How leading-edge technologies – AI, AR, IIoT are changing the energy industry

There’s no avoiding the modern-day oil industry's rigorous challenges and volatility.

Consumer demand and prices fluctuate fervently, and all organisations in the sector must navigate the ups and downs of the geopolitical landscape, which can cause supplies to get cut in the blink of an eye.

Oil is also among the most profitable sectors worldwide, amassing $4 trillion in global profits in 2022.

Industry players must meet the balance of navigating risks and maximising profits. Doing so necessitates optimised, efficient operations.

Managing and mitigating volatile industry circumstances means shoring up all inefficiencies, trimming all excess fat and saving money wherever possible.

Enter the digital transformation in oil, which is set to yield efficient, sustainable, safer, and more profitable results. To this point, artificial intelligence (AI) adoption in the oil and gas industry has the potential to contribute to $1.2 trillion of industry-wide savings by 2030.

AI, and augmented reality (AR) have a harmonious relationship, especially regarding the digital transformation in oil.

The combination of the two enhances capabilities via intelligent data processing. They overlay information dynamically (creating an augmented environment to empower decision-making with actionable insights, putting equipment status on the operator’s field, etc.). That’s all before integrating AI and AR with the Internet of Things.

Below, we’ll explore AR further, examine how it’s changing the oil industry, and discuss its role in digitally transforming the sector.

What Is Augmented Reality?

AR overlays computer-generated information, pictures, and movies on the outside world, altering our reality experience.

To some, this may sound like VR or virtual reality. However, VR calibrates with users in a simulation. Conversely, AR implements digital characteristics into the real world.

Use cases (beyond the oil industry) for AR include:

These AR iterations might not directly apply to the oil industry–but they are transferable to functions that meet the sector's needs.

Where Does AR Fit In With The Oil Industry?

This section will delve into current and potential use cases of AR in the oil industry:

One such example includes AR-powered headsets being clipped to hard hats. These can offer technicians hands-free instructions directly onto equipment for system maintenance or inspections.

The necessary tools, steps, and parts can be precisely animated by AR, dramatically reducing uncertainty and errors and streamlining efficiency. Furthermore, these animations can provide sensor data and checklists. They can also visually illustrate which parts need replacement, removal, or adjustment.

AR can help technicians work independently of physical manuals, providing the same information through graphics as needed.

Equipment changes can also be planned by technicians using AR.

For instance, oil companies—faced with a complex environment–have used AR to help mechanics visualise a cable’s optimal location and the fastening process. They saw clearly the challenges they’d encounter and were prepared to overcome them seamlessly due to AR.

Two-way communications can be offered through AR headsets, enabling back-and-forths between remotely located experts and support technicians, who obtain a virtual look over their shoulders in high-definition, real-time video. Simultaneously, a recording can be generated for future use and quality control. This can enable real-life stimulation of hazardous events and safer training environment to delivery engineers. Furthermore, this helps retention and upskill of staff in a secure environment.

AR can also display what happens inside a technician’s equipment. They can then learn how to optimise necessary adjustments and prevent damage to resources.

AR In the Big Picture

AR offers many advantages, but it’s not without limitations; one is the lack of widespread adoption. If AR is to reach its destined heights, widespread usage and acceptance are a must.

While the technology is impressive as it stands, it can keep evolving to continue offering more to those utilising it. It’s still relatively new and must keep developing to keep up with the continual challenges facing those in the industry.

Yet, discrepancies exist between executive priorities and digital transformation in the oil industry, according to numbers from McKinsey & Company. To add some context, operational excellence and margin optimisation are prioritised at a higher level.

Ironically, by adopting full-fledged digital transformation in oil, operational excellence and margin optimisation are more likely to be achieved than without adopting it.

Digital transformation in the oil industry means implementing AR, AI, and the Industrial Internet of Things (IIoT). Coordinating and integrating these technologies to work harmoniously with each other enables disparate systems to communicate and share real-time data at all operational levels.

Thus, the tech is brought to the edge–closer to operations. An interconnected digital ecosystem gets cultivated, and silos are eliminated.

While AR–in and of itself–is a vital tool, its benefits independently pale compared to what it offers as (a crucial) part of an interconnected digital network.

The Digital Oilfield: AI/AR/IIoT And Smart Technology Benefits

Here’s a more detailed breakdown of what benefits an entirely digitally transformed oilfield can:

Reach Out To Commercis To Learn More

Technology will be the driving force in the oil industry from this point forward. Companies that adopt it and remain on the cutting edge will have a competitive advantage over their slow-to-act competitors.

Commercis is a trusted and experienced tech partner that provides innovative solutions tailored to your needs. Our commitment and vast knowledge surrounding digital transformation are unparalleled, and our knowledgeable teams will dedicate themselves to taking your oil company to the next level.

Contact us today to learn more.

How AI, AR and IIoT can transform and connect the oilfield for a resilient future

Commercis to showcase insights of AI as an emerging integrator of technologies and its role in digitilisation of the oilfield operations.

In a groundbreaking move toward advancing efficiency and productivity in the oil and gas industry, Commercis, a leader in delivery of smart technologies and connectivity proudly announces the integration of Artificial Intelligence (AI) as the central orchestrator of technologies within the oilfield.

As the energy sector continues to evolve, embracing leading-edge technologies, like AI, Augmented Reality (AR) and Industrial Internet of Things (IIoT) becomes paramount for maintaining a competitive edge. The incorporation of AI serves as a transformative force, uniting various technologies to streamline operations, enhance decision-making processes, and optimize overall performance in the oilfield.

To harness successfully the power of AI, Commercis identifies which technologies and platforms are critical and therefore employs intelligent data analytics to process vast amounts of information in real-time. This enables a comprehensive understanding of oilfield conditions, facilitating data-driven decision-making and predictive maintenance.

By deploying autonomous systems, Commercis ensures safer and more efficient processes, reducing human intervention and minimizing operational risks. Through intelligent AI algorithms, Commercis solutions enable optimised allocation of resources, ensuring that workforce and talent, equipment, and assets are utilized efficiently.

This not only enhances operational efficiency but also contributes to a more sustainable and cost-effective oilfield ecosystem. Similarly, AI can play a crucial role in enhancing safety protocols by continuous monitoring and analysing data, enabling timely identification of potential hazards and mitigation of risk. With access to this vast data, future engineers can use this accrued knowledge to train in real-life simulations in a safe and controlled setting, allowing them to practice complex tasks without the risk of injury or damage to equipment, promoting a safer working environment and knowledge retention.

The integration of AI facilitates predictive maintenance models that anticipate equipment failures before they occur. This proactive approach minimizes downtime, extends the lifespan of equipment, and ultimately reduces operational costs.

Alan Afrasiab, President and CEO at Commercis expressed enthusiasm about the opportunity to share insights on the innovations at Automa 2023. "We are thrilled we were able to be part of the congress and present how AI serves as the linchpin in integrating diverse technologies within the oilfields. Commercis is committed to pushing the boundaries of innovation within the oil and gas industry, and by integrating AI as the central hub for various technologies, we aim to elevate operational excellence, reduce environmental impact, and contribute to a sustainable energy future”.

Augmented Reality (AR) as a technology enabler to digitalisation of global operations...

Augmented Reality (AR) as a technology enabler to digitalisation of global operations in delivery of connectivity and complex network solutions.

Talia, a Commercis Plc company and global leader in providing communications solutions and services to organisations based in remote locations, has unveiled a first-in-class augmented reality (AR) support platform that enables field service engineers to deliver evidence-based support services.

In the aftermath of the global pandemic, vendors have experienced resource shortages and economic pressures in the face of rising demand. These challenges are leading many to look to new and innovative ways to continue to deliver robust service and support.

Talia believes AR can significantly benefit clients when delivering first-line support, especially in inspection, maintenance, education, and repairs. First, interventions and analysis can be undertaken remotely, enabling immediate fixes for non-critical faults, saving time and enhancing service quality. Secondly, carefully scripted scenarios enable remote expert engineers to clearly and safely navigate complex infrastructure directly, assisting client-based technicians.

"Engineering expertise combined with the latest augmented reality technology enables Talia and its clients to facilitate a more sophisticated approach to support, a clearer understanding of service issues along with faster, more intelligent decision-making," said Alan Afrasiab, Talia CEO and President. "Investing in innovative technologies minimises risks and decreases the time required to complete tasks whilst increasing productivity and reducing operational costs; it also frees up time and reduces dependency on our engineers, ensuring they can share their knowledge and respond to the most urgent issues."

The combination of continuously evolving high-performance headsets, connectivity and software applications makes AR technology a compelling solution for clients.

Eliminating the reliance on in-person service not only means that engineers can stay focussed on critical issues while delivering fast responses and solutions to clients but also that the environmental impact of staff travelling to a site can be reduced, further easing global sustainability pressures.

Furthermore, by recording interactions and analysing data collected, Talia can identify potential issues and more severe hazards to mitigate risk. With access to this data, future engineers can use this accrued knowledge to train in real-life simulations in a safe and controlled setting, allowing them to practice complex tasks without the risk of injury or damage to equipment.

AR can be hugely beneficial by providing real-time intelligence to support operational and preventive maintenance decision-making. With further enhancements in artificial intelligence, the scale and reach of solutions and services offered, future maintenance and problem-solving can be faster and potentially further automated.

What is Software Defined Satellite Technology?

The satellite industry is one of the modern world's biggest and most important sectors. It has various applications ranging from GPS signalling and telecommunications to cutting-edge orbital telescopes for space research.

For decades, satellite technology has allowed governments, businesses, and individuals to communicate, particularly in areas with poor terrestrial connectivity. Despite their significant benefits, satellite communications have always been limited in reach and performance.

Software Defined Satellite is the latest development in the satellite industry. It is designed to replace traditional hardware components with software. The ability to reconfigure the satellite means that the mission can change over time and be modified to meet changing demands.

This article explains how the introduction of software-defined satellite technology impacts the satellite industry.

Game-Changing Special Features of the Software Defined Satellite

It Has Reuse Capabilities

The main benefit of software-defined satellites is the ability to reuse a single satellite for multiple applications. This enables it to serve multiple users with varying needs.

The new technology entails transitioning from traditional investments in satellite ground-based infrastructure to a flexible and open virtualized network environment.

By shifting customization capabilities to software, generic satellites can be reconfigured when necessary. This is a significant cost-saving approach over maintaining a satellite in a static configuration for many years.

Flexibility

Flexibility is one of the main advantages of software defined satellite units. It gives operators the freedom to change their mission. This was previously one of the most challenging aspects of space exploration.

The mission for the next five to fifteen years was defined once a satellite was launched. Some of its functionality could be changed by developers, but the mission was well-defined. Having an SDS allows operators to change this feature, making these devices adaptable to new emerging missions.

It is Convenient

The traditional satellite required anyone interested in deploying a satellite in space to go through a multi-step process. This includes designing the satellite based on the specific functionality, locating a launch or mission provider, building the necessary hardware, obtaining permits and licences, and so on.

However, the software defined approach enables the deployment of a software code to an existing satellite in a day, and operations can begin instantly.

Platform-Independence

Previous satellites relied heavily on specific hardware to perform their functions. This will be a thing of the past with the new SDS, which runs on software. This enables the development of platform-independent, portable applications that can be reused across multiple satellite platforms as long as the models in the family are sufficiently compatible.

Gives Way to Future Possibilities

The most difficult advantage of using a "software-defined" framework for satellite development will be to predict. The benefits of "software-defined satellites" extend well beyond the potential to reconfigure a satellite for multiple clients and missions.

Creating an entirely new domain for independent developers may result in the same explosion of new applications as the creation of modern smartphones or the World Wide Web. When all of the infrastructure for low-cost, low-friction software installation on space-based platforms is in place, breakthroughs will undoubtedly follow.

Low Price

The space industry is one of the world's most capital-intensive sectors. The increasing availability of satellite data has lowered the barriers to entry for small businesses and solo business owners, even home users with the launch of OneWeb and Starlink.

The software-defined satellite uses a model in which multiple satellite missions can share access to a single satellite's resources and charge users on a pay-per-use basis. This could lead to many more people participating in the upstream space segment due to cost reductions.

It is Customer Centred

These satellites enable real-time optimization and change of coverage, power, beams, and bandwidth and deliver capacity when customers need it. This is especially true for mobility, which has variable demands such as time of day, flight routes, hotspots, etc. It optimises payload utilisation because capacity is well-spent where there is no demand.

Operators can also respond to shifts in demand, such as customer demographics and business models. Additionally, operators can attend to fast-changing needs, including moving bandwidth and power around a region to support new traffic.

In most cases, they can be modified in a matter of minutes to respond to changes in customer or network demand. Emerging issues such as signal interference can be easily detected and fixed immediately.

Revenue Opportunities

According to NSR, the growing software defined satellite market represents an $86.9 billion cumulative revenue opportunity from its launch and manufacturing operations by 2030. Adopting innovations such as software-defined platforms enable operators to create new business cases and opportunities for growth.

Unleashes the Full Potential of 5G and 6G

Software defined satellite technology will be critical in the construction and operation of 5G and 6G networks. They provide distinct advantages in terms of resilience, coverage, security, and mobility. They will efficiently make 5G and 6G accessible everywhere to businesses and citizens worldwide.

Software defined satellites will be critical in extending 5G networks to air, sea, and other remote areas that small cell networks cannot reach. Satellites provide seamless coverage of 5G services from cities to aeroplanes, cruise ships, and other automobiles in remote locations for end users.

5G will usher in a new era of communications, connecting more homes and businesses, enabling more powerful applications, increasing throughput and efficiency, and opening up new market opportunities. The technology will bring about the fourth industrial revolution, with 5G and 6G-powered smart homes, smart cities, and smart agriculture transforming how we live and work.

How SDS Will Restructure Satellite Operations

Traditionally, the ground section and satellites were viewed as separate entities, with the satellite acting as a fixed, bent pipe. However, with software-defined payloads, they operate as a single synchronised system. Ground operation will also change by shifting from closed, human-operated hardware to open, versatile, automated software to match the functionalities and flexibility of the satellites.

Converting analogue broadcasting signals to digital packets, virtualizing hardware to software, and automating as many operations as possible are all part of this. The ground can operate much more flexibly thanks to digitised satellite signals and virtualized signal processing, allowing operators to maximise the value of software-defined payloads.

Both space agencies and the space industry are now recognizing the benefits of "software-defined satellite" technologies. The SDS has become a game changer because the latest software development is much more open and available to the global programming community. Satellite mission innovation and operations are becoming more accessible. This will allow more business concepts to be implemented and tested in a real space mission context.

UK Aims for the Stars

The UK Space Agency has announced £50 million in funding for satellite communications to support the development of new technologies, businesses and services. The funding will be used for research and development projects to help the UK maintain its position as a global leader in satellite technology. The projects will focus on areas such as 5G connectivity, Earth observation and satellite-based navigation.

Is it a healthy future for Telemedicine?

Telemedicine makes it possible to deliver healthcare at home remotely without visiting a doctor or hospital in person. Imagine answering emergency responses, catering to cardiac arrests medical emergencies and providing life-saving solutions for extreme medical conditions. If all of this could be done in a few minutes through a video call or while in the ambulance, this could decrease wait time and increase chances of survival, especially in life-threatening cases.

The future of telemedicine depends so much on technology and the manner in which such technology will be made possible, especially in rural or remote areas and regions.

Telemedicine developing towards a better future

During the COVID pandemic, many people were required to make virtual visits over on-site doctor visits in Canada and also in the United States. Although telemedicine was here much before the pandemic, it has only accelerated further to grow. 

Current advancements in telemedicine include:

Telemedicine today has become a reality and continuously evolves towards a better future because of technology, the internet and wireless network transmissions. 

The future for telemedicine already seems bright, with the predicted increase in the global telemedicine market size. It is estimated to increase by nearly 460 billion U.S. dollars by 2030. Also, many more countries will adopt telemedicine and remote healthcare systems; this trend has already begun in Asia-Pacific region.

The role of digital information and communications technology in telemedicine

Even when we plan a remote consultation with a doctor, it isn’t just our laptop or computer that is needed. Telemedicine heavily depends on technology; the more advanced the technology, the better its outcomes. Technology covers everything from the science and automation used in telemedicine to the devices needed for establishing connections between 2 locations.

The smart, efficient and reliable digital technology called “Artificial Intelligence” (AI) is the science behind the automation of telemedicine. AI-generated response systems make telemedicine possible. While we understand how significantly AI technology is increasing, the real challenge is to be able to use this technology to make it accessible in rural areas. 

Connected devices such as laptops or computers are prerequisites to establishing connectivity. Good cameras inbuilt into such devices are also crucial for a better user experience, especially in videoconferencing sessions. The most important however, is the wireless and satellite communications that make it possible to connect devices in 2 or more different locations, this is crucial when it concerns remote locations. Robust connectivity ensures no lags, interruptions or delays while in the process of important calls or video sessions. 

A reliable wireless internet connection is indispensable to have access to a great remote healthcare system. We’ve seen telemedicine currently operating with 4G (4th generation) wireless networks but there have been some speed limitations and connectivity issues in some locations.

The Centers for Disease Control and Prevention (CDC) states that“people who live in rural areas of the United States are more likely than urban residents to die prematurely from all of the five leading causes of death: heart disease, cancer, unintentional injury, chronic lower respiratory disease, and stroke”.  Better connectivity in these areas will facilitate the possibility and accessibility of telehealth to increase their chances of surviving rather than losing their lives prematurely. 

Can we get more reliable connectivity that is faster and more accessible, especially in rural areas, in places where people most need telemedicine? What does our healthy future look like for telemedicine?

Implementing 5G in healthcare–a healthier future for telemedicine worldwide

Given the rapid rate at which technology is evolving, it is safe to predict telemedicine will only improve because of the rapidly evolving digital information and communications technology. 

Even though some rural areas still struggle with connectivity issues with the current network systems that operate today, with the implementation and use of 5G wireless networks, it is predicted that telemedicine will improve significantly in the next 7 to 8 years.

Globally, telecommunication companies are expanding access to 5G networks, making telemedicine more affordable and realistic, even for rural locations. For the past few years, almost every major U.S. carrier has focused heavily on 5G cellular wireless. They all follow some common standards, but each has its own approach to implementation. 

Let’s explore how implementing 5G worldwide would enhance the future of telemedicine to make it better:

Enhanced speeds

A “specification sheet” lays down expectations that a 5G network would provide. It roughly says that the expected individual use speeds are close to 2 Gbps (gigabits per second) as compared to the current 4G networks that in most places, offer speeds from 42 Mbps (megabits per second), with speeds going up to 150 Mbps. 

What does this mean? 5G offers higher speeds, meaning faster sharing, downloading and uploading of files. This also means faster video streaming with no pauses, interruptions or delays. 

Larger capacities

Probably the most crucial part of a better network like 5G with enhanced speeds is its ability to support many devices simultaneously. More specifically, 5G connectivity supports 1 million connected devices for every 0.38 square miles.

A network as efficient as this will support billions of devices that need connectivity, like smart devices, sensors, wearables and much more at once! 

Greater response time

With the current 4G connectivity, there is still some lag between sending and receiving messages. Even though 4G connectivity is much faster than 3G and 2G networks, the 5G network is predicted to supersede the expectations of all previous network generations.

Implementing 5G will see close to zero latency, which means almost no delays or lags with messages exchanged to cell towers. Hence high-quality connectivity and speeds of transmission.

Emergency medicine made better

If we realise what all of this means for emergency medicine, we will understand how life-changing this will be in the future. According to a survey published in September 2021, 55% of those who took the survey said they would delay their care due to the COVID-19 pandemic if there was no access to telehealth, but imagine what would happen to those who needed emergency care!

Enhanced emergency medicine allows doctors to treat patients remotely without delay. Greater visuals and video clarity for better assessment and accurate treatments may be possible even as patients are being transported via ambulance. 

Improvements in other technology 

Extended healthcare and video technology access using higher resolution 4k (4000 pixels) web cameras that give clear images for inpatient monitoring, mobile carts and telemedicine kits. The newer 8k resolution cameras have come into the market for professional videography. It will be no surprise if the same cameras can be used in mobile devices in the future. With higher-resolution cameras and 5G connectivity, it will be possible to see very small details through videos with great speeds and no breakdowns.

This powerful combination of the super-efficient 5G and higher-quality video technology will make telemedicine popular and possibly the most preferred method for future specialists to save lives. 

The good news for us is that parts of the U.S. have begun already implementing “5G telehealth”, the results of which are already very promising. This marks the beginning of advancements in telemedicine, even in rural areas. For instance, today 5G telehealth focuses on faster video streaming with more healthcare features and no pauses and delays in between. Possibly in future, it may involve the use of advanced highly secured systems that:

The advantages and enhancements are only growing, there is no doubt that lives will be saved. Faster file transfers, reduced wait time for treatments and more patients having more comprehensive access to specialists are a few of the many smaller benefits of a high-speed efficient wireless network system like 5G. 

The future of telemedicine seems very promising! In addition to improving outcomes, rapid assessment and triage will prevent patients from going to the hospital for care they don't need.

Soon remote areas will no longer be confined to their geographical limitations because healthcare will be accessible to all who need it with no interruptions or delays. Thanks to advancements in technology and connectivity, which undoubtedly will make telemedicine a huge success. 

Apple Signals Faith in Satellites for New iPhone 14 ‘Emergency SOS’ Feature

Alongside the four new iPhone models announced at Apple’s ‘Far Out’ media event yesterday was a new safety system that enables potentially life-saving two-way communications with emergency services in locations where no cellular coverage exists.

Emergency SOS via Satellite has been a long time in the making for Apple. Rumours that a satellite communication feature might be making its way to the iPhone gained momentum in 2021, opening the door for others to try to steal some of the stardust from Apple’s eventual announcement.

Nevertheless, Apple going live with a mass-market system this year is as much a technical achievement as it is a logistical one: the infrastructure necessary to support the emergency nature of the communications includes staffed relay centres that contact emergency services on behalf those using the service for help.

The feature will be available only in the US and Canada at launch in November, with Apple committing that the service will remain free for two years.

Globalstar’s network of low earth orbit satellites will provide the communications using the n53 band supported in the Qualcomm Snapdragon X65 modem that is widely tipped to be beneath the iPhone 14’s hood. For now, this is a very low-bandwidth connection, largely reliant on a clear line-of-sight and – aided by an onboard app – directional alignment with the nearest satellite.

Indicative of its longer-term vision for the satellite service, Apple demonstrated that the connection isn’t exclusively for blue-light emergency situations – in the keynote, a user’s phone was shown connecting with the Find My network that is more often used to keep connect friends and family or locate lost keys.

“Commercis welcomes Apple’s announcement of the new iPhone 14 with emergency satellite backup providing users with the ultimate in connectivity,” said Jack Buechler, VP of business development at Commercis. “This use case validates the ongoing adoption of satellite from broadcast to emergency disaster relief, to everyday usage for broadband communications technology.”

New Photonic Materials Could Enable Ultra-Fast, Light-Based Computing

Researchers in Florida have developed new photonic materials which are set to enable extreme-fast, low-power light-based computing. This advancement of materials working together is referred to as a topological insulator, resembling wires that have been flipped inside out, with the insulation on the inside and the current flowing along the exterior.

Today, smaller circuits encounter over-heating. The topological insulators could be incorporated into circuit designs to enable the packing of more processing power into a given area without generating heat. The design’s nodes enable the researchers to regulate the current without bending or stretching the photonic wires, which are required for directing the flow of light and thus information in a circuit. The new photonic material overcomes the drawbacks of contemporary topological designs that offered fewer features and control while supporting much longer propagation lengths for information packets by minimizing power losses.

The researchers envision that the new design approach introduced by the bimorphic topological insulators will lead to a departure from traditional modulation techniques, bringing the technology of light-based computing one step closer to reality.

Topological insulators could also one day lead to quantum computing as their features could be used to protect and harness fragile quantum information bits, thus allowing processing power hundreds of millions of times faster than today’s conventional computers. The researchers confirmed their findings using advanced imaging techniques and numerical simulations.

AI can detect dementia faster than experts

The results of recent research have demonstrated that AI machine learning can identify dementia in patients quicker and just as efficiently as experts. Modern medicine has allowed life expectancy globally to increase over the last few decades. But with people surviving into old age, a higher rate of dementia and Alzheimer’s is being recorded along with this major rise. This might impede the ability to provide prompt treatment to individuals in need, especially considering a predicted physician shortage in the next decade.

Researchers at the University of Boston have designed a variety of computer models capable of absorbing large quantities of data that might be collected during a typical work-up of a patient with suspected dementia, including results of neuro-psychological and functional testing, medical history, physical examination, demographics, and MRI scans. This information was then fed to a neural network which was then trained to elicit disease-specific signatures from this vast set of inputs.

Using particular methods in machine learning, they were able to identify data that their model used in its decision-making processes where they applied the same methods to identify dementia-related changes in MRI scans and found that the locations marked as significant when experts identify dementia.

AI arm can identify material by touch

A breakthrough in the world of artificial intelligence has been reported, through a mechanical AI arm being able to identify different materials by touching the surface. This can completely change the manufacturing industry as these robots can now carry out tasks such as sorting and quality control.

The AI arm was recorded to identify certain materials with a 90% accuracy rate. This is because of their triboelectric touch sensors gain information about the surface of an object, such as its temperature. It was trailed 100 times and used 12 materials including wood, glass, plastic and silicon and combined with machine learning-based data analysis achieved approximately 90% accuracy rates.

The device works with 4 square sensors made up of different plastic polymers, chosen for several electrical properties. When sensors move close enough to the surface of an object, electrons from each square interact with the surface in a slightly different way which can then be measured.

Researchers suggest this can be a breakthrough in the world of robot manufacturing, however, will become more effective when combined with other sensors that can detect more precise things such as roughness, edges, or friction.

Additional researchers also suggest that these machines can also be used as prosthetics however Tamar Makin at the University of Cambridge states that 'for technology that is human controlled, we don’t need this level of sophistication.'