
Liquid Glass Looks Great, but I'm More Hyped for These Low-Key iOS 26 Features
The next version of iPhone software is iOS 26 -- and no, that's not a typo. Apple announced the new name and new Liquid Glass look at WWDC 2025 earlier this week. The update to iOS 26 comes with a lot of features and improvements that I've wanted for some time, including call screening.
Last year, we got Apple Intelligence, and the year before that, the company unveiled the Vision Pro. This year, Apple renamed all of its software and made it look more unified. It might not sound as big a deal as previous WWDCs, but if you hoped Apple would talk more about software and less about AI, then this was your year. Instead of getting iOS 19, Apple released iOS 26. Typically, a new version of iOS comes out in the fall, but it can receive smaller updates through the following spring and summer. So iOS 26 is a reference to the fact that it will get minor updates through 2026.
The biggest update wasn't the iOS name change. It was Liquid Glass, a design overhaul that adds transparency and is aimed at reducing distraction. However, some people's instant reaction was less than favorable to the new look. I am fascinated by what I saw with Liquid Glass and look forward to testing it as part of the iOS 26 beta version. But Liquid Glass didn't get me as hyped as some of the other features Apple included in iOS 26, like the Camera app redesign.
The theme at this year's WWDC is consistency -- consistency in terms of the overall experience an Apple device owner has. iOS 26 is a great example of this because it brings a sophisticated and contemporary feel to the iPhone's software.
Check out my iOS 26 video above, in which I walk you through all the big features in the new iOS and show you a couple of smaller ones (some might find them mundane) that I'm excited about.
iOS 26 will launch this fall and is available now as a developer beta. The public beta version will be available in July. You need an iPhone 11 or newer to use iOS 26. If you want to give it a spin before it's released, I recommend waiting for the public beta version and even then not running it on your main iPhone.

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles
Yahoo
an hour ago
- Yahoo
US to get 2nd Dark Eagle missile battery with Mach 5 speed, 1,700-mile range next year
The United States Army has announced plans to deploy its second 'Dark Eagle' hypersonic missile battery in 2026. This new battery will join the first that is already operational and currently undergoing testing and crew training. The second battery, according to the United States Government Accountability Office (GAO), is scheduled to be fielded in the fourth quarter of 2026. To further this, flight testing of a 'modified missile' is set for late 2025. Dark Eagle, otherwise known as the Long Range Hypersonic Weapon (LRHW), is a powerful new missile system being developed by the U.S. Army. It's designed to strike high-value enemy platforms extremely fast before they can move, hide, or respond. The system has a declared range of around 1,725 miles (2,776 km), which is about the distance from London to Athens. The missiles themselves have a speed of over 3,800 mph (6,115 km/h), which is more than five times the speed of sound, making them hypersonic. Each battery consists of four mobile launchers (Transporter Erector Launchers or TELs), each of which carries two missiles. These are accompanied in turn by a command vehicle called the Battery Operations Center. The launchers are mounted on mobile trailers, allowing them to move quickly after firing to avoid counterattacks. The first battery was placed at Joint Base Lewis-McChord in Washington state. This is currently operated by the 5th Battalion, 3rd Field Artillery Regiment, and is part of the 1st Multi-Domain Task Force. This force focuses on integrating cyber, space, air, sea, and land capabilities into a single front, particularly in the Indo-Pacific theater. Payloads are delivered via a ground-launched rocket with a special warhead called a Hypersonic Glide Body (HGB). These weapons, unlike traditional missiles which go up and down in predictable arcs (a bit like a basketball shot), are hypersonic glide bodies. They work by riding on rocket boosters to the upper atmosphere. Once there, they detach and then glide at hypersonic speeds toward their target. Thereafter, they can maneuver unpredictably, making them very hard to detect, track, or shoot down. They can also fly lower than traditional ballistic missiles, avoiding many radar systems. This makes the Dark Eagle incredibly difficult to stop and gives almost no warning before impact. To this end, Dark Eagle fills something the U.S. Army calls the 'Goldilocks zone'. In other words, it is a weapon that hits harder and farther than tactical missiles (such as ATACMS), but is also more flexible than large strategic missiles. It is designed for roles such as destroying air defenses, missile launchers, command centers, logistics bases, and even mobile targets. It can also operate in A2/AD (Anti-Access/Area Denial) zones where enemies try to keep U.S. forces out. Such missiles also give commanders a first-strike capability, enabling them to strike fast and hard to prevent a larger war from breaking out. The Dark Eagle serves as a mobile, nearly unstoppable hypersonic weapon system, giving the U.S. Army the ability to strike quickly, deeply, and decisively against enemy forces, even in heavily defended areas. It is seen as the cornerstone of future warfare where speed, precision, and flexibility are critical.
Yahoo
an hour ago
- Yahoo
Down 36%, is this US growth stock about to surge again?
US growth stocks have largely been on a stellar run since the start of 2023. That certainly has been the case with Cellebrite DI (NASDAQ:CLBT), climbing by over 480% and reaching an all-time high in February. Yet since then, its performance has slipped a bit. Its 2024 fourth-quarter earnings missed the mark, as did its subsequent 2025 first-quarter results. And while the miss was small, growth inventors tend to be quite unforgiving towards businesses trading at lofty valuations. So seeing a 36% pullback from its February highs isn't a major surprise. However, with the stock now trading at a cheaper price, could this be a buying opportunity? As a quick crash course, Cellebrite specialises in digital forensics. In the corporate world, this technology can be handy when investigating cybersecurity breaches. But for the most part, demand for Cellebrite's technology actually comes from law enforcement agencies. An estimated 90% of crime today has some sort of digital element. As such, requests to decrypt mobile phones and other electronic devices used to commit crimes are creating a significant backlog for investigators and prosecutors – a migraine-level problem that Cellebrite is helping solve. Digging into the latest results, revenue growth continues to be explosive at 20% year-on-year, with annual recurring revenues climbing by 23% to $408m. And with a net retention rate of 121%, customers are clearly finding value in Cellebrite's technology as they're seemingly happy to ramp up spending each year. Sadly, that just wasn't enough to sate the appetite of growth investors who expected a little more top-line growth. And with management forecasting that sales might only grow by 17% for the full year of 2025, the stock endured a bit of a tumble. Even after its recent valuation hit, at a price-to-sales ratio of 8.8, Cellebrite shares can hardly be described as cheap. Yet projections from some analysts suggest that the premium might be worth paying. For example, JPMorgan currently has a share price target of $28 – around 70% higher than today's price. Such large 12-month projections should always be taken with a grain of salt. But Cellebrite's target market is expected to grow at a near-15% annualised rate over the next five years. And given the company's already the top dog in the sector, we might still be in the early days of Cellebrite's growth story – even more so now that profits have started to materialise. Having said that, there's no denying the high risk here. Cellebrite's technology is a powerful tool that can be easily abused if it gets into the wrong hands. This reputational risk is already being put to the test with reports of authoritarian regimes using the technology in human rights violations. Management's already tackling these issues with much stricter customer screening, disabling access when misuse is detected, as well as proactively suspending sales in over 60 countries. Nevertheless, ethical concerns will undoubtedly persist. Despite this risk, I remain an optimist. The valuation's still on the pricey side. But I think the premium might be worth paying, considering the opportunity that Cellebrite's seeking to capitalise on. That's why I've already used the recent stock price weakness to build a small position in my growth portfolio. The post Down 36%, is this US growth stock about to surge again? appeared first on The Motley Fool UK. More reading 5 Stocks For Trying To Build Wealth After 50 One Top Growth Stock from the Motley Fool Zaven Boyrazian has positions in Cellebrite. The Motley Fool UK has recommended Cellebrite. Views expressed on the companies mentioned in this article are those of the writer and therefore may differ from the official recommendations we make in our subscription services such as Share Advisor, Hidden Winners and Pro. Here at The Motley Fool we believe that considering a diverse range of insights makes us better investors. Motley Fool UK 2025 Error while retrieving data Sign in to access your portfolio Error while retrieving data Error while retrieving data Error while retrieving data Error while retrieving data
Yahoo
2 hours ago
- Yahoo
Soft metal solid-state battery mimics biology, could drive EVs 500 miles per charge
Researchers at Georgia Tech have developed a new metal combination that could transform the future of solid-state batteries. By blending lithium with a soft, surprising element, sodium, the team has found a way to reduce the pressure needed for these batteries to operate significantly. This innovation could lead to lighter, longer-lasting power sources for everything from smartphones to electric vehicles. The findings were published by the lab of Matthew McDowell, a professor in Georgia Tech's School of Mechanical Engineering and the School of Materials Science and Engineering. His group has also filed for a patent on the breakthrough. Solid-state batteries promise greater energy density and better safety than lithium-ion ones. They use a solid electrolyte instead of a flammable liquid, making them more stable. However, they often require high pressure to work. The metal plates needed to apply that pressure are often heavier and bulkier than the battery itself. 'A solid-state battery usually requires metal plates to apply this high pressure, and those plates can be bigger than the battery itself,' McDowell said. 'This makes the battery too heavy and bulky to be effective.' That challenge has kept solid-state batteries from reaching widespread use, despite years of research and hype. The team, led by Georgia Tech research scientist Sun Geun Yoon, found that adding sodium to lithium changes the game. Sodium is not active in the battery's electrochemical process, but its softness plays a key role. 'Adding sodium metal is the breakthrough,' McDowell said. 'It seems counterintuitive because sodium is not active in the battery system, but it's very soft, which helps improve the performance of the lithium.' Sodium's softness is no exaggeration. In a controlled setting, someone could press a gloved finger into the metal and leave a mark. When paired with lithium, it deforms easily under lower pressure, keeping better contact with the solid electrolyte. This improves overall battery performance. To understand why sodium-lithium batteries perform better, the team turned to biology. Specifically, they used the concept of morphogenesis — the way biological structures evolve based on local conditions. Morphogenesis is rare in materials science. But in this case, the interaction between sodium and lithium followed this pattern. The researchers saw that sodium behaved like a deformable phase, adjusting to structural changes during battery use. McDowell's team developed this concept under a project funded by the Defense Advanced Research Projects Agency (DARPA), alongside other universities. The implications of this research are broad. It could lead to phone batteries that last far longer or electric vehicles capable of going 500 miles on a single charge. The ability to reduce the pressure requirement without sacrificing energy capacity opens new possibilities for scaling solid-state batteries. While challenges remain before commercialization, McDowell's group continues to test new materials. Their goal is to make solid-state batteries more competitive with the lithium-ion standard. If successful, this shift could mark a major leap in battery technology. The study is published in the journal Science.