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New Technology Explained 2026
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00:00Technology is evolving at an incredible pace, and 2026 is bringing innovations that could
00:05change how we live, work, travel, and interact with machines. From advanced artificial intelligence
00:10and robotics to quantum computing, clean energy, smart transportation, and futuristic medical
00:16technologies, a new generation of breakthroughs is taking shape. In this video, we're exploring
00:2017 new technology trends that could define 2026 and influence the years ahead. Many of these
00:26innovations are already being developed, tested, or entering real-world use. So, let's explore
00:31the technology's pushing boundaries today and discover the ideas that could shape tomorrow.
00:42NVIDIA Vera Rubin platform is designed for a future where artificial intelligence can reason,
00:47plan, use tools, and handle increasingly complex tasks. Rather than being just another GPU,
00:53Vera Rubin combines GPUs, CPUs, networking, memory, and specialized processors into one
00:59rack-scale AI computing system. At its center is the Vera Rubin NVL72, featuring 72 Rubin GPUs and 36
01:08Vera CPUs, with massive HBM4 memory capacity and extremely high bandwidth for demanding AI workloads.
01:15The platform is built to support large-scale model training, long-context processing, and real-time
01:20inference for advanced AI systems. NVIDIA also says Vera Rubin can significantly reduce the cost of AI
01:25inference compared with its previous-generation Blackwell platform, while requiring fewer GP use
01:30for certain training workloads. With production ramping up, Vera Rubin is being positioned as a
01:35major foundation for next-generation AI infrastructure and increasingly capable AI systems around the world.
01:43Samsung Intelligent Eyewear brings artificial intelligence into an everyday pair of glasses,
01:48offering users a more natural way to access digital assistance without constantly reaching for a
01:53smartphone. Developed alongside Google, Gentle Monster, and Warby Parker, the glasses are designed
01:58to work with the Galaxy ecosystem while keeping useful features easily accessible. With Gemini integration,
02:04users can ask questions, receive navigation help, translate conversations, manage calendar events,
02:09and get information based on what is happening around them. The integrated camera allows the glasses
02:13to understand visual details from the wearer's surroundings and use that information for different
02:18AI-powered functions. Samsung uses Qualcomm's Snapdragon AR1 Gen 1 platform to support processing,
02:25connectivity, efficiency, and performance within the compact frame. The company has also emphasized
02:29comfort, lightweight construction, balanced designs, and everyday style. Together, these features could
02:35make AI assistants more convenient, personal, and accessible throughout daily activities.
02:43Commonwealth Fusion Systems Spark is a compact fusion machine being developed to demonstrate that
02:48controlled fusion can produce more energy than is needed to heat its plasma. Built in Massachusetts,
02:53Spark uses a donut-shaped tokamak design, where powerful magnetic fields hold incredibly hot plasma in place.
02:59One of its key technologies is high-temperature superconducting magnet technology,
03:03which allows the system to generate extremely strong magnetic fields while keeping the overall
03:08machine relatively compact. CFS is targeting a queue greater than one demonstration in 2027,
03:13meaning the fusion reactions would produce more energy than the plasma heating system supplies.
03:17As construction continues, supporting systems such as cryogenic equipment are already being brought
03:22online while major components are assembled. Spark is also intended to support CFS's larger ARC project,
03:29a planned commercial fusion power plant designed to eventually deliver hundreds of megawatts of
03:33electricity to the grid.
03:37Climework's direct air capture is designed to remove carbon dioxide directly from the atmosphere
03:42using specialized machines. The process starts with fans drawing normal air into collectors,
03:47where a solid material captures CO2 while other gases pass through. When the material becomes saturated,
03:54controlled heat releases the concentrated carbon dioxide, which can then be prepared for permanent
03:59underground storage. In Iceland, Climework's mammoth facility represents a major step toward scaling this
04:05approach. Its modular design can accommodate up to 72 collector containers and is designed to capture as
04:10much as 36,000 tons of CO2 annually. The company is also developing newer generations of its technology,
04:17focusing on efficient operation, modular construction, and lower temperature heat requirements.
04:21Direct air capture does not replace emissions reduction, but it offers another potential tool for dealing with
04:26carbon already present in the atmosphere. As these systems grow, they could become an important part
04:31of future carbon removal strategies.
04:36Synchron is developing a brain-computer interface called StentRoad that could let people control digital devices
04:42through brain signals. Instead of requiring open-brain surgery, the system is delivered through a catheter
04:47inserted into a vein in the neck and positioned inside a blood vessel near the brain's motor cortex.
04:52Tiny electrodes can detect neural activity linked to intended movement, while an external system converts
04:58those signals into digital commands. The technology is being investigated for people with severe motor
05:02impairment, potentially helping them interact with phones, tablets, and other devices for communication
05:07and everyday tasks. Synchron currently has clinical studies evaluating the StentRoad system, while researchers
05:13are also exploring how neural signals could work alongside advanced software and AI. The technology remains
05:19investigational and is not commercially approved. If clinical testing continues to show useful results,
05:24StentRoad could represent an important step toward more accessible brain-controlled digital interaction.
05:32Imagine a robot that does more than simply follow instructions. It can anticipate what might happen
05:37before making its next move. That is the idea behind AstroBot LUMO2, a new approach to robotic intelligence
05:43focused on prediction, reasoning, and physical interaction. Instead of connecting an instruction directly to a specific
05:49movement, LUMO2 is designed to understand its surroundings and consider possible outcomes before
05:54acting. It combines visual information, language, physical dynamics, and robotic actions within a
05:59learned representation of the world. The technology has been explored through challenging tasks involving
06:04long sequences, complex manipulation, and precise physical interaction. LUMO2 also fits into AstroBot's wider work
06:11on embodied intelligence, where AI software and robotic hardware work together to perform tasks in real
06:16environments. By giving robots a better understanding of cause and effect, this approach could help
06:21machines become more adaptable and capable when dealing with unpredictable situations and complicated
06:26everyday tasks. Imagine having one desktop machine capable of handling several different printing jobs
06:34without switching between multiple systems. That is what X-Tool O1 Omni brings to digital production, combining UV
06:41printing, UV DTF, and fabric printing in one versatile platform. Depending on the configuration, it can work with
06:47materials such as acrylic, wood, glass, metal, and leather, while the UV plus DT fabric edition also supports apparel
06:54customization. The system uses Epson F1080 print heads and can reach resolutions up to 720 by 1440 dpi, with a
07:03working area
07:04designed for a variety of projects. UV DTF capability allows printed designs to be transferred onto
07:09curved or irregular surfaces, while optional accessories can expand its use for cylindrical objects. By bringing
07:15several printing techniques into one machine, O1 Omni offers a flexible approach to desktop manufacturing. It shows
07:21how modern printing technology is becoming more capable, compact, and accessible for customized production.
07:30Imagine carrying a complete electronics toolkit in something small enough to fit in your pocket. That
07:35is the concept behind CodeDot, a compact programmable device built for makers, developers, and electronics
07:41enthusiasts. The latest version combines an ESP32-P4 processor with an ESP32-C5 for wireless connectivity,
07:50and features a 2.13-inch AMOLED touchscreen. Beyond its computing abilities, CodeDot includes NFC, RFID,
07:58infrared, Wi-Fi, Bluetooth, a microphone, and a speaker, giving it a wide range of uses for
08:03experimenting with connected hardware. Its built-in wireless capabilities also allow the device to connect
08:08with AI services and support voice-based interactions. CodeDot runs CodeOS, an open-source operating system
08:15designed to support applications, modules, and community projects. With so many functions packed
08:20into one portable device, CodeDot turns a pocket-sized gadget into a flexible platform for building,
08:25testing, controlling, and exploring electronic projects almost anywhere.
08:33Producing hundreds of kilograms of clean hydrogen every hour requires technology that can operate at
08:38serious industrial scale. Alpha 50 is designed around that challenge, using renewable electricity and
08:44water to generate up to 900 kilograms of high-purity hydrogen per hour. The 50-megawatt system contains
08:5080 Trident electrolyzer stacks and uses Proton Exchange membrane technology, which can react quickly
08:56to changes in available electricity. This makes the system particularly suitable for projects powered by
09:01variable renewable sources such as wind and solar. Another important feature is its standardised,
09:06prefabricated design. Instead of creating every hydrogen facility from scratch, the system can be
09:11deployed as a skid-mounted unit and combined with additional units when larger capacity is needed.
09:16It is intended for applications ranging from steel and refineries to ammonia,
09:20methanol, transport, energy storage, and power generation. This approach could make large-scale
09:25green hydrogen production more practical, flexible, and easier to expand.
09:32A different kind of rechargeable battery is moving toward real-world applications by replacing
09:37conventional materials with cellulose, zinc, and manganese-based chemistry. This paper-inspired
09:42design uses a water-based electrolyte and is intended to provide a safer alternative without
09:47relying on lithium, cobalt, or nickel. Its structure is designed to resist leakage, fire, and thermal runaway,
09:53while the cellulose components can potentially be composted after the protective casing is removed.
09:58The technology is also being developed with manufacturing methods that can work alongside existing battery
10:02production processes, helping support future scaling. Potential applications include wearable electronics,
10:08IoT sensors, medical equipment, consumer devices, space technology, and energy storage. In January
10:152026, production began in Singapore, with cells being supplied for pilot programs and early customer
10:20integrations. The development shows how battery research is moving toward more abundant materials,
10:25alternative chemistries, and potentially more sustainable ways to store energy.
10:32Offshore operations are entering a new era where ships, underwater robots, sensors, and remote control
10:38systems can work together with fewer people physically at sea. Ocean Infinity's Armada is built around this
10:43approach, using a growing fleet of robotic and remotely operated vessels for demanding maritime missions.
10:49These systems can support seabed surveys, geophysical mapping, inspections, maintenance, and subsea data
10:55collection, while operators monitor activities from shore-based control centers. The fleet includes
11:00several vessel sizes, including the large Armada A86, which can handle surveying, sampling, and subsea
11:06inspection work. Automated systems can also help launch and recover underwater robotic equipment, reducing the
11:12need for traditional onboard operations. By combining autonomous navigation, robotics, satellite communications,
11:18sensors, and advanced software, Armada creates a different model for offshore work. The technology could reduce fuel use,
11:25limit human exposure to hazardous environments, and make complex ocean operations more efficient and scalable.
11:34Quantum computing is moving toward systems where accuracy and control matter just as much as the
11:39number of qubits. Continuum Helios is a 98 qubit trapped ion machine designed around that principle,
11:45using fully connected barium ion qubits and a quantum charge-coupled device architecture. The system can
11:51physically move ions between different regions, allowing qubits to be routed while maintaining
11:55all-to-all connectivity. Helios also supports extremely precise quantum operations, mid-circuit measurements,
12:02qubit reuse, and real-time control for advanced computing tasks. Its software environment includes Guppy,
12:08a Python-based quantum programming language, while Nvidia Grace Hopper GPUs assist with real-time error
12:14correction processing. These capabilities are being explored for applications including materials
12:18research, battery development, finance, and drug discovery. Rather than focusing only on increasing
12:23qubit counts, Helios demonstrates how high fidelity, flexible connectivity, and sophisticated control could
12:30help quantum computers become more useful for practical problems that conventional computing struggles to solve.
12:39Robots are becoming more capable when movement, perception, and physical interaction are combined
12:44into one system. Tron 2 is built around this idea, giving a robotic platform the ability to navigate
12:51environments while using its arms to interact with objects. Its seven degree of freedom arms provide
12:55flexible movement with a combined payload capacity of up to 10 kilograms. The platform also uses 3D
13:01perception for mapping and understanding surroundings, while autonomous navigation, localization, and
13:06obstacle avoidance help it move through indoor and outdoor spaces. A working height of up to 1.5 meters
13:12allows interaction with common points such as switches, shelves, and elevator controls. Its modular
13:17design supports different configurations, including wheeled legs and foot-based setups. By bringing mobility,
13:23perception, manipulation, and whole body control together, Tron 2 represents the growing field of
13:28embodied AI, where robots are being developed to understand environments and physically perform useful tasks.
13:38Electric vehicles may soon look very different underneath, with the motor itself becoming part of each wheel.
13:44Ilafi's Sonic technology explores this idea by giving individual wheels their own electric drive,
13:49removing the need for many traditional drivetrain components. The Sonic 0.1 system is designed for
13:5421-inch wheels and can produce up to 255 kilowatts of peak power and 1,700 newton meters of peak
14:01torque
14:01per wheel. Since every wheel can be managed independently, the system can react quickly to
14:06changing road conditions while controlling traction, braking, torque distribution, and stability. The technology
14:12has been demonstrated on Ital Design's Quintessenza concept, which uses four in-wheel motors to deliver
14:17substantially more power than its original setup. Another major advantage is the freedom this layout could
14:22give vehicle designers by creating more space within the body. By moving propulsion directly to the wheels,
14:27Sonic could introduce a completely different approach to electric vehicle performance, control, and architecture.
14:37Imagine looking through a car windshield and seeing useful digital information appear without
14:41filling the dashboard with extra screens. LG's UltraView windshield display is built around this concept,
14:48combining augmented reality projection with a large virtual interface. Driving information such as speed,
14:54navigation directions, and safety alerts can appear aligned with the road, while other functions
14:58including vehicle settings, climate controls, and entertainment can be displayed on a separate virtual
15:03screen. The system combines an AR head-up display with LG's hover screen technology, creating a wide viewing
15:10area while keeping the physical hardware relatively compact. When inactive, the windshield can remain clear
15:15without a large visible display area blocking the driver's view. This approach could change how future
15:20vehicle interiors are designed, shifting information away from traditional dashboards and toward adaptable
15:25windshield interfaces. It also reflects the growing move towards software-defined vehicles, where digital
15:30displays can change according to different driving situations and user needs.
15:38Long highway journeys can become easier when a vehicle responds automatically to changing traffic.
15:43Lincoln's adaptive cruise control uses radar and camera sensors to monitor vehicles ahead and adjusts
15:49speed according to the selected following distance. When traffic slows, the system reduces speed,
15:54then accelerates toward the chosen cruising speed once the road clears. On compatible models,
15:59stop-and-go technology can bring the vehicle to a complete stop in heavy traffic and resume when movement
16:03begins again. Lane centering can provide steering assistance by helping keep the vehicle positioned between
16:08detected lane markings. Some versions can also use speed sign information and selected road
16:13curves to support additional speed adjustments. These features contribute to Lincoln's broader driver
16:17assistance technology and can work alongside systems such as Blue Cruise. By combining cameras,
16:23radar and software, the technology can reduce repetitive driving tasks and make highway travel more
16:27responsive while keeping the driver responsible for monitoring the road.
16:35Industrial robots are becoming faster and more flexible while still being designed for workplaces where humans and
16:41machines can operate nearby. A BB's PUWA CRB1910 comes in two configurations, offering payload capacities of up to 11 and
16:5014 kilograms. Depending on the setup, it can reach speeds of up to 5.8 meters per second with rated
16:56payload, while the higher capacity version can reach even greater speeds with lighter loads.
17:00Its compact design uses the Omnicore E10 controller, making it suitable for production areas where space is limited. A BB
17:07also provides wizard-easy programming, allowing users to create robot tasks through a simpler block-based interface.
17:14Built-in power and force-limiting supports collaborative applications when proper safety requirements are followed. The robot can handle tasks
17:20such as machine tending, material handling, palletizing, welding, assembly and screw driving. With flexible tool integration and fast operation, it
17:28brings high-performance
17:29automation into a more compact collaborative platform.