SAMSUNG

Galaxy S27 Ultra may feature an exclusive Qualcomm processor

Samsung appears to be preparing a significant shift in the processor strategy for its next generation of smartphones. New commercial filings associated with the Galaxy S27 series suggest that the South Korean manufacturer may reserve the most powerful version of Qualcomm’s upcoming processor exclusively for the Galaxy S27 Ultra, while other models will feature different configurations.

This information was reported by Gadgets360, based on a discovery by Notebookcheck on the trade data platform NBD. The filings identify four devices—including the as-yet-unannounced Galaxy S27 Pro—and reveal a potential split between Exynos and Snapdragon processors for the European market.

If these details are confirmed, Samsung could establish a clearer performance hierarchy among its high-end smartphones, at a time when competition in the premium segment remains particularly intense.

The key development concerns the processor identified for the Galaxy S27 Ultra. The device is linked to the model number SM-S958B/DS and the Qualcomm chip SM8975, which is expected to correspond to the upcoming Snapdragon 8 Elite Extreme Gen 6.

Meanwhile, the purported Galaxy S27 Pro—identified as SM-S957B/DS—is equipped with the Qualcomm SM8950, associated with the standard version of the Snapdragon 8 Elite Gen 6.

This distinction suggests that Samsung might reserve the most advanced variant of the processor for the Ultra, creating an additional point of differentiation between the two premium models in the lineup.

Naturally, the presence of different processors does not yet reveal what the actual differences in performance, power consumption, or artificial intelligence processing capabilities will be. These characteristics will depend on the final specifications of the chips and how they are integrated into the devices.

However, the newly surfaced documents introduce an important detail: the possibility that the Galaxy S27 Pro could utilize a Snapdragon processor, even in its European variants. Until now, rumors regarding processor distribution suggested that Samsung might keep Exynos chips in Europe while reserving specific Snapdragon variants for other markets.

The emergence of references specifically linked to European devices reinforces the hypothesis of a more nuanced strategy, although these commercial filings do not constitute definitive confirmation of the configurations that will ultimately reach retail shelves.

Four models with varying screen sizes...In addition to the processors, the documentation provides details on the screen sizes for each device.

Model | Screen Size | Indicated Processor

Galaxy S27 | 6.3 inches | Exynos 2700

Galaxy S27+ | 6.7 inches | Exynos 2700

Galaxy S27 Pro | 6.5 inches | Snapdragon 8 Elite Gen 6

Galaxy S27 Ultra | 6.9 inches | Snapdragon 8 Elite Extreme Gen 6

All four models are also associated with configurations featuring 12 GB of RAM and 256 GB of internal storage.

These figures do not necessarily mean that every commercial variant will feature the same configuration; the records may simply represent specific versions used for import, testing, or certification processes.

Another detail yet to be confirmed concerns the cameras. Rumors point to 200-megapixel main sensors for both the Galaxy S27 Pro and the Ultra, which could bring the photographic capabilities of the two devices closer together.

Even so, sensor resolution alone does not determine the final quality of photographs, nor does it imply that both devices will feature equivalent camera systems.

The potential introduction of a Galaxy S27 Pro could represent a significant shift in the structure of the Galaxy S lineup.

To date, Samsung has primarily relied on the distinction between the base, Plus, and Ultra models to differentiate features, dimensions, and photographic capabilities.

By offering four devices, the manufacturer could provide a more compact premium alternative, positioned between the Galaxy S27+ and the Ultra. The processor could become one of the key differentiators, alongside cameras, build materials, and exclusive features.

Interestingly, rumors also point to differences in charging capabilities. As we previously reported, the base Galaxy S27 may remain limited to 25W, while the Pro and Ultra models have been linked to charging speeds of up to 60W.

If this scenario holds true, Samsung will be opting for a more distinct separation between the various tiers of its premium lineup.

The official unveiling of the Galaxy S27 family is expected to take place in early 2027, during a Galaxy Unpacked event.

Until then, several questions remain unanswered, including whether a "Pro" model will definitely exist, the differences between the new processors, and the specific configuration intended for the Portuguese market.

It is also worth noting that previous reports had suggested a potential return of the Exynos chip to the Galaxy S27 Ultra. The latest findings point to a different scenario, though they do not entirely rule out the possibility of additional variants.

For now, all signs suggest that Samsung is exploring a more diverse product lineup. It remains to be seen whether this strategy will offer tangible benefits to consumers or if it will primarily serve to further distinguish the various price tiers.

What sets the Snapdragon 8 Elite Gen 6 apart from the "Extreme" version? The Extreme Gen 6 features eight cores built on a 2nm process: two "Prime" cores at 5.0 GHz, three at 4.0 GHz, and three at 3.7 GHz, along with an Adreno 850 GPU clocked at 1.45 GHz. Qualcomm has also included matrix calculation units for AI-driven upscaling and frame generation—features absent from the standard Gen 6 chip, which is expected to power the Pro model.

A similar segmentation already exists among competitors; for instance, Xiaomi opted for the standard Gen 6 in its 18 Pro, while reserving the Extreme version for the 18 Pro Max. If Samsung follows this same logic, the Pro model will feature the 2nm chip but will fall short of the Ultra in terms of GPU and AI capabilities.

Back in June, the expectation was that both the Pro and Ultra would share the same Snapdragon processor. Since then, according to the *Seoul Economic Daily*, Samsung reportedly raised concerns with Qualcomm regarding overheating issues with the Extreme Gen 6—claims that Qualcomm has denied.

If the filing is accurate, the Ultra has retained the high-end chip, while the Pro has been positioned a step lower. The Galaxy S27 Pro sits between the S27+ and the Ultra—and this hierarchy extends to the processor as well. With a 6.5-inch display, a 5,200 mAh battery, and rumored 200 MP camera, the S27 Pro occupies the tier previously held by the "Plus" model, with the chip selection following that same structure.

It ranks above the S27+ (which uses an Exynos chip) and below the Ultra (which uses the Extreme version). This allows Samsung to offer three distinct price points, each corresponding to a different level of performance.

For now, none of this is official, as Samsung typically unveils its S-series lineup in late January or early February. In reality, Brazil is likely to receive the same "B" variant mentioned in the filing. The S27 and S27+ sold here are expected to come with the Exynos 2700, while the Pro will feature the Gen 6.

If this difference in chips is reflected in the price, the Pro becomes the more rational choice for those who don’t need the S Pen or the Ultra’s zoom capabilities. Does paying more for the "Extreme" model—just to get AI-powered frame generation—seem worth it to you?

by mundophone

DIGITAL LIFE

How to identify potential spyware and prevent unauthorized access to your mobile phone

You are using your phone as usual when you notice something strange: the battery starts draining faster, the device heats up for no apparent reason, or a small colored dot appears on the screen. Most of the time, these behaviors have simple explanations. However, they could also indicate that an app is accessing features without your authorization. Knowing how to distinguish a common glitch from a potential intrusion is essential for protecting your personal information.

The small signal on the screen that can reveal camera usage...One of the simplest ways to find out when the camera or microphone is being used is to observe your device's privacy indicators.

On modern iPhones, a green dot appears when an app accesses the camera, while an orange dot indicates that the microphone is in use.

Recent Android phones also feature similar visual indicators, typically displayed at the top of the screen.

These features allow you to identify access even when the app is not actively open on your screen.

If an indicator appears unexpectedly, it is worth checking which program is using that feature.

Another behavior that warrants attention is receiving a message stating that the camera is already in use by another application.

However, this does not necessarily mean that your phone is being spied on.

Calling apps, social media platforms, and other legitimate services may use the camera or microphone in the background, depending on the permissions granted and the activities currently running.

Malicious programs known as spyware can monitor your activities, collect information, and, under certain circumstances, access sensitive features of your device.

According to guidance from the cybersecurity firm ESET, unexpected changes in how your phone functions deserve attention.

One example is excessive battery consumption.

If an app is continuously recording information or transmitting files, it may demand more power from the device.

The same applies to abnormal heating, especially when the phone is idle and seemingly not performing any tasks. Another possible sign is the presence of photos, videos, or screenshots that you do not recognize.

However, before assuming your device has been compromised, check whether these files were received via WhatsApp, downloaded automatically, or synced through services like Google Photos or iCloud.

None of these symptoms, on its own, proves the presence of spyware.

Worn-out batteries, software updates, or resource-intensive apps can also cause similar behavior.

Data usage can reveal what is happening in the background; beyond battery drain, mobile data traffic can provide important clues.

A malicious app that sends images, recordings, or other files to external servers may cause an unexplained spike in data usage.

For this reason, it is worth checking which programs are consuming the most data on your device.

Unknown apps or those showing high activity warrant closer investigation.

You should also watch for unexpected reboots, persistent sluggishness, frequent crashes, or the appearance of programs you do not recall installing.

While these signs can have various causes, a combination of unusual behaviors justifies a review of your security settings.

The goal is not to immediately conclude that your device has been compromised, but rather to identify activity that does not align with your typical usage.

How to find out which apps have access to your camera and microphone: modern operating systems provide tools to check and manage permissions.

On an iPhone, go to Settings, select Privacy & Security, and then choose Camera or Microphone. From there, you can review which apps have been granted access and revoke permissions that are unnecessary.

On Android, the steps may vary depending on the manufacturer and the version of the operating system. Generally, look for Settings, Security & Privacy, and then Privacy Dashboard or Permission Manager.

These sections allow you to see which apps have access to sensitive features and, on compatible versions, to review recent access history.

It is also advisable to keep your system updated, remove suspicious apps, and avoid installing software from unknown sources.

If the signs persist, a reliable security tool can assist with an investigation.

What should you do if you suspect your phone is being spied on? The first step is to review your installed apps and revoke any unnecessary permissions.

Next, check for security updates and analyze your battery and data usage.

If you find concrete evidence of a compromise, consider changing your passwords—using a different, trusted device—and seeking professional technical support.

The best form of protection is to maintain control over which apps have access to your camera, microphone, and personal information.

A phone that runs hot or a battery that drains quickly does not automatically mean you are being spied on.

However, keeping an eye out for unexpected changes and being familiar with privacy features can help you identify issues before they become more serious.

To identify spyware and protect your mobile phone from unauthorized access, look for warning signs on your device and follow the steps for removal and prevention.

Warning signs (how to identify them):

• Excessive battery drain: Your phone loses charge very quickly, even when not in use or during normal activity, because spyware is transmitting data in the background.

• Abnormal heating: The device frequently gets hot, even when you are not playing games or running resource-intensive applications.

• High mobile data usage: Unexpected spikes in internet traffic occur because files, photos, or audio are being transmitted to external servers.

• Unknown applications: Apps you did not download appear in your list of installed applications, or they may be disguised with generic names (such as "system update" or "service").

• Camera or microphone indicators: Green or orange dots appear on the screen, signaling that these sensors are active without your permission.

• Call and message forwarding: Settings for call forwarding or unknown paired devices appear in your linked accounts.

How to investigate and remove spyware:

1. Inspect installed applications: Go to Settings > Apps (on Android or iPhone) and remove any programs you do not recognize.

2. Check permissions and device administrators:

• On Android, go to Settings > Security & privacy > Permission manager or Device admin apps (disable administrator privileges for suspicious apps before uninstalling them). 

• On iPhone, go to Settings > General > VPN & Device Management to check for suspicious MDM (Mobile Device Management) profiles.

3. Review connected accounts and devices: Open your Google account or Apple ID settings and sign out of any unknown sessions, browsers, or devices. 4. Run a security scan: Use reliable antivirus and antimalware applications, such as Kaspersky, Bitdefender, or Norton.

5. Perform a factory reset (if necessary): If the spyware persists or if you suspect a deep-level compromise, back up your essential files and restore the device to its factory settings. Change all your email and banking passwords using a different, secure device.

mundophone

 

TECH

Enough Phone is as small as iPhone 13 mini, launches with modular battery and 5 years of updates

With the Apple iPhone 13 mini and the Asus Zenfone 10, the last truly compact mainstream smartphones were discontinued years ago. Fans of small smartphones now finally have a new option in the Enough Phone, which also aims to impress with a replaceable battery and long-term software support.

After we reported on the development of the Enough Phone back in August, the compact smartphone is now finally available to preorder through a crowdfunding campaign. Measuring 133 x 64 millimeters, the device is 16.6 millimeters shorter and 7.5 millimeters narrower than the Apple iPhone 17 ($719 on Amazon), and is actually almost the same size as the Apple iPhone 13 mini.

However, the Enough Phone is relatively thick at 12 millimeters. This is due in no small part to the back being screwed on rather than glued, making the 3,500 mAh battery particularly easy to replace. The phone ships with a choice of Android 17 with full app support or OdysseyOS, a simplified operating system that forgoes features such as social media apps. In either case, the Enough Phone is set to receive security updates until 2032.

Unscrew the backplate on the enough phone to reveal its battery. When it wears out, swap it yourself, just like the good old days. 

Software updates are planned through 2032, and the back is made from recycled polycarbonate. 

One enough phone should last you into the next decade.

While this should give the device a relatively long life span, its plastic housing is not waterproof. Its specifications are in line with a conventional mid-range smartphone, as the Enough Phone features a MediaTek Dimensity 7500, paired with 8 GB of RAM, 128 GB of storage and a microSD slot. The 50 MP main camera uses a Sony IMX766 sensor in the 1/1.56-inch format, while the selfie camera offers a resolution of 32 MP. The 5.3-inch display has a resolution of just 1,520 x 720 pixels. A fingerprint sensor in the lock button, an NFC chip and a GPS module round out the specifications.

At first glance, it looks like a phone you might have bought about 15 years ago. But this is actually a forward-looking project: the Enough Phone is a compact smartphone designed to bring back the simplicity that Android once offered. It could be yours for $399.

The "straight-to-the-point" philosophy of the Enough Phone begins with its display—a 5.3-inch LCD panel with a resolution of 1520 x 720 pixels. Its small size by today’s standards highlights just how compact the device is: measuring 132.8 x 63.8 x 12 mm, it’s roughly the same size as an iPhone 13 Mini.

There’s a good reason for this. According to the project’s creators—Austin Boer, Brennan Jordan, and William Stults—mainstream brands have largely abandoned compact phones. While it’s true that most people prefer smartphones with large screens, the trio believes there are still users who miss having smaller options (I’ll admit, I’m one of them).

As for the device itself, the back features a single camera with a 50-megapixel Sony IMX766 sensor. Look closely, and you’ll notice screws just below the camera module; this is because the Enough Phone includes a user-replaceable battery.

Under the hood, the phone is powered by a MediaTek Dimensity 7500 chip, paired with 8 GB of RAM and 128 GB of storage. It runs a "pure" version of Android 17.

Alternatively, users can opt for OdysseyOS—a highly simplified version of Android developed by Sleke—which offers an experience similar to that of a basic, no-frills mobile phone. Sleke sells refurbished Google Pixel phones running OdysseyOS, catering to those who prefer or prioritize simpler, more intuitive features.

Other specifications include:

a 32-megapixel front-facing camera

5G, Wi-Fi 6, Bluetooth, and NFC connectivity

eSIM support

a power button with an integrated fingerprint reader

a 3,500 mAh battery (a specification subject to change before launch)

The "Enough Phone" is a crowdfunding project currently running a campaign on Kickstarter. Early backers can purchase the device starting at $399, as previously mentioned.

In my view, this price point is somewhat high given the device's hardware—and it could get worse: upon its official release—expected sometime after May 2027 (the month currently slated for deliveries)—the device may carry an official price tag of $599.

Regardless, it could prove to be an interesting option for those seeking a compact yet functional Android smartphone.

Pricing and availability...The Enough Phone is currently being funded on Kickstarter and costs $399 under the "Super Early Bird" offer, with shipping expected to begin in May 2027. The price excludes shipping, import VAT and customs duties. Backing crowdfunding campaigns carries the risk of products being delivered late, not at all or with quality issues, especially as the manufacturer has yet to show a working prototype.

 

mundophone

 

TECH

Smartwatches could learn to read your hands

Northwestern University engineers are investigating new ways to tell what the hands are doing — including peering beneath the skin to watch muscles and tendons move. The new methods don’t use high-tech cameras, medical scans or advanced imaging techniques. Instead, they use a common smartwatch.

In one project, engineers designed a new smartwatch system to glean activities from the arm and hands. In another, electrodes built into the back of a watch can track more subtle hand movements and gestures, such as a thumbs up or clenched fist.

By tracking these movements, researchers could one day help improve the control of bionic prosthetics or monitor patients in specialized care settings, including elder care. Beyond health care, the systems also could make smartwatches easier to use, much like facial recognition has simplified smartphone access, or extend to monitoring everyday activities, such as helping dental hygienists track how many teeth they clean in a week.

The researchers presented both studies, named TransfHAR and EITWatch, today (Nov. 3) at the Association for Computing Machinery’s Symposium on User Interface Software and Technology (UIST). The full symposium will be held Nov. 2–5, 2026, in Detroit.

“Your hands are how you act on the world, but your smartwatch knows almost nothing about what they’re doing,” said Northwestern’s Karan Ahuja, the principal investigator on both papers. “These two projects show how much the wrist alone can reveal — one by sensing the muscles and tendons beneath the skin, the other by learning how the arm moves. We can’t recognize every movement yet, but it’s a strong starting point.”

Ahuja is the Lisa Wissner-Slivka and Benjamin Slivka Assistant Professor in Computer Science at Northwestern’s McCormick School of Engineering, where he directs the Sensing, Perception, Interactive Computing and Experiences (SPICE) Lab. 

TransfHAR was co-authored by Aidan Bradshaw, a Ph.D. student in the SPICE lab, Riku Arakawa of Carnegie Mellon University, and Xin Liu, a senior research scientist at Google Health Research. EITWatch was co-authored by SPICE lab members Xuanyou Liu and Novel Alam, who contributed equally and led the work.

Smartwatches have advanced well beyond the basics, like counting steps or displaying notifications. Today's models can monitor heart rate, blood oxygen levels, sleep quality, and even perform electrocardiograms. Researchers are now exploring another capability that could eventually make smartwatches much more intuitive to use: recognizing hand gestures without requiring cameras or bulky wristbands.

A team at Northwestern University has just reported on EITWatch, a smartwatch-integrated gesture recognition system that uses electrical impedance tomography (EIT) to sense muscle and tendon movement beneath the skin. Rather than relying on optical sensors or inertial measurement units, the prototype sends tiny electrical currents through the wrist and measures how those signals change as muscles contract. Because every gesture subtly alters the electrical properties of the tissue, the watch can identify different hand movements based on their unique electrical signatures.

This isn’t the first EIT-based gesture recognition study. However, past attempts typically required electrodes wrapped all the way around the wrist along with external electronics. EITWatch is designed around something users already wear every day: a standard smartwatch. The prototype places eight gold-plated electrodes in a 31 mm ring beneath a 40 mm watch case, allowing the entire sensing area to remain confined to the watch's contact patch. An onboard ESP32-S3 microcontroller captures impedance measurements at 48 Hz while sequencing the electrodes through multiple measurement paths.

Since a flat electrode array cannot surround the wrist the way earlier systems could, the researchers developed what they call a multi-depth scanning technique to compensate. Instead of always sending current between neighboring electrodes, the system varies the distance between the source and return electrodes. Longer current paths penetrate deeper into the wrist, allowing the watch to sample information from multiple tissue depths and muscle groups during each scan. In testing, this approach outperformed conventional adjacent-electrode measurements by 15.1 percentage points for larger gestures and 10.4 percentage points for smaller ones.

The researchers evaluated EITWatch with 12 participants performing two gesture vocabularies. One consisted of six larger static hand poses, while the other included five subtle micro-gestures along with a relaxed resting position. Within a single session, the system achieved recognition accuracies of 92.5% for the larger gestures and 91.5% for the micro-gestures, showing that a smartwatch-sized sensing area can capture enough information for reliable classification.

Keeping watch of the hand...EITWatch takes advantage of a smartwatch’s constant contact with the wrist. Using a technique called Electrical Impedance Tomography (EIT), eight small electrodes on the back of the watch send tiny electrical signals through the wrist to map the muscles and tendons beneath the skin.

Each hand gesture — from pointing a finger to giving a thumbs up — produces a distinct pattern as muscles and tendons move. By learning to recognize these patterns, EITWatch can identify specific gestures and translate them into smartwatch commands.  A thumbs up, for example, could send a text message, while a pointed finger could activate a step-counter during exercise.

“The part I care about most is accessibility. Touchscreens shut out many people,” Alam said. “A second input channel built into the device gives them another way in.”

Because the same wrist signals encode what the hand intends to do, the researchers are also exploring whether this kind of sensing could help control prosthetic hands. Looking inside the arm also gives scientists a new way to track the hand, bypassing the need for cameras.

“Right now, the best way to tell what the hands are doing is a camera, and that’s a privacy nightmare,” Ahuja said. “It also only works when your hand is in view. The wrist is always there.”

Unfortunately, the system is currently not very stable across time. When users put the watch on after two days without use, recognition accuracy dropped to 73.2%. Performance fell further when attempting to recognize gestures from entirely new users without personalized training data. To make the device practical, it will need to deal with small changes in watch placement and differences between individuals better.

The team plans to address these limitations using representation learning and contrastive learning techniques designed to produce gesture embeddings that remain stable across different users and repeated wearings. If successful, future smartwatches could gain a powerful new input method without adding cameras, external accessories, or changing their familiar form factor.

EITWatch is still a research prototype. In the study, it recognized six common hand gestures with over 92% accuracy and five subtler finger movements with over 91%, but it works best when calibrated for a single user. That means borrowing a family member’s smartwatch, for example, might make it more difficult for the device to accurately recognize the new user’s wrist movements.

“Going forward, we will focus on two things. For hardware, fitting the electronics inside the watch is the next push,” Alam said. “Then there’s the people problem. One person wearing the watch does way better. The goal stays simple though. Any wearer puts the watch on and the gestures work. No calibration step.”

Watching the whole arm...Although today’s smartwatches and smartphones can recognize certain gestures, those movements are typically limited to a predetermined set of motions. TransfHAR takes a more flexible approach. The system first learns from thousands of hours of public, unlabeled motion data from everyday activities such as walking and exercise. It can then learn an entirely new activity from just a few demonstrations. Users can then associate specific movements with customized commands, expanding what their devices can do.

New research from Northwestern University introduces TransfHAR and EITWatch, two smartwatch systems that track hand gestures and arm motions without using privacy-invasive cameras.

How the new systems work:

• EITWatch (Electrical Impedance Tomography): Uses tiny electrodes on the back of the smartwatch case to send electrical currents through the skin. By varying the distance between source and return electrodes, it scans multiple tissue depths and muscle groups in the wrist. In studies, it recognized 6 common hand gestures with over 92% accuracy and 5 micro-finger movements with over 91% accuracy.

• TransfHAR (Transformer-based Human Activity Recognition): Uses existing motion sensors (accelerometers and gyroscopes) already found in standard smartwatches. Pretrained on thousands of hours of movement data, it allows users to name and demonstrate a new action (like brushing teeth or lifting weights) via a quick one-minute recording, achieving roughly 90% recognition accuracy.

Key benefits and use cases:

• Privacy Protection: Replaces camera-based hand tracking with wrist-level internal muscle and motion sensing.

• Healthcare & Monitoring: Enables caregivers or nurses in eldercare facilities to passively track daily routines—such as hygiene or physical therapy exercises—without placing cameras in private rooms.

• Prosthetic Control: Translates intended hand and wrist signals into alternative control channels for prosthetic devices.

• Fitness Tracking: Automatically logs specific gym exercises and repetitive daily tasks without manual input.

Current limitations:

• Calibration Requirement: Both prototypes currently achieve peak accuracy when calibrated specifically to an individual user, meaning sharing a watch with someone else reduces recognition precision.

• Form-Factor Scaling: Engineers are still working on shrinking all necessary hardware components to fit comfortably inside commercial, everyday smartwatch bodies.

mundophone

 

SAMSUNG

Galaxy A58 appears in certification with 45W charging, but camera setup sees little change

Samsung's next-generation mid-range smartphones are set to receive significant battery upgrades and even charge much faster than the more expensive Samsung Galaxy S26. Rumors reveal some interesting details about the Galaxy A38 5G and Galaxy A58 5G.

Since the Samsung Galaxy A37 5G ($414 on Amazon) only hit the market in April, the launch of the Galaxy A38 5G is likely still some time away. Nevertheless, rumors already revealed in October that Samsung is expected to use the same cameras as in its direct predecessor, namely a 50-megapixel main camera, a 12 MP ultra-wide-angle camera and a 5 MP macro camera. Now, GalaxyClub has learned that Samsung is planning at least one significant upgrade – a larger battery.

Galaxy A58 specs: What’s known so far...According to an earlier report from GalaxyClub, the Galaxy A58 will retain the same camera resolutions as the A57. The setup reportedly includes a 50-megapixel primary camera, a 12-megapixel ultrawide sensor and a 5-megapixel macro camera. On the front, the handset is expected to feature a 12-megapixel selfie camera. However, whether Samsung will introduce newer camera sensors remains unclear.

The upcoming phone is also tipped to run Android 17 with One UI 9.5. A firmware build carrying version A586BXXU0AZI5 was spotted on Samsung’s servers in October, indicating that software development is underway. The firmware sighting does not confirm the final software version, though.

For reference, the Galaxy A57 features a 6.7-inch FHD+ Super AMOLED+ display with a 120Hz refresh rate, an Exynos 1680 chipset, up to 12GB of RAM and a 5,000mAh battery. It also supports 45W charging and carries an IP68 rating. Samsung could introduce a newer chipset and other incremental improvements with the A58, although its remaining specifications are still unknown.

Galaxy A58 specs: What’s known so far...According to an earlier report from GalaxyClub, the Galaxy A58 will retain the same camera resolutions as the A57. The setup reportedly includes a 50-megapixel primary camera, a 12-megapixel ultrawide sensor and a 5-megapixel macro camera. On the front, the handset is expected to feature a 12-megapixel selfie camera. However, whether Samsung will introduce newer camera sensors remains unclear.

The upcoming phone is also tipped to run Android 17 with One UI 9.5. A firmware build carrying version A586BXXU0AZI5 was spotted on Samsung’s servers in October, indicating that software development is underway. The firmware sighting does not confirm the final software version, though.

For reference, the Galaxy A57 features a 6.7-inch FHD+ Super AMOLED+ display with a 120Hz refresh rate, an Exynos 1680 chipset, up to 12GB of RAM and a 5,000mAh battery. It also supports 45W charging and carries an IP68 rating. Samsung could introduce a newer chipset and other incremental improvements with the A58, although its remaining specifications are still unknown.

The mid-range smartphone's battery is said to have an actual capacity of 5,882 mAh, which will likely be marketed as a typical capacity of 6,000 mAh. For comparison: The Samsung Galaxy A37 5G is marketed with a 5,000 mAh battery, meaning the next-generation mainstream mid-range smartphone offers 20 percent more battery capacity. If Samsung replaces the Exynos 1480 with a more modern chip, this could result in significantly longer battery life.

Meanwhile, @ZionsAnvin spotted the more expensive Samsung Galaxy A58 5G in a certification listing, according to which the smartphone can be charged via USB-C at up to 45 watts. Fast charging is therefore just as powerful as on the Galaxy A57 5G, with the mid-range smartphone charging significantly faster than the Galaxy S26, which is limited to just 25 watts. The Samsung Galaxy A38 5G and Galaxy A58 5G are expected to launch in March or April 2027. GalaxyClub expects another price increase, which could put the list price of the cheapest Galaxy A38 5G at over $500.

The Samsung Galaxy A57 5G was released in April 2026, so its successor is not expected to launch before the spring of 2027. GalaxyClub has already obtained details regarding the camera setup for this next-generation mid-range smartphone. The news is disappointing, as none of the four cameras are expected to receive any significant upgrades.

According to reports, Samsung will retain a 12-megapixel selfie camera, a 50 MP main camera, a 12 MP ultrawide camera, and a 5 MP macro camera. The latter was first introduced with the Galaxy A51 in 2020, meaning it will be seven years old by the time the Galaxy A58 is released. Furthermore, a low-resolution macro camera will hardly be useful in 2027, and the mid-range device continues to lack a telephoto lens. It remains unclear whether any of the cameras will feature a newer or larger sensor.

For context, the Galaxy A57 features a main camera with a 50 MP 1/1.56-inch sensor, an ultrawide camera with a tiny 12 MP 1/3.06-inch sensor, and a selfie camera with an even smaller 12 MP 1/3.2-inch sensor. With this hardware, the Galaxy A57 failed to truly impress in our in-depth review—while the cameras deliver decent image quality, the results are far from exceptional, especially given the now relatively high price point of this mid-range series. However, in light of the DRAM crisis, it is not surprising that Samsung is implementing cost-cutting measures and opting against camera upgrades for the Galaxy A58.

The Galaxy A58 is expected to retain its predecessor's camera setup... Early leaks suggest that Samsung intends to carry over much of the photographic configuration from the Galaxy A57. According to information released by the website GalaxyClub, the Galaxy A58 is set to feature three rear cameras: a 50 MP main sensor, a 12 MP ultra-wide lens, and a 5 MP macro lens.

The front-facing camera is also expected to remain at 12 MP. While the resolutions are known, there is no confirmation yet regarding potential changes to the sensors themselves.

Most notable is the continued inclusion of the 5 MP macro camera. This component first appeared in the Galaxy A51—launched in 2020—and by the time the A58 hits the market, it will have been a fixture in Samsung’s mid-range lineup for seven years.

This repetition of specifications suggests that Samsung may be focusing its upgrades on other components, leaving the camera system largely unchanged from the previous generation.

Camera setup...Early leaks point to few changes in the photography department. According to information from the website GalaxyClub, the Galaxy A58 is expected to retain much of its predecessor's configuration, featuring three rear cameras and the same front-facing camera.

Main camera: 50 MP

Ultrawide: 12 MP

Macro: 5 MP

Front-facing: 12 MP

Notably, the 5 MP macro camera remains—a feature present since the Galaxy A51, which launched in 2020. If confirmed, this component will have been a fixture in the mid-range lineup for seven years by the time the A58 hits the market. The repetition of these photographic specifications suggests that the manufacturer may be focusing improvements on other components, while keeping the camera capabilities very similar to the previous generation.

Display (based on A57): 6.7-inch Super AMOLED+

Refresh rate (based on A57): 120 Hz

Chip (based on A57): Exynos 1680

Battery (based on A57): 5,000 mAh

A57 reference price: 579 euros

A58 rumored price: approximately 600 euros

The company has not yet announced an official date for the unveiling of the Galaxy A58. It is expected that the device will follow the same schedule as its predecessor—the Galaxy A57 was announced on March 25, 2026—making March 2027 a likely window for its debut.

While the Galaxy A58 might feature a newer processor, initial sources indicate that the core photographic specifications will remain unchanged. We must wait for official announcements to confirm the full specifications, pricing, and availability.

mundophone

TECH

SpaceX may buy Boost for Starlink Mobile as T-Mobile and AT&T refuse network access

SpaceX has held talks with telecom firm EchoStar in recent months about launching its own signature wireless service through a deal with the company, the report said, citing ​people familiar with the negotiations.

The move would support the Elon Musk-led ​company's plans to build a hybrid satellite-terrestrial mobile network through Starlink ⁠Mobile, combining its satellite constellation with ground-based infrastructure to challenge US wireless ​giants AT&T, Verizon and T-Mobile.

SpaceX may buy Boost for Starlink Mobile as T-Mobile and AT&T refuse network access

SpaceX is looking for a roundabout way into the US wireless market for Starlink Mobile. After being rebuffed by the three big carriers, terrestrial Starlink may piggyback on Boost's network.

SpaceX is apparently now in talks to buy EchoStar's Boost Mobile virtual carrier, a divestment of the T-Mobile and Sprint merger, or at least get access to its network so it can launch Starlink Mobile. SpaceX first approached AT&T, T-Mobile, and Verizon about renting capacity on their networks for its upcoming 5G mobile service, but all three major US carriers turned it down. Not only that, but they are actively lobbying the FCC not to give SpaceX the possibility to acquire more spectrum for Starlink Mobile on interference and unfair competition grounds.

SpaceX may buy boost mobile...That left Elon Musk looking for another way in, and he reportedly sat down with EchoStar chairman Charlie Ergen last month to discuss Boost, which makes sense for SpaceX for many reasons. It is a mobile virtual network operator, or the so-called MVNO, so it doesn't own towers. It leases capacity from AT&T and T-Mobile instead, which is the kind of terrestrial coverage that SpaceX wants to provide Starlink Mobile service in big cities.

EchoStar also reported roughly 7.4 million wireless subscribers at the end of June, most of them on Boost Mobile and Gen Mobile. Buying the brand would give SpaceX an actual customer base from the get-go and a way to distribute its service. Network leases like Boost's, however, are usually nontransferable, so AT&T and T-Mobile might need to approve any deal. In other words, the carriers that already said no to SpaceX could get a second chance to say it again even if Elon buys Boost, though such a move might face some regulatory scrutiny.

SpaceX already holds EchoStar spectrum, including the roughly $17 billion AWS-4 and H-block DISH airwaves purchase agreed in 2025, and more recently an $8 billion deal for 800 MHz spectrum meant to improve indoor coverage. Starlink Mobile is pitched as a hybrid service that uses satellites outdoors and falls back on ground-based networks where the signal can't reach. While SpaceX has some plans to deploy femtocells on existing Starlink equipment like the Standard Kit that can be acquired directly on Amazon, they might not be enough for extensive coverage without some cell phone tower access.

Starlink Mobile 5G network...SpaceX’s satellite signal isn’t strong enough yet for indoor and urban coverage, which is where millions of phones are concentrated. Filling that gap on the ground means acquiring and permitting thousands of tower and small cell sites, supplying power and fiber backhaul to each one, and running a core network that handles authentication, billing, and handoffs between satellite and terrestrial coverage. Handsets also need to support the new bands, and densely populated cities are especially demanding since it is capacity rather than coverage that becomes the limit, and that means even more sites.

Verizon’s CEO said the buildout would take SpaceX four to six years. Musk countered with roughly half that, though his timelines have a habit of running optimistic. T-Mobile also scoffed at the Starlink Mobile's terrestrial network plans, saying that the satellite signal now can't even get through a car windshield, let alone penetrate buildings, and AT&T hasn't been kind to SpaceX's buildout prospects, either.

The report, however, says that the three big US carriers may be reluctant now, but as the Starlink Mobile project progresses, one of them may budge and try to outmaneuver the others by partnering with SpaceX to make it one of the top US carriers from the get-go.

Telecom stocks came under pressure following SpaceX's $8 billion spectrum deal, ​as investors assessed the threat posed by a new satellite-powered wireless competitor.

Acquiring Boost Mobile or accessing its network could give SpaceX a ready-made subscriber base and distribution platform to ​accelerate its plans.

EchoStar had 7.38 million wireless subscribers at the end of ​the second quarter, primarily consisting of Boost Mobile and Gen Mobile customers.

Musk has discussed the ‌deal ⁠personally, meeting with EchoStar chairman Charlie Ergen last month, the Washington Post's report said.

The proposed service may need consent from AT&T and T-Mobile, as Boost Mobile's existing network-leasing agreements may not be transferable to a new owner without ​the carriers' approval, the ​report said.

SpaceX ⁠and EchoStar did not immediately respond to Reuters' requests for comment.

EchoStar shares rose about 3.4% in premarket trading, while ​T-Mobile slipped 2%. AT&T and Verizon also edged lower.

Analysts and ​industry experts have ⁠pointed to the challenges SpaceX might face in building a network that could become the fourth-largest wireless carrier in the US.

The rocket and satellite company will ⁠likely ​need to invest heavily in ground infrastructure, customer ​service, handset subsidies and promotions — costly areas of the wireless business where the Big Three already ​have extensive operations.

SpaceX is in talks to acquire EchoStar's Boost Mobile or gain access to its wireless network after AT&T, T-Mobile, and Verizon turned down its requests for direct network partnerships.

Key details of the potential deal:

• Acquisition target: SpaceX has been negotiating with EchoStar (parent company of Boost Mobile and Gen Mobile) to either buy Boost Mobile outright or leverage its network infrastructure.

• Subscriber base: EchoStar holds roughly 7.38 million to 7.5 million wireless subscribers through Boost Mobile and Gen Mobile.

• The terrestrial hurdle: Boost Mobile does not own its own cell towers; it leases network capacity from AT&T and T-Mobile. Because these existing lease agreements may be non-transferable, SpaceX could need formal approval from AT&T and T-Mobile to take over or run the network under a new owner.

• Why SpaceX needs It: While SpaceX has acquired spectrum licenses (including an $8 billion low-band spectrum deal) and plans to use Starlink satellites for direct-to-cell service, satellite signals struggle indoors and in dense cities. Partnering with or buying an Mobile Virtual Network Operator (MVNO) like Boost provides an immediate terrestrial backstop.

• Carrier resistance: AT&T, T-Mobile, and Verizon previously rejected Musk's requests to rent their networks and have lobbied the FCC against granting SpaceX additional spectrum for Starlink Mobile

mundophone

 

EPSON

Epson's first collaborative robot arrives in Japan with Python support and a 900 mm reach

Epson's first collaborative robot has arrived on the Japanese market, bringing a 900 mm reach, 6 kg payload and Python programming to the factory floor. The AX6-A901S also features a lightweight carbon-fibre arm and a compact controller designed for integration with mobile robotic systems.

Epson might be best known for the printer sitting in the corner of the office, but the Japanese manufacturer has considerably bigger ambitions for moving things around. Its first collaborative robot, the AX6-A901S, is now available to order in Japan, complete with a carbon-fibre arm, Python programming and a compact controller that can be mounted on mobile robotic platforms.

According to Epson's Japanese announcement, orders opened on 29 October 2026. The robot originally made its debut in June 2025, so this is a commercial rollout rather than a brand-new unveiling.

The six-axis AX6-A901S offers a 900 mm reach and a maximum payload of 6 kg, with a repeatability rating of ±0.03 mm. Its carbon-fibre construction helps keep the robot's weight to approximately 18 kg. That is quite a lot of precision for a machine that weighs less than some suitcases.

As a collaborative robot, or cobot, the AX6-A901S is designed for applications where people and machines can work in closer proximity than in many traditional industrial installations. That doesn't give it an automatic invitation to join the workforce without supervision, however. Appropriate risk assessments and safety measures remain essential.

Programming the AX6-A901S needn't mean writing every instruction from scratch. Epson's AX Portal software supports Python alongside visual block-based programming, allowing users to build sequences through a graphical interface or work directly with code.

Epson's Japanese specifications put the RC-A101 controller at 5.5 kg, with support for both AC power and 48 V DC operation. That makes it suitable for integration with automated guided vehicles (AGVs) and autonomous mobile robots (AMRs). So, rather than spending its working life rooted to one spot, the robotic arm could potentially travel between workstations as part of a suitably configured mobile system.

Mobility is only part of the picture. Epson lists ISO Class 5 cleanroom compatibility and IP54 protection, although it notes that both ratings are based on design evaluations rather than guaranteed performance at shipment. Its smooth exterior is designed to make cleaning easier, a useful consideration in pharmaceutical and medical-device manufacturing or laboratory automation.

Epson is no stranger to industrial robotics, having spent decades developing automation equipment. The AX6-A901S is Epson's first collaborative robot, bringing the company into a category designed around more flexible installations and closer working arrangements between people and machines.

The company has not published a fixed retail price, with prospective buyers directed to its sales channels for a quotation.

For now, the AX6-A901S is unlikely to be making an appearance beside anyone's home printer. Epson has found its first cobot a rather more interesting job than feeding paper through a tray.

Transform the possibilities within your manufacturing process with the AX6, part of the AX series of 6-axis collaborative robots. Built on four decades of experience implementing automation in our own production facilities, the AX series is designed to enhance worker interaction through power and force-limiting features—which, subject to an appropriate risk assessment, allow for operation without safety enclosures. Featuring a compact, lightweight carbon-fiber structure, the AX6 is ideal for collaborative applications where space is limited.

The AX6 provides a seamless operating environment for users of all experience levels, featuring user-friendly, no-code software and an intuitive user interface. Furthermore, the robot offers versatility and quality control, with benefits including a customizable Python development environment, industrial-grade kinematics, and a 3D simulator. Equipped with end-of-arm features—such as customizable multi-function user buttons, a multi-colored LED status ring, and simple connectors for tooling—this robot is perfectly suited for applications that require quick, easy setup and redeployment.

Power and force limiting: With an appropriate risk assessment, this feature facilitates greater worker interaction without the need for safety barriers.

User-friendly, no-code software: Program the robot using an intuitive interface that requires no prior programming experience.

Compact, lightweight, and robust design: The carbon-fiber structure enables a lightweight, space-efficient work cell, ideal for a wide range of collaborative applications. IP54 and ISO 5 cleanroom rating1

Customizable Python development environment: load your own libraries and modules to easily develop work cells for more complex robotic applications

Industrial kinematics: easily generate linear, curved, or joint-based movements in a no-code or Python-based environment

Multifunctional user buttons at the arm's end: includes three customizable buttons and two dedicated buttons; easily teach positions by manually moving the robot in free space and using the "Teach" buttons

Ethernet port and pneumatic connections at the arm's end: simplifies end-of-arm tooling for grippers, dispensers, and more

Compatible with various power sources: supports 100 V to 230 V AC and 48 V DC

Multicolor LED status ring at the arm's end: quickly assess the robot's status via color-coded indicator lights located at the end of the arm

3D simulator: test programs in a simulation environment before running them in the actual work cell

No-code software and development tools...Epson states that it designed the AX6 to provide a seamless operating environment for users of all skill levels, combining no-code software with an intuitive user interface. Together with the AX Portal—the company’s collaborative robot software—the robot offers a range of development tools designed to meet diverse automation needs.

For more advanced applications, a customizable Python development environment allows users to upload custom libraries and modules to develop more complex robotic work cells. Industrial-grade kinematics enable linear, curved, or jointed motion, whether controlled via the no-code environment or through Python-based programming.

The end-of-arm interface includes both dedicated and customizable buttons; operators can teach positions by manually moving the robot through free space and using these "teach" buttons. A 3D simulator allows users to test programs in a virtual environment before deploying them within an actual work cell.

Hardware design, ratings, and connections...The AX6 is built around a compact, lightweight carbon-fiber structure, which Epson notes helps create a space-efficient and low-weight work cell. The robot carries an IP54 rating and complies with ISO Class 5 cleanroom standards (ISO 14644-1). Epson highlights that this combination makes the AX6 well-suited for collaborative applications where space constraints and controlled environments are critical.

An Ethernet port and pneumatic connections at the end of the arm simplify the integration of end-of-arm tooling, such as grippers or dispensers. A multi-colored LED ring at the end of the arm provides visual feedback, allowing users to assess the robot's status through specific color-coded light signals. The AX6 supports multiple power sources, ranging from 100 V–240 V AC to 48 V DC. 

The robot described in that development announcement featured a 6 kg payload capacity and a 900 mm arm reach, weighing in at 17 kg—a design that Epson noted would allow for easy relocation and reconfiguration. Its controller measured 440 × 205 × 135 mm and weighed less than 6 kg; it was designed to be installed on mobile robotic platforms, such as automated guided vehicles (AGVs) and autonomous mobile robots (AMRs).

The design incorporated cleanroom-compatible transfer capabilities (meeting ISO 14644-1 Class 5 standards) and provided IP54-rated protection against dust and water splashes—though Epson noted at the time that this compliance was based on design evaluation and was not guaranteed at the time of shipment. Its smooth chassis, free of screw holes or sharp edges, was engineered to minimize dust accumulation and reduce the risk of contamination in cleanroom environments. The robot under development supported Python programming and was compatible with both 100–230 V AC and 48 V DC power sources.

by mundophone