• Compal experiments with turning the laptop palm rest into a color E Ink display
• The AI Book concept keeps displaying information even when the laptop is closed
• A hinge flips the E Ink screen outward for quick external notifications

Compal Electronics has introduced a laptop concept which replaces the conventional palm rest and touchpad area with a color E-Ink touchscreen.

The AI Book design places the secondary display directly beneath the keyboard, creating an interactive surface where users can write notes, draw sketches, or view quick references using stylus input.

For many residential pool owners, the dream of a crystal-clear oasis often clashes with the reality of manual maintenance. Traditional cleaning methods involving heavy hoses and manual scrubbing are famously time-consuming and laborious. This is where the Talosbo C1 enters the frame as a professional-grade solution designed to automate the most taxing aspects of pool ownership.

As a smart pool robot engineered for both efficiency and ease of use, the Talosbo C1 aims to replace outdated equipment with a sophisticated, cordless experience. In this review, we examine how its technical parameters translate into real-world performance.

Technical Superiority: Enhanced Suction and Filtration

At the heart of any pool cleaning robot is its ability to move water and trap debris. The Talosbo C1 distinguishes itself through an upgraded triple-motor system that provides significantly enhanced suction performance compared to standard models. This increased power allows it to thoroughly scrub pool floors and navigate vertical walls with stability.

The cleaning effectiveness is further bolstered by a Dual High Efficiency Filtration system:

• 180 μm Filter Basket: This large-capacity component captures substantial debris, such as leaves, twigs, and bugs.
• Fine Sponge Layer: Integrated to trap micro impurities like fine dust, sand, and silt, ensuring the water is left crystal clear.

When combined with its durable PVC brushes, the C1 provides a before-and-after comparison that reflects a deep, professional-level scrub of the entire pool surface.

The Cordless Advantage: Power and Auto Parking

One of the most significant pain points for pool owners is the danger and hassle of tangled power cords. As a cordless pool cleaner, the Talosbo C1 removes these physical constraints entirely.

• Extended Battery Life: Equipped for the long haul, the robot offers up to 180 minutes of runtime in Eco mode.
• Large Coverage: This allows it to cover expansive residential pools of up to 150 m² on a single charge.
• Intelligent Auto Parking: To ensure retrieval is as effortless as the cleaning itself, the C1 is programmed with smart sensors that detect when the battery is low or the cycle is complete.
• Edge Retrieval: The robot automatically parks near the pool edge, allowing for easy, dry hand retrieval without the need to “fish” for the device.

Intelligence at Your Fingertips: App Control and OTA Updates

The Talosbo C1 is not just a vacuum; it is a smart pool robot. Through the dedicated mobile application, users gain access to App One Touch Control, allowing one-touch control of the cleaning schedule and mode selection.

The app features 7 optional cleaning modes and multiple specialized cleaning paths. Whether you need a quick floor-only pass before a party or a comprehensive deep clean of the floor, walls, and waterline, the C1 adapts to your specific needs. The system also supports remote OTA (Over the Air) updates. This ensures that as Talosbo optimizes its algorithms and introduces new features, your hardware continues to evolve and improve over time.

Authentic User Experience: From Water Entry to Filter Cleaning

In actual use, the Talosbo C1 prioritizes a humanized design. The process is remarkably simple: drop the robot into the water, select your mode via the app, and let the device handle the rest.

Its wall-climbing ability is particularly impressive, maintaining stable contact with the pool surface even as it reaches the waterline to scrub away stubborn residue. Maintenance is equally streamlined, as the dual filtration basket is designed for quick removal and can be rinsed clean in seconds.

About Talosbo: Our Mission and Background

Talosbo Inc. was born out of one simple need: helping people reclaim their time from home maintenance. Specializing in innovative robotic outdoor care solutions inspired by the legendary strength of Talos, the brand’s mission is to provide efficient tools for pool, garden, and home maintenance.

By offering a full range of robotic outdoor care tools, Talosbo aims to become a comprehensive solution provider for outdoor maintenance, allowing people to spend more time with family and loved ones. The Talosbo C1 embodies this commitment to technological innovation and high-quality manufacturing, representing a smart investment for pool owners in North America and Europe who pursue a high-quality, convenient life.

Final Verdict

The Talosbo C1 Cordless Robotic Pool Vacuum Cleaner is a standout choice for residential pool owners and small commercial operators alike. Its combination of enhanced triple-motor suction, dual filtration, and intelligent app control effectively automates pool management. For more information on purchasing or to explore the full range of Talosbo smart equipment, visit the official Talosbo C1 Product Page or follow their Official Facebook Page

In a recent security partnership with Mozilla, Anthropic found 22 separate vulnerabilities in Firefox — 14 of them classified as “high-severity.” Most of the bugs have been fixed in Firefox 148 (the version released this February), although a few fixes will have to wait for the next release.

Anthropic’s team used Claude Opus 4.6 over the span of two weeks, starting in the JavaScript engine and then expanding to other portions of the codebase. According to the post, the team focused on Firefox because “it’s both a complex codebase and one of the most well-tested and secure open-source projects in the world.”

Notably, Claude Opus was much better at finding vulnerabilities than writing software to exploit them. The team ended up spending $4,000 in API credits trying to concoct proof-of-concept exploits, but only succeeded in two cases.

Still, it’s a reminder of how powerful AI tools can be for open source projects — even if they bring a flood of bad merge requests alongside the useful ones.

OpenAI has delayed the launch of “adult mode,” a ChatGPT feature that will give verified adult users access to erotica and other adult content.

OpenAI CEO Sam Altman first announced the feature in October, writing, “In December, as we roll out age-gating more fully and as part of our ‘treat adult users like adults’ principle, we will allow even more, like erotica for verified adults.”

The launch had already been delayed once, from December — when Altman reportedly sent an internal memo declaring a “code red” and calling for teams to focus on the core ChatGPT experience — until the first quarter of this year. 

Now an OpenAI spokesperson has told Axios that the company is  “pushing out the launch of adult mode” in order to “focus on work that is a higher priority for more users right now,” such as work on aspects like intelligence, personality, and making the chatbot “more proactive.”

“We still believe in the principle of treating adults like adults, but getting the experience right will take more time, ” the spokesperson said.

It’s not clear how long the delay is expected to last. The news was first reported by Sources.

from the can-someone-ask-an-ai-about-incentives dept

About a year and a half ago, I wrote about my kid’s experience with an AI checker tool that was pre-installed on a school-issued Chromebook. The assignment had been to write an essay about Kurt Vonnegut’s Harrison Bergeron—a story about a dystopian society that enforces “equality” by handicapping anyone who excels—and the AI detection tool flagged the essay as “18% AI written.” The culprit? Using the word “devoid.” When the word was swapped out for “without,” the score magically dropped to 0%.

The irony of being forced to dumb down an essay about a story warning against the forced suppression of excellence was not lost on me. Or on my kid, who spent a frustrating afternoon removing words and testing sentences one at a time, trying to figure out what invisible tripwire the algorithm had set. The lesson the kid absorbed was clear: write less creatively, use simpler vocabulary, and don’t sound too good, because sounding good is now suspicious.

At the time, I worried this was going to become a much bigger problem. That the fear of AI “cheating” would create a culture that actively punished good writing and pushed students toward mediocrity. I was hoping I’d be wrong about that.

Turns out… I was not wrong.

Dadland Maye, a writing instructor who has taught at many universities, has published a piece in the Chronicle of Higher Education documenting exactly how this has played out across his classrooms—and it’s even worse than what I described. Because the AI detection regime hasn’t just pushed students to write worse. It has actively pushed students who never used AI to start using it.

This fall, a student told me she began using generative AI only after learning that stylistic features such as em dashes were rumored to trigger AI detectors. To protect herself from being flagged, she started running her writing through AI tools to see how it would register.

A student who was writing her own work, with her own words, started using AI tools defensively—not to cheat, but to make sure her own writing wouldn’t be accused of cheating. The tool designed to prevent AI use became the reason she started using AI.

This is the Cobra Effect in its purest form. The British colonial government in India offered a bounty for dead cobras to reduce the cobra population. People started breeding cobras to collect the bounty. When the government scrapped the program, the breeders released their now-worthless cobras, making the problem worse than before. AI detection tools are our cobra bounty. They were supposed to reduce AI use. Instead, they’re incentivizing it.

And this goes well beyond one student’s experience. Maye describes a pattern spreading across his classrooms:

One student, a native English speaker, had long been praised for writing above grade level. This semester, a transfer to a new college brought a new concern. Professors unfamiliar with her work would have no way of knowing that her confident voice had been earned. She turned to Google Gemini with a pointed inquiry about what raises red flags for college instructors. That inquiry opened a door. She learned how prompts shape outputs, when certain sentence patterns attract scrutiny, and ways in which stylistic confidence trigger doubt. The tool became a way to supplement coursework and clarify difficult material. Still, the practice felt wrong. “I feel like I’m cheating,” she told me, although the impulse that led her there had been defensive.

A student praised for years for being an exceptional writer now feels like a cheater because she had to learn how AI detection works in order to protect herself from being falsely accused. The surveillance apparatus has turned writing talent into a liability.

Then there’s this:

After being accused of using AI in a different course, another student came to me. The accusation was unfounded, yet the paper went ungraded. What followed unsettled me. “I feel like I have to stay abreast of the technology that placed me in that situation,” the student said, “so I can protect myself from it.” Protection took the form of immersion. Multiple AI subscriptions. Careful study of how detection works. A fluency in tools the student had never planned to use. The experience ended with a decision. Other professors would not be informed. “I don’t believe they will view me favorably.”

The false accusation resulted in the student subscribing to multiple AI services and studying how the detection systems work. Not because they wanted to cheat, but because they felt they had no other option for self-defense. And then they decided to keep quiet about it, because telling professors about their AI literacy would only invite more suspicion.

Look, I get it: some students are absolutely using AI to cheat, and that’s a real issue educators have to deal with. But the detection-first approach has created an incentive structure that’s almost perfectly backwards. Students who don’t use AI are punished for writing too well. Students who are falsely accused learn that the only defense is to become fluent in the very tools they’re accused of using. And the students savvy enough to actually cheat? They’re the ones best equipped to game the detectors. The tools aren’t catching the cheaters—they’re radicalizing the honest kids.

As Maye explains, this dynamic is especially brutal at open-access institutions like CUNY, where students already face enormous pressures:

At CUNY, many students work 20 to 40 hours a week. Many are multilingual. They encounter a different AI policy in nearly every course. When one professor bans AI entirely and another encourages its use, students learn to stay quiet rather than risk a misstep. The burden of inconsistency falls on them, and it takes a concrete form: time, revision, and self-surveillance. One student described spending hours rephrasing sentences that detectors flagged as AI-generated even though every word was original. “I revise and revise,” the student said. “It takes too much time.”

Just like my kid and the school-provided AI checker, Maye’s student spent a bunch of wasted time “revising” to avoid being flagged.

Students spending hours rewriting their own original work—work that they wrote—because an algorithm decided it sounded too much like a machine. That’s time taken away from studying, working, caring for family, or, you know, actually learning to write better.

Learning to revise is a key part of learning to write. But revisions should be done to serve the intent of the writing. Not to appease a sketchy bot checker.

What Maye articulates so well is that the damage here goes beyond false positives and wasted time. The deeper problem is what these tools teach students about writing:

Detection tools communicate, even when instructors do not, that writing is a performance to be managed rather than a practice to be developed. Students learn that style can count against them, and that fluency invites suspicion.

We are teaching an entire generation of students that the goal of writing is to sound sufficiently unremarkable! Not to express an original thought, develop an argument, find your voice, or communicate with clarity and power—but to produce text bland enough that a statistical model doesn’t flag it.

The word “devoid” is too risky. Em dashes are suspicious. Confident prose is a red flag.

My kid’s Harrison Bergeron experience was, in retrospect, a perfect preview of all of this. Vonnegut warned about a society that forces everyone down to the lowest common denominator by handicapping anyone who shows ability. And here we are, with AI detection tools functioning as the Handicapper General of student writing, punishing fluency, penalizing vocabulary, and training students to sound as mediocre as possible to avoid triggering an algorithm that can’t even tell the difference between a thoughtful essay and a ChatGPT output.

Maye eventually did the only sensible thing: he stopped playing the game.

Midway through the semester, I stopped requiring students to disclose their AI use. My syllabi had asked for transparency, yet the expectation had become incoherent. The boundary between using AI and navigating the internet had blurred beyond recognition. Asking students to document every encounter with the technology would have turned writing into an accounting exercise. I shifted my approach. I told students they could use AI for research and outlining, while drafting had to remain their own. I taught them how to prompt responsibly and how to recognize when a tool began replacing their thinking.

Rather than taking a “guilt-first” approach, he took one that dealt with reality and focused on what would actually be best for the learning environment: teach students to use the tools appropriately, not as a shortcut, and don’t start from a position of suspicion.

The atmosphere in my classroom changed. Students approached me after class to ask how to use these tools well. One wanted to know how to prompt for research without copying output. Another asked how to tell when a summary drifted too far from its source. These conversations were pedagogical in nature. They became possible only after AI use stopped functioning as a disclosure problem and began functioning as a subject of instruction.

Once the surveillance regime was lifted, students could actually learn. They asked genuine questions about how to use tools effectively and ethically. They engaged with the technology as a subject worth understanding rather than a minefield to navigate. The teacher-student relationship shifted from adversarial to educational, which is, you know, kind of the whole point of school.

That line Maye uses: “these conversations were pedagogical in nature” keeps sticking in my brain. The fear of AI undermining teaching made it impossible to teach. Getting past that fear brought back the pedagogy. Incredible.

This piece should be required reading for every educator thinking that “catching” students using AI is the most important thing.

As Maye discovered through painful experience, the answer is to stop treating AI as a policing problem and start treating it as an educational one. Teach students how to write. Teach them how to think critically about AI tools. Teach them when those tools are helpful, when they’re harmful, and when they’re a crutch. And for the love of all that is good, stop deploying detection tools that punish good writers and push everyone toward a bland, algorithmic mean.

We are, quite literally, limiting our students’ writing to satisfy a machine that can’t tell the difference. Vonnegut would have had a field day.

Filed Under: ai, ai detection, cheating, dadland maye, students

One modder has done something rather impressive with a PS5, transforming a device that was never supposed to be more than a Sony console into a fully-fledged Linux gaming system with a fairly intriguing twist: it runs PC titles via Steam. Andy Nguyen, known online as theflow0, is the modder in issue, as he is the one who got it operating and gave the console serious gaming credentials.

Nguyen proceeded to boot up a full Linux system on the console hardware and managed to load Grand Theft Auto V in Enhanced mode with ray tracing enabled, all while keeping the game running smoothly at a rock-solid 60 fps per second in 1440p resolution. That’s far superior to the basic demo you’d expect from someone experimenting with this type of technology.

There are some catches, as this configuration only works on older PS5 units with outdated firmware, ranging from 1.xx to 2.xx. Newer firmware simply eliminates the attack chain Nguyen used, a well-known one called Byepervisor, and Sony has a pretty solid grip on preventing people from utilizing this type of workaround. Anyone who has updated since those early builds will be unable to get the mod to work unless they roll back, an option that Sony has long blocked.

Nguyen contributed significantly to the open-source Mesa graphics project in order to make the PS5’s GPU to run correctly under Linux. As a result, the console’s AMD hardware is functioning smoothly, and the speeds he’s achieving are no joke: 3.2 GHz on the CPU and 2.0 GHz on the GPU.

If you push the limitations even further, up to 3.5 GHz on the CPU and 2.23 GHz on the GPU, you’ll most likely wind up with an overheating PS5 Slim. Still, HDMI works perfectly for outputting 4K video and audio. All of the USB ports appear to be working normally. Steam even integrates with the entire setup in Big Picture mode, transforming the PS5 into a living-room Steam machine. Plus, Proton works to make PC games such as GTA V playable on consoles.

Of course, there are risks to all of this, as the entire technique is based on a full attack chain, with no simple software toggle in sight. By choosing this path, you are essentially voiding your warranty, and there is a potential that you may end up with a console that cannot be used at all if all goes wrong. To make matters worse, the little window of opportunity for completing all of this is shrinking as people continue to update their consoles.
[Source]

Through the Artemis Program, NASA hopes to establish a permanent human presence on the Moon in its southern polar region. China, Russia, and the European Space Agency (ESA) have similar plans, all of which involve building bases near the permanently shadowed regions (PSRs)—craters that contain water ice—that dot the South Pole-Aitken Basin. For these and other agencies, it is vital that these bases be as self-sufficient as possible since resupply missions cannot be launched regularly and take several days to arrive.

Therefore, any plan for a lunar base must come down to harvesting local resources to meet the needs of its crews as much as possible—a process known as In-Situ Resource Utilization (ISRU). In a recent study, researchers at The Ohio State University (OSU) proposed using a specialized laser-based 3D printing method to turn lunar regolith into hardened building material. According to their findings, this method can produce durable structures that withstand radiation and other harsh conditions on the lunar surface.

The research team was led by Sizhe Xu, a graduate research associate at OSU. He was joined by colleagues from OSU’s Department of Integrated Systems Engineering, Mechanical and Aerospace Engineering, and Materials Science & Engineering. Their paper, “Laser directed energy deposition additive manufacturing of lunar highland regolith simulant,” appeared in the journal Acta Astronautica.

Challenges of Lunar 3D Printing

The importance of ISRU for human exploration has prompted the rapid development of additive manufacturing systems, or 3D printing. These systems have proven effective at fabricating tools, structures, and habitats, effectively reducing dependence on supplies delivered from Earth. Developing such systems for long-duration missions is one of the most challenging aspects of the process, as they must be engineered to operate in the extreme environment on the Moon. This includes the lack of an atmosphere, massive temperature variations, and the ever-present problem of Moon dust.

Scientists use two types of lunar regolith for their experiments and research: Lunar Highlands Simulant (LHS-1) and Lunar Mare Simulant (LMS-1). As part of their research, the team used LHS-1, which is rich in basaltic minerals, similar to rock samples obtained by the Apollo missions. They melted this regolith with a laser to produce layers of material and fused them onto a base surface of stainless steel or glass. To assess how well these objects would fare in the lunar environment, the team tested their fabrication process under a range of different environmental conditions.

One thing they noticed was that the fused regolith adhered well to alumina-silicate ceramic, possibly because the two compounds form crystals that enhance heat resistance and mechanical strength. This revealed that the overall quality of the printed material is largely dependent on the surface onto which the regolith is printed. Other environmental factors, such as atmospheric oxygen levels, laser power, and printing speed, also affected the stability of the printed material.

Where 3D-Printed Material Could Help

Deployed to the Moon’s surface, this process could help build habitats and tools that are strong, resilient, and capable of handling the lunar environment. This has the added benefit of increasing independence from Earth, which is key to realizing long-duration missions on the Moon. In addition to assisting astronauts exploring the Moon in the near future (as part of NASA’s Artemis Program), this technology could also lead to resilient habitats that will enable a long-term human presence on the Moon, Mars, and beyond.

However, there are several unknown environmental factors that could limit the effectiveness of these systems on other worlds, and more data is needed before they can be addressed. In their study, the team suggests that instead of being powered by electricity, future scaled-up versions of their method could rely on solar or hybrid power systems. Nevertheless, the potential for space exploration is clear, and the technology also has applications for life here on Earth. Sarah Wolff, an assistant professor in mechanical and aerospace engineering and a lead author on the study, explained:

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There are conditions that happen in space that are really hard to emulate in a simulant. It may work in the lab, but in a resource-scarce environment, you have to try everything to maximize the flexibility of a machine for different scenarios. If we can successfully manufacture things in space using very few resources, that means we can also achieve better sustainability on Earth. To that end, improving the machine’s flexibility for different scenarios is a goal we’re working really hard toward.

As the saying goes, “solving for space solves for Earth.” In environments where materials and resources are limited, laser-based 3D printing is one of several technologies that could support sustainable living. This applies equally to extraterrestrial environments and to regions on Earth experiencing the effects of climate change.

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