Author name: DJ Henderson

insurers-balk-at-paying-out-huge-settlements-for-claims-against-ai-firms

Insurers balk at paying out huge settlements for claims against AI firms

OpenAI is currently being sued for copyright infringement by The New York Times and authors who claim their content was used to train models without consent. It is also being sued for wrongful death by the parents of a 16-year-old who died by suicide after discussing methods with ChatGPT.

Two people with knowledge of the matter said OpenAI has considered “self insurance,” or putting aside investor funding in order to expand its coverage. The company has raised nearly $60 billion to date, with a substantial amount of the funding contingent on a proposed corporate restructuring.

One of those people said OpenAI had discussed setting up a “captive”—a ringfenced insurance vehicle often used by large companies to manage emerging risks. Big tech companies such as Microsoft, Meta, and Google have used captives to cover Internet-era liabilities such as cyber or social media.

Captives can also carry risks, since a substantial claim can deplete an underfunded captive, leaving the parent company vulnerable.

OpenAI said it has insurance in place and is evaluating different insurance structures as the company grows, but does not currently have a captive and declined to comment on future plans.

Anthropic has agreed to pay $1.5 billion to settle a class-action lawsuit with authors over their alleged use of pirated books to train AI models.

In court documents, Anthropic’s lawyers warned the suit carried the specter of “unprecedented and potentially business-threatening statutory damages against the smallest one of the many companies developing [AI] with the same books data.”

Anthropic, which has raised more than $30 billion to date, is partly using its own funds for the settlement, according to one person with knowledge of the matter. Anthropic declined to comment.

© 2025 The Financial Times Ltd. All rights reserved. Not to be redistributed, copied, or modified in any way.

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Google confirms Android dev verification will have free and paid tiers, no public list of devs

A lack of trust

Google has an answer for the most problematic elements of its verification plan, but anywhere there’s a gap, it’s easy to see a conspiracy. Why? Well, let’s look at the situation in which Google finds itself.

The courts have ruled that Google acted illegally to maintain a monopoly in the Play Store—it worked against the interests of developers and users for years to make Google Play the only viable source of Android apps, and for what? The Play Store is an almost unusable mess of sponsored search results and suggested apps, most of which are little more than in-app purchase factories that deliver Google billions of dollars every year.

Google has every reason to protect the status quo (it may take the case all the way to the Supreme Court), and now it has suddenly decided the security risk of sideloaded apps must be addressed. The way it’s being addressed puts Google in the driver’s seat at a time when alternative app stores may finally have a chance to thrive. It’s all very convenient for Google.

Developers across the Internet are expressing wariness about giving Google their personal information. Google, however, has decided anonymity is too risky. We now know a little more about how Google will manage the information it collects on developers, though. While Play Store developer information is listed publicly, the video confirms there will be no public list of sideload developers. However, Google will have the information, and that means it could be demanded by law enforcement or governments.

The current US administration has had harsh words for apps like ICEBlock, which it successfully pulled from the Apple App Store. Google’s new centralized control of app distribution would allow similar censorship on Android, and the real identities of those who developed such an app would also be sitting in a Google database, ready to be subpoenaed. A few years ago, developers might have trusted Google with this data, but now? The goodwill is gone.

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Illinois utility tries using electric school buses for bidirectional charging


Thank you driver for getting me here

School buses are usually parked when the grid is under its biggest strain.

The Thomas C2 Jouley is a popular electric school bus. Credit: Thomas Built Buses

The largest electric utility in Illinois is rolling out a program for a vehicle-to-grid (V2G) electric school bus-charging pilot with three Chicagoland school districts, testing the functionality of bidirectional chargers that could make energy cheaper for customers and reduce grid load.

The Commonwealth Edison Co. (ComEd) announced in September that it would begin the testing phase of its novel V2G electric school bus charging pilot, the first of its kind in northern Illinois, coinciding with the beginning of the school year.

The utility began testing with the River Trails, Troy, and Wauconda school districts—which have all had electric buses for more than two years—in northern Illinois. It is currently collecting data from bidirectional chargers, EV chargers that flow energy both ways. Its testing will determine how the chargers and buses can best transfer energy when parked and plugged into the grid.

“We’re not only working with these three school districts, we’re testing with them, but we’re also seeking input from other school districts to better understand their interest in V2G and how we could support their needs as we design new research and development efforts and potentially new programs,” said Cristina Botero, senior manager for beneficial electrification at ComEd.

According to the utility, bidirectional charging could result in a number of benefits, such as reducing grid demand during peak hours; lowering costs and energy usage for customers; and funding school districts that participate in the program. Botero said the goal is to eventually have a scalable model for the V2G program that other districts across Illinois could opt into “later down the line.”

The testing is beginning with four electric school buses across the three districts. ComEd began soft testing the pilot in June before publicly testing with the school districts in September, prioritizing research and development on the functionality of the chargers.

“School buses in general tend to be stationary during times where normally the grid is at its biggest strain,” Botero said. “[When] the grid is most loaded, that happens to be the time where many of these vehicles are not in use and happen to be connected and fully charged. This offers the possibility of using some of the energy in that battery to send back to the grid to support grid congestion,” she said.

Botero added that this can even be helpful during outages, because energy stored in electric school bus chargers can still be used. Participating school districts could also see their energy consumption and costs drop.

“It is helping potentially reduce the energy consumption of a school if it’s able to use its own battery for its own consumption. It can also reduce the cost of energy for the school, and really to all customers, because it’s reducing grid strain,” Botero said.

The pilot is part of ComEd’s $231 million beneficial electrification (BE) program, approved by the Illinois Commerce Commission. In 2021, Illinois passed the Climate and Equitable Jobs Act, which required all major utilities to establish a BE plan. ComEd’s first BE plan, spanning 2023 to 2025, consists of eight pilot programs in which the company has invested $11 million, including the V2G pilot.

The commission recently approved $168 million in funding for the next BE plan from 2026 to 2028, which includes an additional $11 million for research and development efforts that will include V2G.

ComEd partnered with software company Resource Innovations and charging vendor Nuvve for the pilot. The current testing phase, Botero said, is technology-based and focuses on determining how the technology works and how energy discharge impacts the grid.

Nuvve owns and operates the bidirectional charging technology and identified the customers to bring to the pilot.

“When you have an electric school bus, you have a fairly large battery inside that vehicle that is going to be doing nothing most of the time,” said Hamza Lemsaddek, chief operating officer at the Nuvve subsidiary Fermata Energy, which oversees the project. “The concept of V2G is, number one, the ability of not just charging the vehicle, but also discharging the vehicle [with] this bidirectional piece. The second step is to have a platform that is able to aggregate a large number of vehicles, and depending on where those vehicles are, provide a variety of grid services.”

Lemsaddek explained that the performance of the buses and chargers helps ComEd reduce their grid peak load. “By providing those grid services to help the grid be stable or more resilient, there is a value that you are providing, and therefore [Nuvve] can get compensated for that,” he said. “Then we share a lot of that value with the vehicle owner”—in this case, the school districts. “While the vehicle is parked doing nothing, it’s actually providing a service to the grid, and you get compensated for that.”

While the three districts are getting stipends for participation in the pilot, they were chosen because they already had electric school bus technology. The Wauconda school district, for example, has two electric school buses funded through a Driving a Cleaner Illinois grant, a program of the Volkswagen Environmental Mitigation Trust Fund.

Wauconda has had the two buses for three years, with two years of funding left. Rick Strauss, director of transportation for Wauconda, said that while he is hopeful for the success of the pilot, the electric buses have already posed significant challenges for the district, leading him to doubt whether the buses can effectively give back to the grid.

For example, Strauss said that the district will put an average of 10,000 miles on a diesel bus per year. “But after three years with our electric buses, with the amount of issues that we had, each one of them had less than 1,000 miles on them after two years of service,” he said, adding that the buses probably spent more time “on a tow truck” going to get fixed than on their actual routes.

Strauss also listed among the issues a lack of certified mechanics that can work on the buses when they break, frequent technological failures, and buses losing functionality in cold weather.

Although he said he recognizes the benefits of electric buses, such as quieter motors, better air quality for students, and less diesel fuel emissions, the lack of functionality of the buses overshadows potentially positive outcomes. After the five-year grant runs out, he’s not sure whether the district will continue to use them.

“It’ll be interesting to see the metrics and what we get back from ComEd versus what it costs to run these [buses],” he said, adding that the cost of two electric buses “would take my entire bus budget.”

ComEd is prioritizing testing the technology as well as anticipating challenges moving forward. Botero said the goal of the current testing is “making sure that the technology is well understood” and to answer any questions.

The companies are also determining the exact way to compensate school districts before further evaluations and eventual modeling to “see what a program would look like” at a larger scale.

Botero said that they will be getting results from the pilot testing at the end of the year and will design the next phase of the pilot based on those findings.

This story originally appeared on Inside Climate News.

Photo of Inside Climate News

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Blue Origin aims to land next New Glenn booster, then reuse it for Moon mission


“We fully intend to recover the New Glenn first stage on this next launch.”

New Glenn lifts off on its debut flight on January 16, 2025. Credit: Blue Origin

There’s a good bit riding on the second launch of Blue Origin’s New Glenn rocket.

Most directly, the fate of a NASA science mission to study Mars’ upper atmosphere hinges on a successful launch. The second flight of Blue Origin’s heavy-lifter will send two NASA-funded satellites toward the red planet to study the processes that drove Mars’ evolution from a warmer, wetter world to the cold, dry planet of today.

A successful launch would also nudge Blue Origin closer to winning certification from the Space Force to begin launching national security satellites.

But there’s more on the line. If Blue Origin plans to launch its first robotic Moon lander early next year—as currently envisioned—the company needs to recover the New Glenn rocket’s first stage booster. Crews will again dispatch Blue Origin’s landing platform into the Atlantic Ocean, just as they did for the first New Glenn flight in January.

The debut launch of New Glenn successfully reached orbit, a difficult feat for the inaugural flight of any rocket. But the booster fell into the Atlantic Ocean after three of the rocket’s engines failed to reignite to slow down for landing. Engineers identified seven changes to resolve the problem, focusing on what Blue Origin calls “propellant management and engine bleed control improvements.”

Relying on reuse

Pat Remias, Blue Origin’s vice president of space systems development, said Thursday that the company is confident in nailing the landing on the second flight of New Glenn. That launch, with NASA’s next set of Mars probes, is likely to occur no earlier than November from Cape Canaveral Space Force Station, Florida.

“We fully intend to recover the New Glenn first stage on this next launch,” Remias said in a presentation at the International Astronautical Congress in Sydney. “Fully intend to do it.”

Blue Origin, owned by billionaire Jeff Bezos, nicknamed the booster stage for the next flight “Never Tell Me The Odds.” It’s not quite fair to say the company’s leadership has gone all-in with their bet that the next launch will result in a successful booster landing. But the difference between a smooth touchdown and another crash landing will have a significant effect on Bezos’ Moon program.

That’s because the third New Glenn launch, penciled in for no earlier than January of next year, will reuse the same booster flown on the upcoming second flight. The payload on that launch will be Blue Origin’s first Blue Moon lander, aiming to become the largest spacecraft to reach the lunar surface. Ars has published a lengthy feature on the Blue Moon lander’s role in NASA’s effort to return astronauts to the Moon.

“We will use that first stage on the next New Glenn launch,” Remias said. “That is the intent. We’re pretty confident this time. We knew it was going to be a long shot [to land the booster] on the first launch.”

A long shot, indeed. It took SpaceX 20 launches of its Falcon 9 rocket over five years before pulling off the first landing of a booster. It was another 15 months before SpaceX launched a previously flown Falcon 9 booster for the first time.

With New Glenn, Blue’s engineers hope to drastically shorten the learning curve. Going into the second launch, the company’s managers anticipate refurbishing the first recovered New Glenn booster to launch again within 90 days. That would be a remarkable accomplishment.

Dave Limp, Blue Origin’s CEO, wrote earlier this year on social media that recovering the booster on the second New Glenn flight will “take a little bit of luck and a lot of excellent execution.”

On September 26, Blue Origin shared this photo of the second New Glenn booster on social media.

Blue Origin’s production of second stages for the New Glenn rocket has far outpaced manufacturing of booster stages. The second stage for the second flight was test-fired in April, and Blue completed a similar static-fire test for the third second stage in August. Meanwhile, according to a social media post written by Limp last week, the body of the second New Glenn booster is assembled, and installation of its seven BE-4 engines is “well underway” at the company’s rocket factory in Florida.

The lagging production of New Glenn boosters, known as GS1s (Glenn Stage 1s), is partly by design. Blue Origin’s strategy with New Glenn has been to build a small number of GS1s, each of which is more expensive and labor-intensive than SpaceX’s Falcon 9. This approach counts on routine recoveries and rapid refurbishment of boosters between missions.

However, this strategy comes with risks, as it puts the booster landings in the critical path for ramping up New Glenn’s launch rate. At one time, Blue aimed to launch eight New Glenn flights this year; it will probably end the year with two.

Laura Maginnis, Blue Origin’s vice president of New Glenn mission management, said last month that the company was building a fleet of “several boosters” and had eight upper stages in storage. That would bode well for a quick ramp-up in launch cadence next year.

However, Blue’s engineers haven’t had a chance to inspect or test a recovered New Glenn booster. Even if the next launch concludes with a successful landing, the rocket could come back to Earth with some surprises. SpaceX’s initial development of Falcon 9 and Starship was richer in hardware, with many boosters in production to decouple successful landings from forward progress.

Blue Moon

All of this means a lot is riding on an on-target landing of the New Glenn booster on the next flight. Separate from Blue Origin’s ambitions to fly many more New Glenn rockets next year, a good recovery would also mean an earlier demonstration of the company’s first lunar lander.

The lander set to launch on the third New Glenn mission is known as Blue Moon Mark 1, an unpiloted vehicle designed to robotically deliver up to 3 metric tons (about 6,600 pounds) of cargo to the lunar surface. The spacecraft will have a height of about 26 feet (8 meters), taller than the lunar lander used for NASA’s Apollo astronaut missions.

The first Blue Moon Mark 1 is funded from Blue Origin’s coffers. It is now fully assembled and will soon ship to NASA’s Johnson Space Center in Houston for vacuum chamber testing. Then, it will travel to Florida’s Space Coast for final launch preparations.

“We are building a series, not a singular lander, but multiple types and sizes and scales of landers to go to the Moon,” Remias said.

The second Mark 1 lander will carry NASA’s VIPER rover to prospect for water ice at the Moon’s south pole in late 2027. Around the same time, Blue will use a Mark 1 lander to deploy two small satellites to orbit the Moon, flying as low as a few miles above the surface to scout for resources like water, precious metals, rare Earth elements, and helium-3 that could be extracted and exploited by future explorers.

A larger lander, Blue Moon Mark 2, is in an earlier stage of development. It will be human-rated to land astronauts on the Moon for NASA’s Artemis program.

Blue Origin’s Blue Moon MK1 lander, seen in the center, is taller than NASA’s Apollo lunar lander, currently the largest spacecraft to have landed on the Moon. Blue Moon MK2 is even larger, but all three landers are dwarfed in size by SpaceX’s Starship. Credit: Blue Origin

NASA’s other crew-rated lander will be derived from SpaceX’s Starship rocket. But Starship and Blue Moon Mark 2 are years away from being ready to accommodate a human crew, and both require orbital cryogenic refueling—something never before attempted in space—to transit out to the Moon.

This has led to a bit of a dilemma at NASA. China is also working on a lunar program, eyeing a crew landing on the Moon by 2030. Many experts say that, as of today, China is on pace to land astronauts on the Moon before the United States.

Of course, 12 US astronauts walked on the Moon in the Apollo program. But no one has gone back since 1972, and NASA and China are each planning to return to the Moon to stay.

One way to speed up a US landing on the Moon might be to use a modified version of Blue Origin’s Mark 1 lander, Ars reported Thursday.

If this is the path NASA takes, the stakes for the next New Glenn launch and landing will soar even higher.

Photo of Stephen Clark

Stephen Clark is a space reporter at Ars Technica, covering private space companies and the world’s space agencies. Stephen writes about the nexus of technology, science, policy, and business on and off the planet.

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Japan is running out of its favorite beer after ransomware attack

According to cyber security experts at the Tokyo-based group Nihon Cyber Defence (NCD), Japanese companies are increasingly seen as attractive targets for ransomware attackers because of their poor defenses and the fact that many companies simply paid the demanded sum through back channels.

In 2024 Japan’s National Police Agency said it had received 222 official reports of ransomware attacks—a 12 percent rise from the previous year, but experts at NCD said it represented just a small fraction of the real volume of attacks.

In a survey conducted by the agency, Japanese companies said that in 49 percent of ransomware cases, it took at least a month to recover the data lost in the attack. Asahi said in a statement that there was no confirmed leakage of customer data to external parties.

In a measure of growing public and private sector panic over cyber vulnerabilities, Japan passed a law in May that granted the government greater rights to proactively combat cyber criminals and state-sponsored hackers. The chair of the government’s policy research council at the time, Itsunori Onodera, warned that without an urgent upgrade of the nation’s cyber security, “the lives of Japanese people will be put at risk.”

Asahi, whose shares fell 2.6 percent on Thursday, not only produces Super Dry beer in Japan but also soft drinks, mints, and baby food, as well as producing own brand goods for Japanese retailers.

Asahi is still investigating whether it was a ransomware attack, according to a spokesperson.

As a result of the cyber attack, Asahi has postponed the planned launch of eight new Asahi products, including fruit soda, lemon-flavored ginger ale, and protein bars, indefinitely.

On Wednesday, Asahi trialled using paper-based systems to process orders and deliveries in a small-scale trial and it is in the process of figuring out whether to proceed with more manual-style deliveries.

Operations in other regions of the world, such as Europe, where it sells Peroni Nastro Azzurro, have not been affected by the cyber attack.

© 2025 The Financial Times Ltd. All rights reserved. Not to be redistributed, copied, or modified in any way.

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How America fell behind China in the lunar space race—and how it can catch back up


Thanks to some recent reporting, we’ve found a potential solution to the Artemis blues.

A man in a suit speaks in front of a mural of the Moon landing.

NASA Administrator Jim Bridenstine says that competition is good for the Artemis Moon program. Credit: NASA

NASA Administrator Jim Bridenstine says that competition is good for the Artemis Moon program. Credit: NASA

For the last month, NASA’s interim administrator, Sean Duffy, has been giving interviews and speeches around the world, offering a singular message: “We are going to beat the Chinese to the Moon.”

This is certainly what the president who appointed Duffy to the NASA post wants to hear. Unfortunately, there is a very good chance that Duffy’s sentiment is false. Privately, many people within the space industry, and even at NASA, acknowledge that the US space agency appears to be holding a losing hand. Recently, some influential voices, such as former NASA Administrator Jim Bridenstine, have spoken out.

“Unless something changes, it is highly unlikely the United States will beat China’s projected timeline to the Moon’s surface,” Bridenstine said in early September.

As the debate about NASA potentially losing the “second” space race to China heats up in Washington, DC, everyone is pointing fingers. But no one is really offering answers for how to beat China’s ambitions to land taikonauts on the Moon as early as the year 2029. So I will. The purpose of this article is to articulate how NASA ended up falling behind China, and more importantly, how the Western world could realistically retake the lead.

But first, space policymakers must learn from their mistakes.

Begin at the beginning

Thousands of words could be written about the space policy created in the United States over the last two decades and all of the missteps. However, this article will only hit the highlights (lowlights). And the story begins in 2003, when two watershed events occurred.

The first of these was the loss of space shuttle Columbia in February, the second fatal shuttle accident, which signaled that the shuttle era was nearing its end, and it began a period of soul-searching at NASA and in Washington, DC, about what the space agency should do next.

“There’s a crucial year after the Columbia accident,” said eminent NASA historian John Logsdon. “President George W. Bush said we should go back to the Moon. And the result of the assessment after Columbia is NASA should get back to doing great things.” For NASA, this meant creating a new deep space exploration program for astronauts, be it the Moon, Mars, or both.

The other key milestone in 2003 came in October, when Yang Liwei flew into space and China became the third country capable of human spaceflight. After his 21-hour spaceflight, Chinese leaders began to more deeply appreciate the soft power that came with spaceflight and started to commit more resources to related programs. Long-term, the Asian nation sought to catch up to the United States in terms of spaceflight capabilities and eventually surpass the superpower.

It was not much of a competition then. China would not take its first tentative steps into deep space for another four years, with the Chang’e 1 lunar orbiter. NASA had already walked on the Moon and sent spacecraft across the Solar System and even beyond.

So how did the United States squander such a massive lead?

Mistakes were made

SpaceX and its complex Starship lander are getting the lion’s share of the blame today for delays to NASA’s Artemis Program. But the company and its lunar lander version of Starship are just the final steps on a long, winding path that got the United States where it is today.

After Columbia, the Bush White House, with its NASA Administrator Mike Griffin, looked at a variety of options (see, for example, the Exploration Systems Architecture Study in 2005). But Griffin had a clear plan in his mind that he dubbed “Apollo on Steroids,” and he sought to develop a large rocket (Ares V), spacecraft (later to be named Orion), and a lunar lander to accomplish a lunar landing by 2020. Collectively, this became known as the Constellation Program.

It was a mess. Congress did not provide NASA the funding it needed, and the rocket and spacecraft programs quickly ran behind schedule. At one point, to pay for surging Constellation costs, NASA absurdly mulled canceling the just-completed International Space Station. By the end of the first decade of the 2000s, two things were clear: NASA was going nowhere fast, and the program’s only achievement was to enrich the legacy space contractors.

By early 2010, after spending a year assessing the state of play, the Obama administration sought to cancel Constellation. It ran into serious congressional pushback, powered by lobbying from Boeing, Lockheed Martin, Northrop Grumman, and other key legacy contractors.

The Space Launch System was created as part of a political compromise between Sen. Bill Nelson (D-Fla.) and senators from Alabama and Texas.

Credit: Chip Somodevilla/Getty Images

The Space Launch System was created as part of a political compromise between Sen. Bill Nelson (D-Fla.) and senators from Alabama and Texas. Credit: Chip Somodevilla/Getty Images

The Obama White House wanted to cancel both the rocket and the spacecraft and hold a competition for the private sector to develop a heavy lift vehicle. Their thinking: Only with lower-cost access to space could the nation afford to have a sustainable deep space exploration plan. In retrospect, it was the smart idea, but Congress was not having it. In 2011, Congress saved Orion and ordered a slightly modified rocket—it would still be based on space shuttle architecture to protect key contractors—that became the Space Launch System.

Then the Obama administration, with its NASA leader Charles Bolden, cast about for something to do with this hardware. They started talking about a “Journey to Mars.” But it was all nonsense. There was never any there there. Essentially, NASA lost a decade, spending billions of dollars a year developing “exploration” systems for humans and talking about fanciful missions to the red planet.

There were critics of this approach, myself included. In 2014, I authored a seven-part series at the Houston Chronicle called Adrift, the title referring to the direction of NASA’s deep space ambitions. The fundamental problem is that NASA, at the direction of Congress, was spending all of its exploration funds developing Orion, the SLS rocket, and ground systems for some future mission. This made the big contractors happy, but their cost-plus contracts gobbled up so much funding that NASA had no money to spend on payloads or things to actually fly on this hardware.

This is why doubters called the SLS the “rocket to nowhere.” They were, sadly, correct.

The Moon, finally

Fairly early on in the first Trump administration, the new leader of NASA, Jim Bridenstine, managed to ditch the Journey to Mars and establish a lunar program. However, any efforts to consider alternatives to the SLS rocket were quickly rebuffed by the US Senate.

During his tenure, Bridenstine established the Artemis Program to return humans to the Moon. But Congress was slow to open its purse for elements of the program that would not clearly benefit a traditional contractor or NASA field center. Consequently, the space agency did not select a lunar lander until April 2021, after Bridenstine had left office. And NASA did not begin funding work on this until late 2021 due to a protest by Blue Origin. The space agency did not support a lunar spacesuit program for another year.

Much has been made about the selection of SpaceX as the sole provider of a lunar lander. Was it shady? Was the decision rushed before Bill Nelson was confirmed as NASA administrator? In truth, SpaceX was the only company that bid a value that NASA could afford with its paltry budget for a lunar lander (again, Congress prioritized SLS funding), and which had the capability the agency required.

To be clear, for a decade, NASA spent in excess of $3 billion a year on the development of the SLS rocket and its ground systems. That’s every year for a rocket that used main engines from the space shuttle, a similar version of its solid rocket boosters, and had a core stage the same diameter as the shuttle’s external tank. Thirty billion bucks for a rocket highly derivative of a vehicle NASA flew for three decades. SpaceX was awarded less than a single year of this funding, $2.9 billion, for the entire development of a Human Landing System version of Starship, plus two missions.

So yes, after 20 years, Orion appears to be ready to carry NASA astronauts out to the Moon. After 15 years, the shuttle-derived rocket appears to work. And after four years (and less than a tenth of the funding), Starship is not ready to land humans on the Moon.

When will Starship be ready?

Probably not any time soon.

For SpaceX and its founder, Elon Musk, the Artemis Program is a sidequest to the company’s real mission of sending humans to Mars. It simply is not a priority (and frankly, the limited funding from NASA does not compel prioritization). Due to its incredible ambition, the Starship program has also understandably hit some technical snags.

Unfortunately for NASA and the country, Starship still has a long way to go to land humans on the Moon. It must begin flying frequently (this could happen next year, finally). It must demonstrate the capability to transfer and store large amounts of cryogenic propellant in space. It must land on the Moon, a real challenge for such a tall vehicle, necessitating a flat surface that is difficult to find near the poles. And then it must demonstrate the ability to launch from the Moon, which would be unprecedented for cryogenic propellants.

Perhaps the biggest hurdle is the complexity of the mission. To fully fuel a Starship in low-Earth orbit to land on the Moon and take off would require multiple Starship “tanker” launches from Earth. No one can quite say how many because SpaceX is still working to increase the payload capacity of Starship, and no one has real-world data on transfer efficiency and propellant boiloff. But the number is probably at least a dozen missions. One senior source recently suggested to Ars that it may be as many as 20 to 40 launches.

The bottom line: It’s a lot. SpaceX is far and away the highest-performing space company in the Solar System. But putting all of the pieces together for a lunar landing will require time. Privately, SpaceX officials are telling NASA it can meet a 2028 timeline for Starship readiness for Artemis astronauts.

But that seems very optimistic. Very. It’s not something I would feel comfortable betting on, especially if China plans to land on the Moon “before” 2030, and the country continues to make credible progress toward this date.

What are the alternatives?

Duffy’s continued public insistence that he will not let China beat the United States back to the Moon rings hollow. The shrewd people in the industry I’ve spoken with say Duffy is an intelligent person and is starting to realize that betting the entire farm on SpaceX at this point would be a mistake. It would be nice to have a plan B.

But please, stop gaslighting us. Stop blustering about how we’re going to beat China while losing a quarter of NASA’s workforce and watching your key contractors struggle with growing pains. Let’s have an honest discussion about the challenges and how we’ll solve them.

What few people have done is offer solutions to Duffy’s conundrum. Fortunately, we’re here to help. As I have conducted interviews in recent weeks, I have always closed by asking this question: “You’re named NASA administrator tomorrow. You have one job: get NASA astronauts safely back to the Moon before China. What do you do?”

I’ve received a number of responses, which I’ll boil down into the following buckets. None of these strike me as particularly practical solutions, which underscores the desperation of NASA’s predicament. However, recent reporting has uncovered one solution that probably would work. I’ll address that last. First, the other ideas:

  • Stubby Starship: Multiple people have suggested this option. Tim Dodd has even spoken about it publicly. Two of the biggest issues with Starship are the need for many refuelings and its height, making it difficult to land on uneven terrain. NASA does not need Starship’s incredible capability to land 100–200 metric tons on the lunar surface. It needs fewer than 10 tons for initial human missions. So shorten Starship, reduce its capability, and get it down to a handful of refuelings. It’s not clear how feasible this would be beyond armchair engineering. But the larger problem is that Musk wants Starship to get taller, not shorter, so SpaceX would probably not be willing to do this.
  • Surge CLPS funding: Since 2019, NASA has been awarding relatively small amounts of funding to private companies to land a few hundred kilograms of cargo on the Moon. NASA could dramatically increase funding to this program, say up to $10 billion, and offer prizes for the first and second companies to land two humans on the Moon. This would open the competition to other companies beyond SpaceX and Blue Origin, such as Firefly, Intuitive Machines, and Astrobotic. The problem is that time is running short, and scaling up from 100 kilograms to 10 metric tons is an extraordinary challenge.
  • Build the Lunar Module: NASA already landed humans on the Moon in the 1960s with a Lunar Module built by Grumman. Why not just build something similar again? In fact, some traditional contractors have been telling NASA and Trump officials this is the best option, that such a solution, with enough funding and cost-plus guarantees, could be built in two or three years. The problem with this is that, sorry, the traditional space industry just isn’t up to the task. It took more than a decade to build a relatively simple rocket based on the space shuttle. The idea that a traditional contractor will complete a Lunar Module in five years or less is not supported by any evidence in the last 20 years. The flimsy Lunar Module would also likely not pass NASA’s present-day safety standards.
  • Distract China: I include this only for completeness. As for how to distract China, use your imagination. But I would submit that ULA snipers or starting a war in the South China Sea is not the best way to go about winning the space race.

OK, I read this far. What’s the answer?

The answer is Blue Origin’s Mark 1 lander.

The company has finished assembly of the first Mark 1 lander and will soon ship it from Florida to Johnson Space Center in Houston for vacuum chamber testing. A pathfinder mission is scheduled to launch in early 2026. It will be the largest vehicle to ever land on the Moon. It is not rated for humans, however. It was designed as a cargo lander.

There have been some key recent developments, though. About two weeks ago, NASA announced that a second mission of Mark 1 will carry the VIPER rover to the Moon’s surface in 2027. This means that Blue Origin intends to start a production line of Mark 1 landers.

At the same time, Blue Origin already has a contract with NASA to develop the much larger Mark 2 lander, which is intended to carry humans to the lunar surface. Realistically, though, this will not be ready until sometime in the 2030s. Like SpaceX’s Starship, it will require multiple refueling launches. As part of this contract, Blue has worked extensively with NASA on a crew cabin for the Mark 2 lander.

A full-size mock-up of the Blue Origin Mk. 1 lunar lander.

Credit: Eric Berger

A full-size mock-up of the Blue Origin Mk. 1 lunar lander. Credit: Eric Berger

Here comes the important part. Ars can now report, based on government sources, that Blue Origin has begun preliminary work on a modified version of the Mark 1 lander—leveraging learnings from Mark 2 crew development—that could be part of an architecture to land humans on the Moon this decade. NASA has not formally requested Blue Origin to work on this technology, but according to a space agency official, the company recognizes the urgency of the need.

How would it work? Blue Origin is still architecting the mission, but it would involve “multiple” Mark 1 landers to carry crew down to the lunar surface and then ascend back up to lunar orbit to rendezvous with the Orion spacecraft. Enough work has been done, according to the official, that Blue Origin engineers are confident the approach could work. Critically, it would not require any refueling.

It is unclear whether this solution has reached Duffy, but he would be smart to listen. According to sources, Blue Origin founder Jeff Bezos is intrigued by the idea. And why wouldn’t he be? For a quarter of a century, he has been hearing about how Musk has been kicking his ass in spaceflight. Bezos also loves the Apollo program and could now play an essential role in serving his country in an hour of need. He could beat SpaceX to the Moon and stamp his name in the history of spaceflight.

Jeff and Sean? Y’all need to talk.

Photo of Eric Berger

Eric Berger is the senior space editor at Ars Technica, covering everything from astronomy to private space to NASA policy, and author of two books: Liftoff, about the rise of SpaceX; and Reentry, on the development of the Falcon 9 rocket and Dragon. A certified meteorologist, Eric lives in Houston.

How America fell behind China in the lunar space race—and how it can catch back up Read More »

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The SUV that saved Porsche goes electric, and the tech is interesting


It will be most powerful production Porsche ever, but that’s not the cool bit.

Porsche Cayenne Electrics in the pit lane at the Porsche Experience Center in Leipzig

The next time we see the Cayenne Electric, it probably won’t be wearing fake body panels like the cars you see here. Credit: Jonathan Gitlin

The next time we see the Cayenne Electric, it probably won’t be wearing fake body panels like the cars you see here. Credit: Jonathan Gitlin

LEIPZIG, Germany—Porsche is synonymous with sports cars in which the engine lives behind the driver. From the company’s first open-top 356/1—which it let us drive a couple of years ago—to the latest stupendously clever 911 variants, these are the machines most of us associate with the Stuttgart-based brand. And indeed, the company has sold more than a million 911s since the model’s introduction in 1963. But here’s the bald truth: It’s the SUVs that keep the lights on. Without their profit, there would be no money to develop the next T-Hybrid or GT3. The first Cayenne was introduced just 23 years ago; since then, Porsche has sold more than 1.5 million of them. And the next one will be electric.

Of course, this won’t be Porsche’s first electric SUV. That honor goes to the electric Macan, which is probably becoming a more common sight on the streets in more well-heeled neighborhoods. Like the Macan, the Cayenne Electric is based on Volkswagen Group’s Premium Platform Electric, but this is no mere scaled-up Macan.

“It’s not just a product update; it’s a complete new chapter in the story,” said Sajjad Khan, a member of Porsche’s management board in charge of car IT.

Compared to the Macan, there’s an all-new battery pack design, not to mention more efficient and powerful electric motors. Inside, the cockpit is also new, with OLED screens for the main instrument panel and a curved infotainment display that will probably dominate the discussion.

We were given a passenger ride in the most powerful version of the Cayenne Electric, which is capable of brutal performance. Porsche

In fact, Ars already got behind the wheel of the next Cayenne during a development drive in the US earlier this summer. But we can now tell you about the tech behind the camouflaged body panels.

OLED me tell you about my screens

Although the 14.25-inch digital main instrument display looks pretty similar to the one you’ll find in most modern Porsches, all of the hardware for the Cayenne Electric is new and now uses an OLED panel. The curved central 12.25-inch infotainment screen is also an OLED panel, which keeps customizable widgets on its lower third and allows for a variety of content on the upper portion, including Android Auto or Apple CarPlay. The UI has taken cues from iOS, but it retains a look and feel that’s consistent with other Porsches.

The bottom of the infotainment screen has some persistent icons for things like seat heaters, but there are at least dedicated physical controls for the climate temperature and fan speed, the demisters, and the volume control.

The interior is dominated by new OLED screens. Porsche

New battery

At the heart of the new Cayenne Electric is an all-new 113 kWh battery pack (108 kWh net) that Porsche describes as “functionally integrated” into the car. Unlike previous PPE-based EVs (like the Macan or the Audi Q6) there’s no frame around the pack. Instead, it’s composed of six modules, each housed in its own protective case and bolted to the chassis.

The module cases provide the same kind of added stiffness as a battery frame might, but without devoting so much interior volume (and also mass) to the structure as opposed to the cells. Consequently, energy density is increased by around seven percent compared to the battery in the Taycan sedan.

Inside each module are four small packs, each comprising eight pouch cells connected in series. A new cooling system uses 15 percent less energy, and a new predictive thermal management system uses cloud data to condition the battery during driving and charging. (Porsche says the battery will still condition itself during a loss of connectivity but with less accuracy from the model.)

This all translates into greater efficiency. The pack is able to DC fast charge at up to 400 kW, going from 10 to 80 percent in as little as 16 minutes. Impressively, the curve actually slopes upward a little, only beginning to ramp down once the state of charge passes 55 percent. Even so, it will still accept 270 kW until hitting 70 percent SoC. For those looking for a quick plug-and-go option, Porsche told us you can expect to add 30 kWh in the first five minutes.

An illustration of the Porsche Cayenne Electric battery pack. Porsche

You’ll find a NACS port for DC charging on one side and a J1772 port for AC on the other. Porsche thinks many Cayenne Electric customers will opt for the 11 kW inductive charging pad at home instead of bothering with a plug. This uses Wi-Fi to detect the car’s proximity and will guide you onto the pad, with charging occurring seamlessly. (Unlike your consumer electronic experience, inductive charging for EVs is only a few percent less efficient than using a cable.)

The most powerful production Porsche yet

Less-powerful Cayenne Electrics are in the works, but the one Porsche was ready to talk about was the mighty Turbo, which will boast more torque and power output than any other regular-series production Porsche. The automaker is a little coy on the exact output, but expect nominal power to be more than 804 hp (600 kW). Not enough? The push-to-pass button on the steering wheel ups that to more than 938 hp (700 kW) for bursts of up to 10 seconds.

Still not enough? Engage launch control, which raises power to more than 1,072 hp (800 kW). Let me tell you, that feels brutal when you’re sitting in the passenger seat as the car hits 62 mph (100 km/h) in less than three seconds and carries on to 124 mph (200 km/h) in under eight seconds. This is a seriously quick SUV, despite a curb weight in excess of 5,500 lbs (2.5 tonnes).

A new rear drive unit helps make that happen. (Up front is a second drive unit we’ve seen in the Macan.) Based on lessons learned from the GT4 ePerformance (a technology test bed for a potential customer racing EV), the unit directly cools the stator with a non-conductive oil and benefits from some Formula E-derived tech (like silicon carbide inverters) that pushes the motor efficiency to 98 percent.

A very low center of gravity helps bank angles. Jonathan Gitlin

Regenerative braking performance is even more impressive than fast charging—this SUV will regen up to 600 kW, and the friction brakes won’t take over until well past 0.5 Gs of deceleration. Only around three percent of braking events will require the friction brakes to do their thing—in this case, they’re standard carbon ceramics that save weight compared to conventional iron rotors, which again translates to improved efficiency.

Sadly, you need to push the brake pedal to get all that regen. Deep in the heart of the company, key decision makers remain philosophically opposed to the concept of one-pedal driving, so the most lift-off regen you’ll experience will be around 0.15 Gs. I remain unconvinced that this is the correct decision; as a software-defined vehicle, it’s perfectly possible to have a one-pedal driving setting, and Porsche could offer this as an option for drivers to engage, like many other EVs out there.

While we might have had to test the 911 GTS’s rough-road ability this summer, the Cayenne is positively made for that kind of thing. There are drive modes for gravel/sand, ice, and rocks, and plenty of wheel articulation thanks to the absence of traditional antiroll bars. It’s capable of fording depths of at least a foot (0.35 m), and as you can see from some of the photos, it will happily drive along sloped banks at angles that make passengers look for the grab handles.

A new traction management system helps here, and its 5 ms response time makes it five times faster than the previous iteration.

The big SUV’s agility on the handling track was perhaps even more remarkable. It was actually nauseating at times, given the brutality with which it can accelerate, brake, and change direction. There’s up to 5 degrees of rear axle steering, with a higher speed threshold for turning opposite the front wheels, up to 62 mph (reducing the turning circle); above that speed, the rear wheels turn with the fronts to improve high-speed lane change stability.

The suspension combines air springs and hydraulic adaptive dampers, and like the Panamera we recently tested, comfort mode can enable an active ride comfort mode that counteracts weight transfer during cornering, accelerating, and braking to give passengers the smoothest ride possible.

More detailed specs will follow in time. As for pricing, expect it to be similar or slightly more than the current Cayenne pricing.

Photo of Jonathan M. Gitlin

Jonathan is the Automotive Editor at Ars Technica. He has a BSc and PhD in Pharmacology. In 2014 he decided to indulge his lifelong passion for the car by leaving the National Human Genome Research Institute and launching Ars Technica’s automotive coverage. He lives in Washington, DC.

The SUV that saved Porsche goes electric, and the tech is interesting Read More »

senators-try-to-halt-shuttle-move,-saying-“little-evidence”-of-public-demand

Senators try to halt shuttle move, saying “little evidence” of public demand

“Houston’s disappointment in not being selected is wholly understandable,” the four senators wrote, “but removing an item from the National Collection is not a viable solution.”

In July, Cornyn and Cruz successfully added language to the “One Big Beautiful Bill Act” championed by President Donald Trump, which enabled acting NASA Administrator Sean Duffy to then identify Discovery for relocation. The provision also called for $85 million to be made available to transport and display the shuttle in Houston.

“There are also profound financial challenges associated with this transfer,” wrote Kelly. Warner, Kaine, and Durbin. “The Smithsonian estimates that transporting Discovery from Virginia to Houston could cost more than $50 million, with another $325 million needed for planning, exhibit reconstruction, and new facilities.”

“Dedicating hundreds of millions of taxpayer dollars to move an artifact that is already housed, displayed, and preserved in a world-class facility is both inefficient and unjustifiable,” the senators wrote.

Risks and rewards

Then there are the logistical challenges with relocating Discovery, which could result in damaging it, “permanently diminishing its historical and cultural value for future generations.”

“Moving Discovery by barge or road would be far more complex [than previous shuttle moves], exposing it to saltwater, weather, and collision risks across a journey several times longer,” the letter reads. “As a one-of-a-kind artifact that has already endured the stresses of spaceflight, Discovery is uniquely vulnerable to these hazards. The heat tiles that enabled repeated shuttle missions become more fragile with age, and they are irreplaceable.”

Kelly, who previously lived in Houston when he was part of the space program, agrees that the city is central to NASA’s human spaceflight efforts, but, along with Warner, Kaine, and Durbin, points out that displaying Discovery would come with another cost: an admission fee, limiting public access to the shuttle.

“The Smithsonian is unique among museums for providing visitors with access to a national treasure meant to inspire the American public without placing economic barriers,” wrote the senators.

Under the terms of the act, NASA has until January 4, 2027 (18 months after the bill’s enactment) to transfer Discovery to Space Center Houston. For its part, the Smithsonian says that it owns the title to Discovery and, as the institution is not part of the federal government, the orbiter is no longer the government’s to move.

Senators try to halt shuttle move, saying “little evidence” of public demand Read More »

lg’s-$1,800-tv-for-seniors-makes-misguided-assumptions

LG’s $1,800 TV for seniors makes misguided assumptions

LG is looking to create a new market: TVs for senior citizens. However, I can’t help thinking that the answer for a TV that truly prioritizes the needs of older people is much simpler—and cheaper.

On Thursday, LG announced the Easy TV in South Korea, aiming it at the “senior TV market,” according to a Google translation of the press release. One of the features that LG has included in attempts to appeal to this demographic is a remote control with numbers. Many remotes for smart TVs, streaming sticks, and boxes don’t have numbered buttons, with much of the controller’s real estate dedicated to other inputs.

The Easy TV's remote.

The Easy TV’s remote.

Credit: LG

The Easy TV’s remote. Credit: LG

LG released a new version of its Magic Remote in January with a particularly limited button selection that is likely to confuse or frustrate newcomers. In addition to not having keys for individual numbers, there are no buttons for switching inputs, play/pause, or fast forward/rewind.

LG AI remote

LG’s 2025 Magic Remote.

LG’s 2025 Magic Remote. Credit: Tom’s Guide/YouTube

The Easy TV’s remote has all of those buttons, plus mute, zoom, and bigger labels. The translated press release also highlights a button that sounds like “back” and says that seniors can push it to quickly return to the previous broadcast. The company framed it as a way for users to return to what they were watching after something unexpected occurs, such as an app launching accidentally or a screen going dark after another device is plugged into the TV.

You’ll also find the same sort of buttons that you typically find with new smart TV remotes these days, including buttons for launching specific streaming services.

Beyond the remote, LG tweaked its operating system for TVs, webOS, to focus on “five senior-focused features and favorite apps” and use a larger font, the translated announcement said.

Some Easy TV features are similar to those available on LG’s other TVs, but tailored to use cases that LG believes seniors are interested in. For instance, LG says seniors can use a reminder feature for medication alerts, set up integrated video calling features to quickly connect with family members who can assist with TV problems or an emergency, and play built-in games aimed at brain health.

LG’s $1,800 TV for seniors makes misguided assumptions Read More »

sierra’s-dream-chaser-is-starting-to-resemble-a-nightmare

Sierra’s Dream Chaser is starting to resemble a nightmare

However, in its news release, NASA said it is no longer obligated to a specific number of resupply missions.

Chasing those defense dollars

In its own statement on the announcement, Sierra Space said the new approach will provide it with more “flexibility” as the company seeks to attract national defense contracts.

“Dream Chaser represents the future of versatile space transportation and mission flexibility,” said Fatih Ozmen, executive chair at Sierra Space, in the statement. “This transition provides unique capabilities to meet the needs of diverse mission profiles, including emerging and existential threats and national security priorities that align with our acceleration into the Defense Tech market.”

Although the NASA news release does not detail the space agency’s concerns about allowing Dream Chaser to approach the station, sources have told Ars the space agency has yet to certify the spacecraft’s propulsion system. The spacecraft is powered by more than two dozen small rocket engines, each capable of operating at three discrete levels of thrust for fine control or more significant orbit adjustments. Certification is a necessary precursor for allowing a vehicle to approach the orbiting laboratory.

Sierra said it is now targeting a “late 2026” debut for Dream Chaser, but that date is far enough in the future that it is likely subject to Berger’s Law, and probably means no earlier than 2027. This all but precludes a cargo mission to the International Space Station, which is scheduled to be deorbited in 2030, and presently has two more-than-capable supply vehicles with SpaceX’s Dragon and Northrop’s new, larger Cygnus.

It is possible that Dream Chaser could serve a future market of commercial space stations in low-Earth orbit, but to do so, Sierra will have to get the vehicle flying reliably, frequently, and at a relatively low cost to compete with Dragon and Cygnus. Those are big hurdles for a spacecraft that is now many years behind schedule and no longer has any guaranteed government missions.

Sierra’s Dream Chaser is starting to resemble a nightmare Read More »

apple-iphone-17-review:-sometimes-boring-is-best

Apple iPhone 17 review: Sometimes boring is best


let’s not confuse “more interesting” with “better”

The least exciting iPhone this year is also the best value for the money.

The iPhone 17 Pro isn’t flashy but it’s probably the best of this year’s upgrades. Credit: Andrew Cunningham

The iPhone 17 Pro isn’t flashy but it’s probably the best of this year’s upgrades. Credit: Andrew Cunningham

Apple seems determined to leave a persistent gap between the cameras of its Pro iPhones and the regular ones, but most other features—the edge-to-edge-screen design with FaceID, the Dynamic Island, OLED display panels, Apple Intelligence compatibility—eventually trickle down to the regular-old iPhone after a generation or two of timed exclusivity.

One feature that Apple has been particularly slow to move down the chain is ProMotion, the branding the company uses to refer to a screen that can refresh up to 120 times per second rather than the more typical 60 times per second. ProMotion isn’t a necessary feature, but since Apple added it to the iPhone 13 Pro in 2021, the extra fluidity and smoothness, plus the always-on display feature, have been big selling points for the Pro phones.

This year, ProMotion finally comes to the regular-old iPhone 17, years after midrange and even lower-end Android phones made the swap to 90 or 120 Hz display panels. And it sounds like a small thing, but the screen upgrade—together with a doubling of base storage from 128GB to 256GB—makes the gap between this year’s iPhone and iPhone Pro feel narrower than it’s been in a long time. If you jumped on the Pro train a few years back and don’t want to spend that much again, this might be a good year to switch back. If you’ve ever been tempted by the Pro but never made the upgrade, you can continue not doing that and miss out on relatively little.

The iPhone 17 has very little that we haven’t seen in an iPhone before, compared to the redesigned Pro or the all-new Air. But it’s this year’s best upgrade, and it’s not particularly close.

You’ve seen this one before

Externally, the iPhone 17 is near-identical to the iPhone 16, which itself used the same basic design Apple had been using since the iPhone 12. The most significant update in that five-year span was probably the iPhone 15, which switched from the display notch to the Dynamic Island and from the Lightning port to USB-C.

The iPhone 12 generation was also probably the last time the regular iPhone and the Pro were this similar. Those phones used the same basic design, the same basic chip, and the same basic screen, leaving mostly camera-related improvements and the Max model as the main points of differentiation. That’s all broadly true of the split between the iPhone 17 and the 17 Pro, as well.

The iPhone Air and Pro both depart from the last half-decade of iPhone designs in different ways, but the iPhone 17 sticks with the tried-and-true. Credit: Andrew Cunningham

The iPhone 17’s design has changed just enough since last year that you’ll need to find a new iPhone 17-compatible case and screen protector for your phone rather than buying something that fits a previous-generation model (it’s imperceptibly taller than the iPhone 16). The screen size has been increased from 6.1 inches to 6.3, the same as the iPhone Pro. But the aluminum-framed-glass-sandwich design is much less of a departure from recent precedent than either the iPhone Air or the Pro.

The screen is the real star of the show in the iPhone 17, bringing 120 Hz ProMotion technology and the Pro’s always-on display feature to the regular iPhone for the first time. According to Apple’s spec sheets (and my eyes, admittedly not a scientific measurement), the 17 and the Pro appear to be using identical display panels, with the same functionally infinite contrast, resolution (2622 x 1206), and brightness specs (1,000 nits typical, 1,600 nits for HDR, 3,000 nits peak in outdoor light).

It’s easy to think of the basic iPhone as “the cheap one” because it is the least expensive of the four new phones Apple puts out every year, but $799 is still well into premium-phone range, and even middle-of-the-road phones from the likes of Google and Samsung have been shipping high-refresh-rate OLED panels in cheaper phones than this for a few years now. By that metric, it’s faintly ridiculous that Apple isn’t shipping something like this in its $600 iPhone 16e, but in Apple’s ecosystem, we’ll take it as a win that the iPhone 17 doesn’t cost more than the 16 did last year.

Holding an iPhone 17 feels like holding any other regular-sized iPhone made within the last five years, with the exceptions of the new iPhone Air and some of the heavier iPhone Pros. It doesn’t have the exceptionally good screen-size-to-weight ratio or the slim profile of the Air, and it doesn’t have the added bulk or huge camera plateau of the iPhone 17 Pro. It feels about like it looks: unremarkable.

Camera

iPhone 15 Pro, main lens, 1x mode, outdoor light. If you’re just shooting with the main lens, the Air and iPhone 17 win out in color and detail thanks to a newer sensor and ISP. Andrew Cunningham

The iPhone Air’s single camera has the same specs and uses the same sensor as the iPhone 17’s main camera, so we’ve already written a bit about how well it does relative to the iPhone Pro and to an iPhone 15 Pro from a couple of years ago.

Like the last few iPhone generations, the iPhone 17’s main camera uses a 48 MP sensor that saves 24 MP images, using a process called “pixel binning” to decide which pixels are saved and which are discarded when shrinking the images down. To enable an “optical quality” 2x telephoto mode, Apple crops a 12 MP image out of the center of that sensor without doing any resizing or pixel binning. The results are a small step down in quality from the regular 1x mode, but they’re still native resolution images with no digital zoom, and the 2x mode on the iPhone Air or iPhone 17 can actually capture fine detail better than an older iPhone Pro in situations where you’re shooting an object that’s close by and the actual telephoto lens isn’t used.

The iPhone 15 Pro. When you shoot a nearby subject in 2x or even 3x mode, the Pro phones give you a crop of the main sensor rather than switching to the telephoto lens. You need to be farther from your subject for the phone to engage the telephoto lens. Andrew Cunningham

One improvement to the iPhone 17’s camera sensor this year is that the ultrawide camera is also upgraded to a 48 MP sensor so it can benefit from the same shrinking-and-pixel-binning strategy Apple uses for the main camera. In the iPhone 16, this secondary sensor was still just 12 MP.

Compared to the iPhone 15 Pro and iPhone 16 we have here, wide shots on the iPhone 17 benefit mainly from the added detail you capture in higher-resolution 24 or 48 MP images. The difference is slightly more noticeable with details in the background of an image than details in the foreground, as visible in the Lego castle surrounding Lego Mario.

The older the phone you’re using is, the more you’ll benefit from sensor and image signal processing improvements. Bits of dust and battle damage on Mario are most distinct on the iPhone 17 than the iPhone 15 Pro, for example, but aside from the resolution, I don’t notice much of a difference between the iPhone 16 and 17.

A true telephoto lens is probably the biggest feature the iPhone 17 Pro has going for it relative to the basic iPhone 17, and Apple has amped it up with its own 48 MP sensor this year. We’ll reuse the 4x and 8x photos from our iPhone Air review to show you what you’re missing—the telephoto camera captures considerably more fine detail on faraway objects, but even as someone who uses the telephoto on the iPhone 15 Pro constantly, I would have to think pretty hard about whether that camera is worth $300, even once you add in the larger battery, ProRAW support, and other things Apple still holds back for the Pro phones.

Specs and speeds and battery

Our iPhone Air review showed that the main difference between the iPhone 17’s Apple A19 chip and the A19 Pro used in the iPhone Air and iPhone Pro is RAM. The iPhone 17 sticks with 8GB of memory, whereas both Air and Pro are bumped up to 12GB.

There are other things that the A19 Pro can enable, including ProRes video support and 10Gbps USB 3 file transfer speeds. But many of those iPhone Pro features, including the sixth GPU core, are mostly switched off for the iPhone Air, suggesting that we could actually be looking at the exact same silicon with a different amount of RAM packaged on top.

Regardless, 8GB of RAM is currently the floor for Apple Intelligence, so there’s no difference in features between the iPhone 17 and the Air or the 17 Pro. Browser tabs and apps may be ejected from memory slightly less frequently, and the 12GB phones may age better as the years wear on. But right now, 8GB of memory puts you above the amount that most iOS 26-compatible phones are using—Apple is still optimizing for plenty of phones with 6GB, 4GB, or even 3GB of memory. 8GB should be more than enough for the foreseeable future, and I noticed zero differences in day-to-day performance between the iPhone 17 and the iPhone Air.

All phones were tested with Adaptive Power turned off.

The iPhone 17 is often actually faster than the iPhone Air, despite both phones using five-core A19-class GPUs. Apple’s thinnest phone has less room to dissipate heat, which leads to more aggressive thermal throttling, especially for 3D apps like games. The iPhone 17 will often outperform Apple’s $999 phone, despite costing $200 less.

All of this also ignores one of the iPhone 17’s best internal upgrades: a bump from 128GB of storage to 256GB of storage at the same $799 starting price as the iPhone 16. Apple’s obnoxious $100-or-$200-per-tier upgrade pricing for storage and RAM is usually the worst part about any of its products, so any upgrade that eliminates that upcharge for anyone is worth calling out.

On the battery front, we didn’t run specific tests, but the iPhone 17 did reliably make it from my typical 7: 30 or 7: 45 am wakeup to my typical 1: 00 or 1: 30 am bedtime with 15 or 20 percent leftover. Even a day with Personal Hotspot use and a few dips into Pokémon Go didn’t push the battery hard enough to require a midday top-up. (Like the other new iPhones this year, the iPhone 17 ships with Adaptive Power enabled, which can selectively reduce performance or dim the screen and automatically enables Low Power Mode at 20 percent, all in the name of stretching the battery out a bit and preventing rapid drops.)

Better battery life out of the box is already a good thing, but it also means more wiggle room for the battery to lose capacity over time without seriously inconveniencing you. This is a line that the iPhone Air can’t quite cross, and it will become more and more relevant as your phone approaches two or three years in service.

The one to beat

Apple’s iPhone 17. Credit: Andrew Cunningham

The screen is one of the iPhone Pro’s best features, and the iPhone 17 gets it this year. That plus the 256GB storage bump is pretty much all you need to know; this will be a more noticeable upgrade for anyone with, say, the iPhones 12-to-14 than the iPhone 15 or 16 was. And for $799—$200 more than the 128GB version of the iPhone 16e and $100 more than the 128GB version of the iPhone 16—it’s by far the iPhone lineup’s best value for money right now.

This is also happening at the same time as the iPhone Pro is getting a much chonkier new design, one I don’t particularly love the look of even though I do appreciate the functional camera and battery upgrades it enables. This year’s Pro feels like a phone targeted toward people who are actually using it in a professional photography or videography context, where in other years, it’s felt more like “the regular iPhone plus a bunch of nice, broadly appealing quality-of-life stuff that may or may not trickle down to the regular iPhone over time.”

In this year’s lineup, you get the iPhone Air, which feels like it’s trying to do something new at the expense of basics like camera and battery life. You get the iPhone 17 Pro, which feels like it was specifically built for anyone who looks at the iPhone Air and thinks, “I just want a phone with a bigger battery and a better camera and I don’t care what it looks like or how light it is” (hello, median Ars Technica readers and employees). And the iPhone 17 is there quietly undercutting them both, as if to say, “Would anyone just like a really good version of the regular iPhone?”

Next and last on our iPhone review list this year: the iPhone 17 Pro. Maybe spending a few days up close with it will help me appreciate the design more?

The good

  • The exact same screen as this year’s iPhone Pro for $300 less, including 120 Hz ProMotion, variable refresh rates, and an always-on screen.
  • Same good main camera as the iPhone Air, plus the added flexibility of an improved wide-angle camera.
  • Good battery life.
  • A19 is often faster than iPhone Air’s A19 Pro thanks to better heat dissipation.
  • Jumps from 128GB to 256GB of storage without increasing the starting price.

The bad

  • 8GB of RAM instead of 12GB. 8GB is fine but more is also good!
  • I slightly prefer last year’s versions of most of these color options.
  • No two-column layout for apps in landscape mode.
  • The telephoto lens seems like it will be restricted to the iPhone Pro forever.

The ugly

  • People probably won’t be able to tell you have a new iPhone?

Photo of Andrew Cunningham

Andrew is a Senior Technology Reporter at Ars Technica, with a focus on consumer tech including computer hardware and in-depth reviews of operating systems like Windows and macOS. Andrew lives in Philadelphia and co-hosts a weekly book podcast called Overdue.

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Ford decides to run its Le Mans program in-house, racing in 2027

Formula 1 might be riding high these days on a wave of interest not seen since the 1960s, but the Drive to Survive effect has been felt elsewhere in the world of motorsport. Endurance racing like the 24 Hours of Le Mans or the Rolex 24 at Daytona has seen record crowds over the last few years, and a large part of that is down to the sports prototype class, exemplified by cars from the likes of Ferrari and Porsche. And soon, we can add Ford to the list.

Currently, eight different manufacturers are competing against each other in the World Endurance Championship’s Hypercar class: Alpine, Aston Martin, BMW, Cadillac, Ferrari, Peugeot, Porsche, and Toyota. More are on the way—Genesis arrives next year, and at the beginning of the year, Ford announced that it, too, was joining the fray, in 2027. Today, the Blue Oval revealed some more details about the project.

What’s a hypercar?

Compared to the road car-derived machines that race in the GT3 category, the vehicles that contest for overall victory in the Hypercar class are purpose-built prototypes, just for racing. Because endurance racing often has to be needlessly complicated for the sake of being complicated, the Hypercar class is actually made up of a mix of vehicles designed to two different technical rule sets that are performance balanced to create a level playing field.

You can find a lengthy explanation of the differences between the two sets of technical regulations (called LMH and LMDh) in our previous coverage, but briefly, LMH cars are designed entirely by a manufacturer and can but don’t have to be hybrids—like the V12-only Aston Martin Valkyrie.

LMDh cars, by contrast, must use a carbon-fiber spine from one of four approved race car makers, and all must use the same spec transmission, hybrid battery, and electric motor, with the car companies designing their own bodywork and internal combustion engine. LMH has more technical freedom—you can mount that electric motor to the front axle, for example—but it’s also a more expensive way to go.

Ford decides to run its Le Mans program in-house, racing in 2027 Read More »