving the product and redefining the delivery experience for everyone.”

Torrey Bievenour, Arrive AI Chief Technology Officer, said Arrive AI’s research and development team will use TOF data and AI to detect patterns regarding package sizes, counts, delivery times, retrieval times and product times to help streamline supply chains.

The TOF sensors will provide low-resolution data that will be analyzed cost-effectively by edge AI. This eliminates the need for bulky cameras and expensive processors within the unit, freeing up more space inside Arrive Points for packages.

“We can do a lot with a little,” Bievenour said.

In 2014, O’Toole envisioned a smart mailbox that could accept drone deliveries and beat giant delivery companies to the U.S. Patent Office to protect his invention. He secured that patent in 2017 and has been refining it ever since. The mailboxes, now called Arrive Points, offer a climate-assisted space for deliveries from any human or autonomous courier that is connected to a platform capable of interacting with IoT devices and issuing emergency alerts.

In addition to the basic design and temperature control element, Arrive AI has secured U.S. patents that cover drone delivery management and tethering, anti-theft mechanisms and intelligent chain-of-custody control. The company has 58 patents pending for its Autonomous Last Mile solution filed across 22 countries and has secured several trademarks. See details at https://www.arriveai.com/intellectual-property .

HBK introduces IO-Link connectivity for proven force sensors

Global leader in precision measurement solutions, Hottinger Brüel & Kjær (HBK) has announced the integration of IO-Link communication into its trusted U10M, U10F, and C10 force transducers.

These fatigue-resistant sensors, widely used in critical test and production applications, now combine their renowned mechanical robustness with smart digital connectivity.

Thanks to this enhancement, HBK can meet the growing demand for simplified integration, real-time sensor diagnostics and cost-efficient automation solutions – all while maintaining the company’s hallmark precision and reliability.

Digital integration for demanding applications

The C10 series is optimised for measuring compressive forces, while the U10M and U10F have been designed for tensile and compressive loads. Already valued for their large measurement range and long-term stability, these sensors now offer a high-quality integrated amplifier and IO-Link interface, opening the door to plug-and-play setup in smart factory environments.

All models include built-in temperature measurement, allowing engineers and operators to simultaneously monitor mechanical and thermal conditions in real time – a key feature for ensuring sensor performance, process stability and long-term reliability within dynamic industrial environments.

The key performance enhancements include:

  • Linearity error improved to a factor up to 7
  • Temperature zero drift reduced by up to 50%
  • Enhanced resistance to dynamic overloads

Sensor health monitoring: A new standard in reliability

One of the major innovations is the introduction of Sensor Health Monitoring, a built-in system that continuously monitors applied forces and temperature levels. If physical limits are approached or exceeded, the system issues real-time alerts, enabling predictive maintenance and reducing the risk of unexpected downtime. Even short-term overloads are detected, recorded and reported, ensuring full transparency and improved operational safety.

Smarter connectivity with IO-Link

The adoption of IO-Link, a widely supported industrial communication standard, allows HBK transducers to be integrated easily into modern automation systems, providing:

  • Standardised, cost-effective cabling
  • Rapid sensor replacement and configuration
  • Seamless communication from field to control level

This development marks a significant step in HBK’s commitment to supporting digital transformation in measurement and testing environments.

More information about these sensors is available here: https://hbm.wistia.com/medias/kkrq5ajn4s

Smart batteries make car breakdowns a thing of the past

Smart battery technology is transforming how we maintain our cars. These systems prevent breakdowns, cut repair costs, and make vehicle ownership more reliable by monitoring battery health in real-time.

Car batteries have come a long way from the simple lead-acid boxes under the bonnet. Today’s smart batteries use advanced sensors and connected systems to constantly monitor their own health, preventing those dreaded roadside breakdowns that leave you stranded.

The numbers tell a compelling story. The global vehicles intelligence battery sensor market size was estimated at USD 2.96 billion in 2023 and is expected to grow at a CAGR of 12.8% from 2024 to 2030, reflecting the rapid adoption of this technology across the automotive industry.

Understanding smart battery technology

Smart car batteries feature built-in sensors that track vital information around the clock. These sensors measure the current to and from the battery, monitor voltage, state of charge and state of health of the battery, and in some cars, even measure the temperature of the battery.

Modern car batteries now feature intelligent monitoring systems that track performance in real-time

The technology works by placing intelligent sensors directly on the battery terminals or cables. The sensor enhances the automobile’s diagnostic ability and can thus warn of possible breakdowns that may not even be caused by the battery. Moreover, the sensors help to extend battery life by 10 to 20 percent via an improved charging strategy.

The Smart Battery Market is expected to grow from 16.97 billion USD in 2024 to 46.22 billion USD by 2034, with a CAGR growth rate of around 10.54% during the forecast period. This explosive growth demonstrates the automotive industry’s commitment to smarter, more reliable vehicle systems.

Advanced monitoring that never sleeps

Unlike traditional batteries that only show problems after they’ve failed, smart batteries provide continuous health updates. Research from BYD Automotive Engineering Research Institute shows that well-integrated machine learning models can achieve a verified classification accuracy of 96.3% in predicting battery failure, representing a 20.4% increase from initial models.

The system tracks several key measurements:

  • Voltage monitoring: Smart sensors detect unusual voltage patterns that signal potential problems before they become serious failures. Advanced systems can identify abnormal voltage conditions with multi-level screening strategies.
  • Temperature tracking: Temperature is a critical factor affecting battery performance. Intelligent sensors monitor battery temperature to prevent overheating, which can lead to safety hazards. Studies show that battery degradation occurs more quickly when testing temperature exceeds normal operating ranges.
  • Current flow analysis: The system measures how much power flows in and out of the battery, helping predict when replacement will be needed. This real-time analysis enables predictive maintenance scheduling.
  • State of charge (SOC): This shows exactly how much power remains, similar to a fuel gauge but far more accurate.
  • State of health (SOH): This indicates the battery’s overall condition compared to when it was new. Research indicates that proper monitoring can detect high-risk, abnormal cells as early as one week before failure occurs.

Smart battery diagnostic system

This comprehensive diagram illustrates how modern smart battery systems work together to provide continuous monitoring and predictive maintenance. The system begins with three core sensors that collect real-time data: voltage sensors detect electrical anomalies, temperature sensors prevent overheating, and current sensors measure power flow. All sensor data feeds into the Battery Management System (BMS), which processes information using advanced algorithms and predictive analytics to identify potential issues before they become failures. The BMS communicates with the vehicle’s main computer, enabling dashboard warnings, automatic maintenance scheduling, and optimization of systems like stop/start technology. Finally, cloud connectivity allows for remote diagnostics, fleet management, and continuous software improvements based on data from millions of vehicles worldwide.

Preventing failures with predictive intelligence

The real power of smart batteries lies in their ability to predict problems. According to a report by Frost & Sullivan (2022), real-time monitoring can improve battery lifespan by up to 30%. This predictive capability means you’ll get advance warning before your battery dies, giving you time to plan a replacement rather than facing an emergency situation.

Research from UC Davis and BYD shows that machine learning techniques can predict battery failure using charging voltage and temperature curves from early cycles, even before symptoms appear. The most advanced systems achieve an average misclassification test error of just 7.7%, making them highly reliable for real-world applications.

Traditional battery testing often misses early warning signs. By the time a standard battery test shows problems, the battery may already be close to failure. Smart systems catch these issues weeks or months earlier, with some studies indicating detection capabilities up to one week before actual failure occurs.

Statistical analysis of real-world data has proven that frequency of battery faults drops sharply at low temperatures during winter months, providing valuable insights for maintenance scheduling and vehicle operation planning.

Integration with modern vehicle systems

Smart batteries work seamlessly with other car systems. The function of the battery sensor is particularly important in vehicles with Stop-Start feature, as the battery management system must verify that the battery has enough charge to re-start the vehicle.

This integration affects several areas:

  • Stop-Start Systems: These fuel-saving features rely on smart battery data to know when it’s safe to shut off the engine at traffic lights.
  • Charging System Control: The car’s alternator adjusts its output based on real-time battery condition, improving fuel efficiency.
  • Climate Control: Air conditioning and heating systems can reduce power consumption when the battery needs protection.

Advanced diagnostics and connected intelligence

Modern smart batteries don’t work in isolation. These sensors often feature advanced communication interfaces, such as CAN bus or Bluetooth, enabling data transfer to external devices or systems. The global automotive battery market size was valued at USD 69.11 billion in 2023 and is projected to grow at a CAGR of 6.4% from 2024 to 2030, largely driven by these technological advances.

Professional mechanics can now access detailed battery history through diagnostic tools. This information helps them make better decisions about repairs and replacements, potentially saving you money on unnecessary work. Industry studies show that predictive maintenance strategies can achieve return on investment within 18-24 months through reduced maintenance visits and extended battery life.

Some systems even connect to smartphone apps, letting you check your battery’s health from your phone. Fleet operators can monitor entire vehicle fleets remotely, scheduling maintenance more efficiently. Research indicates that fleet operators using these systems achieve 22% longer battery lifespans compared to those relying solely on voltage monitoring.

The technology powering the future

Smart battery systems use sophisticated algorithms to interpret sensor data. By creating a data flow from the car to the cloud, algorithms interpreting the data work with a much bigger database – not just data from one car. This is part of a learning-system approach constantly improving the analysis.

Cloud-based AI-enhanced frameworks leverage emerging technologies to predict battery behavior throughout the entire cycle. These systems can process massive datasets – with some research programs analyzing data from millions of electric vehicles worldwide. The Automotive Battery Market size is expected to reach USD 112.42 billion in 2025 and grow at a CAGR of 20.53% to reach USD 285.97 billion by 2030.

This cloud-based approach means your car’s battery system gets smarter over time, learning from millions of other vehicles to provide more accurate predictions. Machine learning models can identify patterns such as cyclic stress impacts and environmental factors that affect battery performance, leading to more precise maintenance recommendations.

Benefits for Irish drivers

Ireland’s variable weather conditions make smart battery technology particularly valuable. Cold winters and damp conditions can stress traditional batteries, but smart systems provide early warnings when weather-related problems develop. Research shows that battery capacity decreases substantially as temperature drops, primarily due to increased electrolyte viscosity at low temperatures.

  1. Cost Savings: By extending battery life and preventing unexpected failures, smart systems reduce the total cost of vehicle ownership. Studies indicate that proper battery management can extend battery life by 10-20%, representing significant savings over the vehicle’s lifetime.
  2. Reliability: Advanced warning of battery problems means fewer roadside breakdowns and emergency callouts. Industry data shows that predictive maintenance reduces unexpected vehicle breakdowns by up to 30%.
  3. Environmental Benefits: Longer-lasting batteries mean fewer old batteries going to waste, supporting Ireland’s environmental goals. The circular economy principles driving European policy have increased interest in battery sensors that facilitate recycling and second-life applications.
  4. Convenience: Real-time monitoring eliminates the guesswork around battery replacement timing. Fleet studies demonstrate that operators using intelligent battery management achieve ROI within 18-24 months through reduced truck rolls and extended battery life. Car battery for VW Passat is just as important as for all other cars, and smart monitoring technology provides the same level of protection and predictive maintenance across all vehicle brands and models.

 

Changing the maintenance landscape

Smart battery technology is changing how we think about car maintenance. Instead of replacing a car battery on a fixed schedule or waiting for them to fail, we can now replace them at the optimal time based on actual condition data.

This shift from reactive to predictive maintenance represents a fundamental change in vehicle care. The transformative role of artificial intelligence (AI) in advancing EV battery diagnostics is explored herein, with an emphasis placed on the complexities of predicting and managing battery health.

Research from multiple automotive institutions shows that data-driven approaches can effectively detect abnormal conditions and predict failures with unprecedented accuracy. For example, multi-scale entropy methods can detect high-risk abnormal cells as early as one week before failure, dramatically reducing the risk of unexpected breakdowns.

Looking ahead to tomorrow’s technology

As electric vehicles become more common in Ireland, smart battery technology will become even more important. GM expects to pioneer a new “groundbreaking” EV battery technology that the automaker says will reduce costs and boost profitability of its largest electric SUVs and trucks.

The technology is rapidly evolving, with manufacturers developing even more sophisticated monitoring systems. The global smart car market has shown a steady upward trajectory at a CAGR of 17%, reflecting the growing adoption of advanced automotive technologies. In 2022, the market revenue was recorded at USD 57.5 billion, expected to rise to USD 67.3 billion in 2023.

Future developments may include wireless sensors that eliminate the need for physical connections, and AI systems that can predict battery problems months in advance. Asia Pacific led the overall vehicles intelligence battery sensor market with a market share of 32.4% in 2023, driven by robust automotive manufacturing and rapid EV adoption.

Smart car batteries represent a significant step forward in vehicle reliability and maintenance efficiency. By providing real-time health monitoring and predictive diagnostics, these systems help prevent breakdowns, reduce costs, and make car ownership more convenient. As this technology becomes standard across all vehicle types, Irish drivers can expect more reliable transportation and lower maintenance costs.

The revolution in battery diagnostics is just beginning, and the benefits for drivers are clear: fewer surprises, lower costs, and more reliable vehicles. Whether you’re driving a traditional petrol car or considering an electric vehicle, smart battery technology is making the roads safer and more dependable for everyone.

Microsoft recognises NextGen of STEM and AI leaders at Microsoft Dream Space Showcase

The third annual Microsoft Dream Space Showcase brought together students from across Ireland to demonstrate how their STEM and AI skills developed during the programme can tackle real-world challenges. Held over three days at Microsoft’s Dublin campus, and supported by three additional regional showcase events, the initiative saw more than 800 students present over 110 innovative projects, providing inspiring solutions to many of today’s environmental, health, wellbeing, and accessibility challenges. From earthquake sensors and plant health monitors to food waste trackers and inclusive communication tools, the projects reflect a wide range of creative, impactful ideas developed by the next generation of STEM leaders.

Launched in 2018, Microsoft Dream Space was designed to provide young people with an opportunity to participate in immersive, research-based STEM experiences to enhance their STEM skills and shift their perceptions about the role technology can play in their future careers. Delivered through a mix of in-person, virtual, on-demand, and community-based programmes, today, Microsoft Dream Space is providing every primary and post-primary student*, as well as their teachers, across the island of Ireland with the opportunity to engage in STEM and AI learning experiences that will equip them with the skills that are required to fully participate in the era of AI.

The Microsoft Dream Space Showcase was launched three years ago with the objective of extending access to the programme’s learning content and supports to students and their teachers in rural communities in collaboration with the Department of Rural and Community Development and local county councils.

Since the first event in 2023, student participation in the Microsoft Dream Space Showcase has grown significantly, with a near 200% increase in project submissions highlighting the growing enthusiasm among this young cohort to apply their STEM and AI knowledge in creative and impactful ways. Students and teachers from communities in Longford, Cork, Mayo, Tipperary, Monaghan and Waterford have been the most engaged in the initiative, with the number of communities involved continuing to grow each year.

As part of the initiative, students embark on a year-long learning journey that combines in-class activities, digital resources, and in-person programme engagement. Using content from three Dream Space TV series – Full STEAM Ahead, Code Green, and brAIn_waves – students develop skills in coding, computational thinking, sustainability, and AI, laying the groundwork for their participation in the Showcase.

The learning journey culminates in the Microsoft Dream Space Showcase where students travel to One Microsoft Place to demonstrate the many ways in which their newly developed STEM skills can help solve real-world problems. From climate action to inclusive design, the projects presented at the Showcase address key challenges linked to the UN Global Goals, demonstrating how technology and creativity can come together to drive positive change.

This year, Microsoft is celebrating its 40th year of innovating and investing in Ireland. To mark this milestone, the company gave a special ‘NextGen 40’ award at the Microsoft Dream Space Showcase to 6th class students from St Marys National School in Edgeworthstown, County Longford for their inspiring project, ‘The Eco-town’. Building on the knowledge and skills that the students developed over the past year, the students created multiple micro:bit devices through coding to transform Edgeworthstown into an eco-town. They focused on key areas such as safety, recycling, and solar energy. As part of the project, the students built a prototype of their local town to demonstrate how their micro:bits would function, offering a clear vision of how technology can enhance sustainability in their community and empower them to achieve more.

James O’Connor, Microsoft Ireland Site Leader and Corporate Vice President Microsoft Global Operations Service Centre, said: “As Microsoft celebrates 40 years in Ireland, we are incredibly proud to have students from across the country visit our campus in Leopardstown to showcase the STEM and AI projects they have developed using the digital skills that they have gained throughout their year-long Dream Space journey. With AI transforming how we learn, live and work, it’s vital that every young student, irrespective of their background, can engage confidently in STEM and AI learning.

“The Dream Space Showcase is a powerful reflection of what’s possible when students are given the skills and confidence to explore STEM and AI. This year’s event brought together hundreds of young innovators who used these skills to tackle real-world challenges. Their projects show that the next generation is not just ready to participate in the digital world – they are ready to shape it.

“As we look to the future, Microsoft remains committed to skilling up the next generation. Through Microsoft Dream Space and our broader Skill Up Ireland initiatives, we’re working to ensure that everyone has the opportunity to build the skills they need for the era of AI and is empowered to achieve more.”

Part of the winning team of the NextGen 40 award at this year’s Microsoft Dream Space Showcase, 6th class student Róisin from St. Marys National School in Edgeworthstown, Co. Longford said “We have really enjoyed the Microsoft Dream Space Showcase experience. We loved learning more about STEM and how technology can be used to tackle problems. With my classmates I worked on a project called ’The Eco-town’. For it we used micro:bits to create solutions focused on safety, recycling, and solar energy to make our community more sustainable. It was amazing to see how technology can have a positive impact in the area we live in. We were delighted to win the award.”

 

Reflecting on the impact of Microsoft Dream Space in her classroom, Shannon Boyle a teacher from St. Marys National School Edgeworthstown, Co. Longford said “Microsoft Dream Space has become a vital part of how we teach STEM in our school. The resources are easy to integrate into our day-to-day curriculum and allow us to connect learning to real-world challenges, helping students see how technology can shape their futures. This year, our students won the ‘NextGen 40’ award at Microsoft Dream Space Showcase for The Eco-town—a project tackling sustainability, safety, recycling, and renewable energy in our community. It’s been inspiring to watch them apply coding and digital tools to create practical solutions for Edgeworthstown. Our school moto is ‘Education for Life’. We live this moto out every day and we’re excited to apply this commitment towards bringing STEM to life for the students in our school.”

 

To learn more about Microsoft Dream Space or to access the latest learning resources, visit: https://dreamspace.microsoft.com/en-us/dreamspace/ireland