In a nutshell: In a breakthrough that could reshape how tools for harsh environments are made, scientists at Hiroshima University have developed a method to 3D print one of the toughest materials used in industry: tungsten carbide – cobalt. The advance overcomes a long-standing challenge in additive manufacturing – how to shape ultra-hard composites without damaging their internal structure. The university's team reports that their approach centers on controlled "softening" of the material rather than complete melting. The process, known as hot-wire laser irradiation, reshapes tungsten carbide while maintaining its exceptional hardness and minimizing defects – an achievement that could transform how cutting, drilling, and construction tools are manufactured. Unlike most 3D printing workflows, which rely on fully melting metal powders or rods, the Hiroshima group used a laser to heat tungsten carbide rods just enough to make them pliable. This prevented grain growth and decomposition that often occur at full melting temperatures. To bond multiple printed layers securely, researchers added a nickel-based alloy as an intermediate layer within the build. The result: dense parts with a measured surface hardness exceeding 1,400 HV, approaching the hardness of gemstones like sapphire. Assistant Professor Keita Marumoto of Hiroshima University's Graduate School of Advanced Science and Engineering described the technique as an entirely new approach to forming metallic materials. He noted that, while the current work focused on cemented carbides such as WC – Co, the same principle could potentially apply to other difficult-to-manufacture compounds. Tungsten carbide – cobalt composites are prized in industry for their extreme wear resistance and ability to withstand friction, heat, and mechanical stress. However, those same qualities make the alloy notoriously difficult to shape using conventional methods. Traditional approaches involve sintering powdered materials in molds, which limits geometrical complexity and generates substantial waste. Additive manufacturing could, in theory, solve both problems – if the material could survive the process. The Hiroshima method takes a distinct path between welding and 3D printing. By carefully tuning laser power and wire feed rates, the team ensures that the carbide softens just enough to fuse without losing its microstructure. This controlled phase prevents cracking and preserves the distribution of cobalt binder, which gives the alloy its signature balance of hardness and toughness. While the achievement represents a leap forward, the research group acknowledges that their work remains ongoing. They are fine-tuning the process to eliminate occasional cracking and plan to test how far the technique can be extended to more intricate geometries. If successful, additive manufacturing could soon produce complex industrial tools that combine durability with material efficiency – an outcome long out of reach for engineers working with ultra-hard composites.

The takeaway: A decade into the era of electric mobility, one question still divides drivers and engineers alike: how much does fast charging really cost the battery? A new large-scale analysis from telematics firm Geotab offers one of the clearest answers yet, showing that EV battery packs age significantly faster when high-power charging becomes routine. The firm analyzed data from more than 22,700 vehicles across 21 models and found a striking pattern: batteries subjected to frequent charging sessions above 100 kilowatts degraded at roughly twice the rate of those primarily using lower-power options such as Level 2 chargers. While the typical EV experiences about 2.3 percent capacity loss per year, vehicles that rely heavily on ultra-fast DC charging show up to 2.5 percent annual degradation. The same models, when fast-charged sparingly, degraded at a rate closer to 1.5 percent per year. The threshold appears when more than 12 percent of total charging sessions occur at those high-power stations. The 100 kW figure is significant because it marks the point at which charging ceases to be merely "fast" and becomes electrochemically aggressive. Forcing electrons into cells at that rate accelerates what battery scientists call lithium plating, a buildup of metallic lithium on the anode instead of proper ion diffusion throughout the electrode. The process reduces the number of available charge carriers, effectively shrinking the battery's usable capacity over time. This phenomenon affects both major lithium-ion chemistries – lithium iron phosphate (LFP) and nickel manganese cobalt (NMC) – but the study found that LFP batteries hold up noticeably better under the stress of ultra-fast charging. The analysis also underscores that climate plays a meaningful role. In regions where average temperatures exceed 77 degrees F, degradation increases by roughly 0.4 percent per year. At the other extreme, attempting to fast-charge below freezing can cause permanent structural damage, which is why preconditioning systems – now standard in most EVs – are critical to maintaining long-term cell health. Interestingly, Geotab's longitudinal dataset shows that after the initial drop, most EV batteries stabilize at around a 1.4 percent annual degradation rate, suggesting that early wear levels off after the first few years. Battery Management Systems appear to be doing their job, keeping charge levels, thermal profiles, and cell balance within safe margins. Drivers still influence those curves, however. The research found that packs that spend most of their time below 20 percent or above 80 percent state of charge experience noticeably faster decline, adding another reason to stay within moderate ranges when possible. Vehicle type also makes a difference. Multi-purpose vehicles and delivery vans – often operating under heavy loads and more aggressive duty cycles – averaged 2.7 percent annual capacity fade, compared to two percent for light passenger cars. Yet across all categories, the takeaway is simple: the faster and hotter you charge, the more capacity you give up over time. To be clear, Geotab's analysis does not suggest EV drivers should abandon high-speed chargers entirely. The convenience of a 20-minute recharge during long trips remains essential to electric mobility, especially as charging networks expand worldwide. Rather, the data serves as a reminder that convenience comes at a measurable cost, and that moderating fast-charging habits – even slightly – can extend usable battery life by years.

The university's team reports that their approach centers on controlled "softening" of the material rather than complete melting. The process, known as hot-wire laser irradiation, reshapes tungsten carbide while maintaining its exceptional hardness and minimizing defects – an achievement that could transform how cutting, drilling, and construction tools are manufactured. Read Entire Article

The firm analyzed data from more than 22,700 vehicles across 21 models and found a striking pattern: batteries subjected to frequent charging sessions above 100 kilowatts degraded at roughly twice the rate of those primarily using lower-power options such as Level 2 chargers. Read Entire Article

What just happened? The world's most expensive domain name sale has taken place. It was for AI.com, which was bought by the founder and CEO of Crypto.com for an incredible $70 million. Unsurprisingly, the deal was paid for entirely using cryptocurrency. Kris Marszalek bought AI.com from an unknown seller ahead of the Super Bowl, so an ad for the site could air during the game. Unfortunately, shortly after the ad ran, many noticed the website was down. >Crypto guys (no AI background) buys https://t.co/UKlNob2Io4 for $70M >Burns $10M on a Super Bowl ad >Slogan: "Accelerating the arrival of AGI" >Turns out it's just a thin OpenClaw wrapper >Asks for your credit card right away just to "claim a handle" >Website looks like a cheap... pic.twitter.com/v2Swx8yLjz – Michał Podlewski (@trajektoriePL) February 9, 2026 The $70 million Marszalek paid smashes the previous domain name sales record – the $49.7 million paid for CarInsurance.com. It's double the $35 million it cost to buy VacationRentals.com, while Voice.com went for $30 million. Also on the list are PrivateJet.com ($30 million), 360.com ($17 million), and Sex.com, which has sold twice for over $13 million. Paying $70 million for a domain name, even one as coveted as AI.com, sounds insane, but Marszalek believes his purchase represents a good deal. "With assets like AI.com, there are no substitutes," Broker Larry Fischer, who facilitated the sale, told the Financial Times. "When one becomes available, the opportunity may never present itself again." Despite the eye-watering price, Marszalek's purchase also highlights how fiercely contested AI branding has become. As companies race to stake their claim in the space, owning a simple, instantly recognizable domain could prove just as valuable as the technology built behind it. Imagine buying https://t.co/s0VAPRv0sf for $9 in 1996. Advanced Instruments Corp back in 1996 (https://t.co/5ZTvG7huci) pic.twitter.com/gQF4JW23gY – Jeremy Cabral (@jeremycabral) February 8, 2026 AI.com offers customers personal AI agents, both free and subscription-based, for the likes of messaging, app usage, stock trading, even making dating profiles. According to the site, the agents operate on the user's behalf – organizing work, building projects, etc. Users can have multiple agents performing multiple tasks. This is apparently done while respecting their privacy and remaining permission-based. It's unclear whether AI.com uses its own models or licenses them from others. Marszalek is certainly confident that artificial intelligence isn't going to be the bubble many claim it is. "If you take a long-term view – 10 to 20 years – [AI] is going to be one of the greatest technological waves of our lifetime," he told the FT. Buying an appropriate and catchy domain name doesn't always guarantee success. In February 2018, Arizona resident Richard Blair paid $10,000 for the Lambo.com domain, likely hoping to make a tidy profit by selling it – Lambo is a popular nickname for the company. But the $75 million he wanted proved too excessive, so a court made him turn it over to the car company for nothing. Not only did he lose the $10,000 he paid, but he's also on the hook for the legal fees.

Kris Marszalek bought AI.com from an unknown seller ahead of the Super Bowl, so an ad for the site could air during the game. Unfortunately, shortly after the ad ran, many noticed the website was down. Read Entire Article

In brief: A group of researchers has demonstrated a compact optical device that switches between two distinct topological states of light, marking a key step toward terahertz communication systems that encode information using structured light. The system produces both electric and magnetic vortices – stable, ring-shaped patterns of terahertz radiation known as skyrmions – using a single, integrated platform. The work, reported in Optica by scientists from Tianjin University and Nanyang Technological University, marks the first experimental realization of skyrmions that can be actively toggled between electric and magnetic configurations. Unlike ordinary light pulses, these toroidal or "donut-shaped" electromagnetic fields curl back on themselves, creating resilient patterns that resist interference and distortion. That stability makes them attractive for encoding data in light-based or wireless channels, where signal integrity is critical. The device is built around a nonlinear metasurface – an ultrathin sheet patterned with metallic nanostructures precisely arranged to manipulate light at the subwavelength scale. When struck by near-infrared femtosecond laser pulses with different polarization patterns, the metasurface converts the incoming light into tailored terahertz pulses. Depending on the polarization, it generates either an electric-mode or magnetic-mode skyrmion, effectively switching between two distinct vortex states in free space. According to the team, the architecture relies on simple optical components such as wave plates and vortex retarders to control input polarization. That setup enables rapid switching between modes without the need for bulky mechanical adjustments. The resulting device functions as both a light generator and a programmable switch, bridging the gap between conventional optics and emerging terahertz technologies. To validate performance, the researchers built an ultrafast terahertz measurement system that tracks each light pulse as it propagates. By scanning across multiple positions and time intervals, they reconstructed the evolving electromagnetic fields in fine detail. The measurements confirmed that the toroidal pulses maintained their topological signatures and that mode switching occurred reliably and with high signal fidelity. Terahertz light lies between the microwave and infrared regions, making it uniquely suited for high-bandwidth communication and sensing. However, generating and modulating structured terahertz fields has long been a challenge due to the difficulty of precisely shaping electromagnetic wavefronts. This experiment demonstrates not only that such shaping is possible but that it can be controlled dynamically in real time. The researchers describe their metasurface as a proof of concept for a future generation of optical components capable of encoding and routing information through topological photonics – the study of light structures defined by their geometric stability rather than intensity or frequency alone. By integrating switching capability directly onto the metasurface, the system points toward compact, scalable designs for light-based circuits that could one day handle multiple data channels simultaneously. Looking ahead, the team plans to refine the device for communication-based applications by improving its stability, energy efficiency, and integration with other terahertz components. They also aim to extend the design beyond two modes, potentially adding more controllable states to accommodate complex data encoding schemes. If successful, switchable topological light may move from the lab into working terahertz systems, offering a foundation for faster, interference-resistant communication far beyond the reach of today's wireless technologies.

In brief: You can cram a PC into pretty much anything these days. Taking on that challenge was YouTube channel PhasedTech, which managed to squash an entire desktop computer into the small dimensions of an Xbox One S – with a few differences from what we've seen in similar projects. PhasedTech notes that a number of people have turned their consoles into gaming PCs, but these usually relied on external power bricks and integrated graphics. The YouTube channel had some restrictions for its build: a fully internal PC inside the original Xbox One S shell, with a dedicated CPU, internal power supply, and a functioning disc drive. PhasedTech also decided to only alter the back and bottom of the console's shell. No glue could be used, either – everything had to be mounted. The size constraints mean that a mid-range PC was the most suitable system. It consists of a mini-ITX motherboard with 16GB of DDR4 ultra-low-profile memory slotted inside. At the heart of this PC sits an AMD Ryzen 5 3600 CPU, which is cooled by a low-profile Noctua NH-L9i. Storage comes in the form of an NVMe SSD, while a 250W flex PSU provides the power. Meanwhile, the graphics come from a low-profile, single-slot Nvidia RTX 3050. Fitting all of that hardware inside the Xbox One S wasn't straightforward. With just 4.4 liters of internal volume to work with, component placement became a puzzle. The motherboard had to sit toward the rear-left of the shell, while the flex ATX power supply was positioned carefully to leave just enough clearance for the slim optical drive. The RTX 3050 is mounted vertically above the drive using a PCIe riser, allowing both the GPU and CPU cooler to draw air from the console's original top vent. To avoid adhesives, PhasedTech designed and 3D-printed a series of custom brackets that mount directly to existing screw points and structural cutouts in the shell. These brackets secure everything from the optical drive and GPU riser to the power and eject buttons, which remain fully functional thanks to some careful soldering and microswitch placement. Even the rear I/O is handled cleanly, with a custom-printed I/O shield. Thermals were one of the biggest concerns. Under load, CPU and GPU temperatures can reach around 80°C, which is high but still within safe limits given the cramped enclosure and low-profile cooling. Performance is respectable. In esports titles like Counter-Strike 2 and Valorant, the system can hit around 200 fps at 1080p with medium settings, making it more than usable for light gaming or living-room PC duties. As PhasedTech notes, the project was less about raw performance and more about seeing how much modern PC hardware could be squeezed into an aging console shell while keeping it looking stock. On that front, it's hard to argue with the results.

The work, reported in Optica by scientists from Tianjin University and Nanyang Technological University, marks the first experimental realization of skyrmions that can be actively toggled between electric and magnetic configurations. Read Entire Article

PhasedTech notes that a number of people have turned their consoles into gaming PCs, but these usually relied on external power bricks and integrated graphics. Read Entire Article

What just happened? A team of physicists at MIT has managed to do something long thought impossible: peer into the ultrafast, quantum-scale motion of superconducting electrons. Using a microscope built around pulses of terahertz light – radiation oscillating trillions of times per second – they've captured a kind of atomic dance that has remained hidden until now. The implications of the breakthrough could ripple through multiple industries. A better understanding of how superconductivity behaves at quantum scales could accelerate the development of room-temperature superconductors, radically improving electrical grids, quantum computers, and magnetic levitation systems. The underlying terahertz technology itself – capable of transmitting and detecting signals at unprecedented speeds – could shape the future of wireless communications, sensing devices, and ultrafast data transfer for next-generation electronics. The development, described in Nature, centers on bismuth strontium calcium copper oxide (BSCCO), a copper-based superconductor known for carrying electricity without resistance at relatively high temperatures. When hit with precisely tuned terahertz bursts, the electrons inside the material began to move collectively, vibrating in unison at the same frequencies as the light itself. MIT physicist Nuh Gedik calls this previously unseen motion "a new mode of superconducting electrons." The feat was accomplished using a terahertz microscope capable of compressing radiation that typically stretches hundreds of microns long down to the tiny scale of a quantum material. Terahertz radiation sits between microwaves and infrared on the electromagnetic spectrum, an energy range considered a sweet spot for imaging because it's non-ionizing, penetrates deeply, and matches the natural oscillation rate of atoms and electrons. Yet until now, it's been all but useless for imaging small structures because of a fundamental barrier called the diffraction limit – light can't be focused to a spot smaller than its own wavelength. An artist's depiction of a superfluid plasmonic wave. With the terahertz scope, the team observed a frictionless "superfluid" of superconducting electrons that were collectively jiggling back and forth at terahertz frequencies MIT postdoctoral researcher Alexander von Hoegen and colleagues found a way to beat that limitation. They used a spintronic emitter, a layered metallic structure that generates sharp terahertz pulses when hit by a laser. By placing microscopic samples extremely close to this source, the researchers trapped the light before it could spread out, focusing the energy into a region much smaller than its wavelength. That confinement allowed the microscope to resolve features that had been invisible under conventional terahertz illumination. The design integrates the emitter with a Bragg mirror – a stack of ultrathin reflective layers that filter unwanted light while allowing the desired terahertz frequencies through. This setup protects the fragile sample from the optical laser but preserves the high-frequency terahertz signals scientists want to study. In their first experiment, the researchers cooled a BSCCO sample to near absolute zero, where it enters its superconducting phase. As terahertz pulses moved through the chilled material, detectors picked up faint oscillations in the returning field – a telltale sign that electrons inside were moving collectively like a frictionless fluid. The team compared the signals to theoretical predictions and confirmed that they had, for the first time, imaged the quantum superfluid motion itself. "It's this superconducting gel that we're sort of seeing jiggle," von Hoegen explained. The visualization offers a new window into the quantum dynamics of superconductors and could help uncover factors that might one day enable superconductivity at room temperature – a long-sought goal in physics and energy technology. Von Hoegen sees broad implications beyond basic physics. Future terahertz microscopes, he said, could study signal propagation in nanoscale antennas or sensors designed for terahertz-frequency telecommunications – the next frontier beyond today's Wi-Fi and millimeter-wave systems. "There's a huge push to take Wi-Fi or telecommunications to the next level, to terahertz frequencies," he said. "If you have a terahertz microscope, you could study how terahertz light interacts with microscopically small devices that could serve as future antennas or receivers." With the new microscope now operational, the team plans to explore other two-dimensional materials known for exotic electronic behaviors, hoping to capture their internal vibrations in the terahertz domain. Each experiment, they say, brings them closer to understanding how electrons cooperate when friction disappears – and what that could mean for the future of electronic materials.

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The implications of the breakthrough could ripple through multiple industries. A better understanding of how superconductivity behaves at quantum scales could accelerate the development of room-temperature superconductors, radically improving electrical grids, quantum computers, and magnetic levitation systems. Read Entire Article

Why it matters: Love them or hate them, there's little escaping YouTube reaction videos. Clips of people reacting to other content are incredibly popular, but a federal court ruling could have massive legal ramifications for those making a living from this trend. The lawsuit in question involves Christopher Cordova, who runs the Denver Metro Audits channel, and Jonathan Huneault, creator of the Frauditor Troll channel. Cordova alleges that Huneault used his copyrighted footage without permission, grabbing the clips via ripping tools that bypass YouTube's technical protections. Cordova says this is a violation of the Digital Millennium Copyright Act (DMCA) and goes against YouTube's terms and conditions, even though people have been ripping clips this way for years. TorrentFreak wrote that Huneault's defense argued that Cordova couldn't prove ripping tools had been used, and that their client, along with many others, has used screen recording software in the past to copy content. But US Magistrate Judge Virginia K. DeMarchi denied the request by Huneault's lawyers to dismiss the DMCA circumvention claims. "Mr. Cordova has adequately pled that YouTube applies technological measures, including 'rolling-cipher technology' designed to prevent unauthorized downloading, to videos published on its platform that effectively control access to his videos for purposes of § 1201(a)." Judge DeMarchi said. "Whether the videos may be viewed by the public is immaterial; the [complaint] refers to technological measures intended to prevent unauthorized downloading." Huneault could still win the case, but allowing the DMCA claim may have far-reaching implications for many creators. Most reaction creators say their use of others' clips falls under fair use as they're adding commentary to extracts, rather than uploading someone else's entire video and profiting from it. Therefore, the way they acquired said footage doesn't matter. However, Judge DeMarchi's decision suggests that reaction videos could face legal action if the footage was obtained using ripping tools that circumvent YouTube's protections. Huneault's lawyers say that argument is a tactical maneuver that may eventually fall apart if Huneault didn't use a ripping tool. "If fair use rights apply, and if there is no cognizable injury, then what would be their grounds to have proper standing?" said defense lawyer Steven C. Vondran. It's impossible to provide an exact number of reaction YouTubers, as they reach into the thousands – potentially hundreds of thousands. Some of the most popular channels, such as React, have over 20 million subscribers. It'll be interesting to see what impact this ongoing case has on the industry.

Bottom line: Global chipmakers are heading into 2026 with overflowing order books... and surprisingly little clarity about when the current AI spending spree might crest. The semiconductor industry is now on track to post $1 trillion in global sales this year, a figure that would have sounded completely out of reach not long ago. The milestone underscores just how deeply AI has reshaped demand across the sector. According to the Semiconductor Industry Association, worldwide chip revenue hit $791.7 billion in 2025, up 25.6 percent year over year. The surge reflects an unprecedented wave of capital spending as tech giants race to build out AI infrastructure in data centers around the world. Rather than a narrow spike in a niche product, the surge is running through the core of the industry's product mix and supply chain. The biggest gains came from advanced computing chips designed for data center workloads, including AI training and inference. That category is dominated by Nvidia, AMD, and Intel, who generated $301.9 billion in sales last year, a 39.9 percent jump. These processors sit at the center of modern AI clusters, optimized for massively parallel workloads and typically deployed in dense racks alongside high-bandwidth memory and specialized networking. Their rising share of total revenue highlights the industry's shift away from general-purpose CPUs toward accelerators purpose-built for large-scale machine learning. Memory was the second-largest segment in 2025, propelled by AI's relentless appetite for capacity. Sales of memory products climbed 34.8 percent to $223.1 billion, driven by both higher volumes and rising prices. The same workloads that demand more compute also require enormous pools of DRAM and other memory to keep large models fed with data. That pressure has strained a market already known for volatility, with shortages pushing prices higher and forcing some customers to rethink deployment timelines. The SIA says demand is touching nearly every corner of the chip ecosystem, from small design houses to specialized manufacturers. After meeting with executives in Silicon Valley, SIA president and CEO John Neuffer summed up a sentiment he's hearing repeatedly: "No one knows what's going to happen with the AI build out a year from now, but my orders are completely full," he told Reuters. That mix of long-term uncertainty and near-term confidence is shaping how companies approach the next phase of investment. Beneath the optimism, familiar risks are resurfacing. Supply chain resilience remains a concern after years of disruptions forced the industry to reconsider its reliance on a narrow set of manufacturing hubs and logistics routes. Capacity planning is another challenge, as companies weigh how aggressively to invest in new fabs, advanced packaging lines, and test facilities while utilization is sky-high but future demand remains hard to model. Lurking in the background, too, is the industry's long memory of boom-and-bust cycles, in which a rush to add capacity during strong years left the industry exposed when demand eventually cooled. Those patterns have long shaped SIA commentary and still factor into decision-making, even as AI appears to be driving a more structural shift in demand. For now, the data points to what Neuffer called "a pretty, pretty strong glide path" for at least the next year. Advanced computing and memory products tied to AI infrastructure are setting new records, and order books remain full across much of the supply chain. Whether the industry can carry that momentum into the trillion-dollar era without repeating past excesses may be one of the defining questions for chipmakers in the years ahead.

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The lawsuit in question involves Christopher Cordova, who runs the Denver Metro Audits channel, and Jonathan Huneault, creator of the Frauditor Troll channel. Read Entire Article

According to the Semiconductor Industry Association, worldwide chip revenue hit $791.7 billion in 2025, up 25.6 percent year over year. The surge reflects an unprecedented wave of capital spending as tech giants race to build out AI infrastructure in data centers around the world. Rather than a narrow spike in... Read Entire Article

Rumor mill: The memory crisis is expected to last for several years, but Sony hopes things will have improved by the time the PlayStation 6 arrives. According to a new rumor, the next-gen console will pack a hefty 30GB of GDDR7 with 640 GB/s bandwidth, marking a 42% increase over the PlayStation 5. It's been almost five years since the PlayStation 5 launched. That means its successor, the PlayStation 6, isn't far away, so the rumors are starting to arrive thick and fast. A new claim comes from long-time reliable leaker Kepler L2. According to their NeoGAF post, the PlayStation 6 will feature 30GB of GDDR7 RAM. That's 6GB more than previous rumors claimed and almost double the 16GB of GDDR6 RAM in the PlayStation 5. Sony's next console is predicted to use ten 3GB memory modules in clamshell configuration. The memory bus is reduced from 256-bit to 160-bit, but a faster memory speed of 32Gbps per chip pushes it to 640 GB/s bandwidth, more than the PS5 Pro's 576 GB/s. Rumors are rumors, of course, even when they come from someone with a good track record. While Sony could pack the PS6 with 30GB of memory, the current supply woes the industry is experiencing may not have been alleviated by the time the console arrives – the memory crisis is why Valve recently delayed the Steam Machine and Steam Frame. Another forum user suggests that a 20GB PS6 would be a more realistic target as any more could raise the MSRP by another $100. Kepler disagreed, stating that 20GB simply is not enough. He acknowledged there will be an extra $100 on the bill of materials (BOM), but Sony will have to deal with the added expense until prices come down. Sony is also believed to be releasing a PlayStation 6 handheld. Kepler believes it will feature 24GB of LPDDR5X memory. The Japanese gaming giant is said to be developing two SoCs for the PlayStation 6 and its handheld version. Other rumors have pointed to an AMD Zen 6-based CPU, possibly with a 3D stacked cache, in the PS6 console, along with a custom UDNA GPU architecture. As for when we'll be able to verify all these rumors, the PlayStation 6 could arrive in 2027, the same year that, according to AMD, the next Xbox will launch.

It's been almost five years since the PlayStation 5 launched. That means its successor, the PlayStation 6, isn't far away, so the rumors are starting to arrive thick and fast. Read Entire Article

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