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Realme 14 Pro+ With Snapdragon 7s Gen 3 Chipset, 6,000mAh Battery Listed Online: Price, Features Revealed

Realme 14 Pro+ was listed on the company’s official site in China on Thursday. The latest smartphone from Realme is listed to run on the Snapdragon 7s Gen 3 chipset and boasts a 1.5K resolution display with 120Hz refresh rate. It is equipped with a triple rear camera unit led by a 50-megapixel primary Sony IMX896 sensor. It houses a 6,000mAh battery with 80W fast charging support. The Realme 14 Pro+ is confirmed to land in the Indian market on January 16 alongside the Realme 14 Pro.

Realme 14 Pro+ Price

The Realme 14 Pro+ is listed at CNY 2,599 (roughly Rs. 30,000) for the 12GB RAM + 256GB storage model. The 12GB RAM + 512GB storage version is priced at CNY 2,799 (roughly Rs. 32,000). It is up for sale in China in Gilded White and Sea Rock Grey (translated from Chinese) colour options.

Realme 14 Pro+ Specifications

The dual SIM Realme 14 Pro+ runs on Android 15 based on Realme UI 6.0 and features a 6.83-inch 1.5K(1,272×2,800 pixels) micro curved screen with 120Hz refresh rate, 3840Hz PWM dimming, and 1500nits of peak brightness. It runs on Snapdragon 7S Gen 3 chipset, paired with 12GB RAM and up to 512GB storage. The handset features a cold-sensitive colour-changing technology that changes the colour of the rear panel when the temperature drops below 16 degree Celsius.

For optics, the Realme 14 Pro+ has a triple rear camera setup headlined by a 50-megapixel Sony IMX896 primary sensor with optical image stabilisation (OIS) and an f/1.88 aperture. The camera unit also includes an 8-megapixel ultra-wide shooter and a 50-megapixel Sony IMX882 sensor telephoto with up to 3x optical zoom, 6x lossless zoom, and 120x digital zoom. On the front, it has a 32-megapixel selfie camera.

Connectivity options on the new Realme 14 Pro+ include 5G, 4G LTE, Wi-Fi, Bluetooth, GPS, Glonass, BeiDou, Galileo, QZSS, NFC, and a USB Type-C port. It has IP66 + IP68 + IP69 rating for water and dust resistance. It is equipped with a 6,000mAh battery with 80W wired fast-charging support.

Catch the latest from the Consumer Electronics Show on Gadgets 360, at our CES 2025 hub.

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Network Packets: Understanding How the Internet Works (Easy)

Network packets are small units of data that are sent from one network device to another.

When you send information online — like an email, a file, or a video stream — it’s broken down into packets, which travel separately to the destination. Once all the packets reach their destination, they are put back together to form the original message or file.

This guide explores network packets in detail: why they are essential, their structure, and how they influence network performance and traffic.

Why network packets?

A computer network transfers digital data in the form of network packets, a method far more efficient and flexible than traditional circuit-based transmission, like a copper wire phone network.

Unlike antiquated circuit switching, which requires the establishment of dedicated point-to-point connections before full-signal communications can happen, packet switching breaks data into small, standardized chunks.

These chunks (or packets) are self-contained bundles that have digital address information in their headers, directing them to the appropriate recipient. Then, intermediate network nodes such as routers and switches examine those headers to determine where to forward the packets throughout their journey on the global network mesh.

There are many reasons why this method of delivery is used:

1. Flexible routing saves time

Since packets travel independently, physical routers can determine alternative routing paths as needed to avoid congested network links or nodes.

This agility allows packets to flow around digital obstacles to find the least congested and fastest routes to their destinations at any given time. Thus, packet-switching networks like the internet can adapt in real time to changing demands far better than rigid legacy networks built on static paths.

2. Error resistance and effective resending

With traditional circuit switching, if any node along the fixed path between users were to fail, the whole connection would drop. Meanwhile, with independently routed packets in packet-switching networks, only the missing packets would require retransmission after a failure, not the entire message.

Additionally, packet switching is also less wasteful when message data gets lost or corrupted along its journey. With old-school networks, even one failure could disrupt an entire communication, forcing the endpoints to start the whole transfer over again from scratch.

Thanks to the sequence numbers stamped on every data packet, however, packet switching is much more resilient. This means devices can easily identify missing packets in a transmitted message stream. Then, instead of pointlessly resending error-free packets again, the devices simply request replacements for the specific lost or damaged packets.

This resilience is particularly evident in VoIP (Voice over Internet Protocol) systems when compared to the traditional PSTN (Public Switched Telephone Network). While PSTN relies on circuit-switched technology, which establishes a dedicated line for the duration of a call, VoIP transmits voice data as packets over the internet. If a packet is lost or damaged, VoIP systems can request only the missing pieces, unlike PSTN, where any network issue can disrupt the entire call.

SEE: The PSTN is still in use, but there are better options

3. Highly efficient infrastructure sharing

In circuit-switched networks, dedicated connections between endpoints become dormant whenever parties pause active communications, which is technically a waste of network capacity.

Packet-switching networks, on the other hand, are extraordinarily efficient at using available communication capacity. The networks can juggle many different phone calls and internet transmissions at the same time by chopping up data into little packets first.

By blending together little pieces of simultaneous flows, the network makes sure no wires go idle when only one call pauses. This process is called statistical multiplexing — but the important part is that it makes the most of every bit of available capacity.

The efficiency of packet switching also lends itself to maximizing things like fiber optic cables and LTE bands. When combined, these innovations enable more calls, videos, chats, posts, and page views to operate concurrently through shared lines.

4. Enhanced security through selective encryption

The bite-sized encapsulation of session data into packets also offers several network security advantages. While packet headers must remain unencrypted for successful routing, packet payloads can utilize encryption to keep application-level data confidential.

Packet switching also enables more secure communication through public networks like the internet. The little data bundles can use special encryptions that securely verify the true sender without decrypting the content itself.

Technologies like VPNs (Virtual Private Networks) use these methods to create encrypted tunnels within public networks. Thus, when you connect through a VPN to your office or home network, your packets stay safe from prying eyes. Of course, the destination knows the packets originate from you, but potential hackers won’t be able to trace them back to their source.

Altogether, the packet-switching system allows billions of devices to communicate at high speeds in a flexible, efficient, and secure manner. Today, these humble information packets power everything we do across today’s digital networks, from sending emails to video chatting with friends across the globe.

Three parts of a network packet

Every packet has distinct parts that work together in unison. The three essential components of a network packet are as follows:

1. The packet header

The packet header contains vital metadata for transport, such as:

  • Source and destination: These are the sending and receiving IP addresses. Like postal addresses, they identify where packets come from and where they end up.
  • Verification fields: This includes checksums and other data to confirm validity and accurate delivery.
  • Priority flags: These mark packets that require preferential handling, like video packets that are sensitive to latency.
  • Sequence numbering: This is a kind of data that labels the order of packets so messages can be reassembled.

In summary, the packet header provides the delivery instructions and handling flags necessary to keep packets flowing smoothly.

2. The packet payload

The payload section of a network packet carries the actual end-user data that is being transmitted from the sending application (like a web browser) to the receiving application at the destination.

This user data payload can contain things like:

  • Text, images, video, and multimedia elements comprising a webpage.
  • Audio data from calls made via VoIP services.
  • Video footage being streamed from a security camera.
  • Sensor measurements from an internet-connected weather station.
  • Database entries being synchronized to the cloud.

In other words, the payload is like the cargo container of a transport truck — it holds the actual goods being shipped from point A to point B. Focusing on maximizing payload size and delivery efficiency is crucial because sending user data is the entire purpose behind transmitting packets in the first place.

3. The packet trailer (or footer)

Defining clear beginnings and endings for variable-length packets helps network hardware parse transmission streams efficiently.

Trailers provide conclusive boundaries so that routers and switches processing at ultra-high speeds know when one packet ends and another begins. This allows them to handle, route, and deliver billions of packets at a rapid pace without risking fragmentation.

Trailers also contain error-checking mechanisms like cyclic redundancy checks (CRCs) to validate payload integrity. This means that if calculated trailer CRCs don’t match the expected values computed earlier, errors are detected, and the payloads can be marked for retransmission.

At the end of the day, packet trailers kind of act like safety barriers at the end of highways — because they’re vital tools for preventing accidents. By capping packets cleanly, they prevent stray fragments from unintentionally merging and corrupting transmissions.

Network packets and network traffic

Network traffic is essentially a collection of packets traveling across the network. Understanding packet behavior helps diagnose congestion or identify inefficiencies.

Understanding the behavior of these packets is crucial for managing and optimizing network performance, particularly for business phone services and other real-time communications applications.

Network traffic consists of packets traveling across the network, and when congestion occurs, high packet loss can result in lag, buffering, and interruptions in services like VoIP or video calls. Monitoring packet performance helps identify inefficiencies, and maintain smooth operations.

Network monitoring tools play a key role in analyzing packet flows to diagnose issues such as dropped connections, slow speeds, or misconfigured devices. Packet sniffing, a method used to tap into network traffic, enables administrators to identify performance bottlenecks while encryption ensures that sensitive data remains protected from malicious actors.

Admins can configure networks to prioritize specific types of traffic to ensure that critical applications perform reliably even under heavy load. Using QoS settings to prioritize voice packets is a common strategy for optimizing a VoIP network, for example.

Continual monitoring and optimization of packet performance allow businesses to maintain fast, secure, and efficient networks that meet modern demands in both public and private environments.

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OnePlus 13 Can Be Tracked Even When Powered Off With Google’s Find My Device Network

OnePlus 13 (Review) — the company’s latest flagship smartphone — can be located when stolen even if the handset’s battery runs out, or it is powered off. It was launched in India and global markets on January 7, equipped with features such as Hasselblad-branded cameras, Snapdragon 8 Elite chipset, and a 6,000mAh battery. The OnePlus 13 also brings support for Google’s Find My Device network, along with anti-theft features that were previously exclusive to select Pixel devices.

OnePlus 13 Supports Google’s Find My Network

First spotted by Android Authority, the latest OnePlus flagship supports an anti-theft feature dubbed Powered Off Finding. As the name suggests, users can locate their lost or stolen OnePlus 13 devices by ringing them or viewing their location on a map not only if they are offline but even when powered off.

The feature uses encrypted location information sent by the owner’s device and others in the Find My Device network. When a handset is connected to the network, it “securely” sends the location information of devices it detects in the vicinity to help owners locate them.

It works courtesy of Qualcomm’s flagship Snapdragon 8 Elite SoC with the FastConnect 7900 mobile connectivity system which integrates Wi-Fi 7, Bluetooth 6.0, and Ultra Wideband (UWB) capabilities into a single chip, optimised with the help of artificial intelligence (AI).

find my oneplus 13 Google Find My Device Network

Powered Off Finding on the OnePlus 13 Uses Google’s Find My Device Network

Gadgets 360 was able to confirm that the feature is available on our OnePlus 13 review unit, and it works as advertised.

This feature was first announced in April 2024, but was exclusive to the Pixel 8 models. At the time, Google claimed that it used specialised Pixel hardware to enable powered-off location tracking. OnePlus is the latest original equipment manufacturer (OEM) to bring this feature to its smartphones.

OnePlus 13 Specifications

The dual-SIM (Nano) OnePlus 13 sports a 6.82-inch Quad-HD+ (1,440×3,168 pixels) LTPO 4.1 ProXDR screen with 510ppi pixel density, 120Hz refresh rate, and a peak brightness level of 4,500 nits. It is powered by a Snapdragon 8 Elite chipset, paired with Adreno 830 GPU, up to 24GB of LPDDR5X RAM, and up to 1TB of UFS 4.0 inbuilt storage. It runs on Android 15-based OxygenOS 15.

For optics, the phone is equipped with a Hasselblad-tuned triple rear camera unit comprising a primary 50-megapixel Sony LYT-808 sensor with optical image stabilisation (OIS), a 50-megapixel S5KJN5 ultra-wide camera, and a 50-megapixel Sony LYT-600 periscope telephoto camera with 3x optical zoom. On the front, it has a 32-megapixel Sony IMX615 camera.

The OnePlus 13 comes with an IP68+IP69 rating and packs a 6,000mAh Silicon NanoStack battery with support for 100W wired SuperVOOC charging and 50W wireless charging.

Catch the latest from the Consumer Electronics Show on Gadgets 360, at our CES 2025 hub.

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Big-screen TVs are everywhere at CES 2025, but I doubt they’ll replace projectors anytime soon

At CES 2025, it’s been all about the big-screen TVs. Several TV brands have confirmed new 100-inch-plus TVs including Hisense, Samsung, TCL and LG. While this isn’t Hisense or TCL’s first rodeo into the 100-inch TV world, Samsung announced a 115-inch version of its Samsung QN90F Neo QLED TV as part of its 2025 Neo QLED lineup. LG also revealed a 100-inch model of its QNED85 as part of its 2025 QNED TV lineup, throwing its hat in the 100-inch ring. These brands, all responsible for making some of the best TVs on the market, have experience with larger screen sizes before, with CES 2024 and 2024 in general seeing a mass increase in 98-inch sized TVs. But CES 2025 is taking things a step further, breaking the 100-inch barrier. Hisense also revealed a 116-inch, RGB mini-LED TV, called the 116-inch UXN, to add to its already stacked 100-inch TV lineup, including the 110-inch UXN, 100-inch U8K and more. It even announced a 136-inch MicroLED TV that it says will be consumer-ready, due for release in 2025, with a 163-inch version to follow. While the demand for big screen TVs seems to be on the rise, it does beg the question – are these TVs going to become the go-to, big screen option for home theater fans, replacing projectors? Honestly, I don’t think so. Not yet anyway. It’s all about the money Samsung goes big with a 115-inch model of the QN90F (pictured) – but what price will it be? (Image credit: Future) While we don’t yet have confirmation on the pricing of the majority of the announced big-screen models, we can look at other, currently available models for an idea. The prime example is the Hisense 110-inch UXN. A mini-LED capable of 10,000 nits peak brightness (though based on my testing of it, it’s closer to 3,000 nits sustained peak brightness when measured on a 10% window), the 110UXN costs roughly $15,000 / £20,000, so is very much a premium TV. For the cream of the crop of larger screen TVs, such as the 97-inch LG G4, you’ll be looking to pay $24,999 / £24,999. This is far beyond most people’s budgets and means larger TV screens sit out of reach. For this, you could easily get one of the best 4K projectors, including the ultra-premium JVC DLA-NZ800, which costs $14,999 / £14,999, and a large screen, up to 150-inches, to go with it. Even dropping down to the still excellent Sony XW5000 (which I had experience with at my previous retail job) which costs $4,999 / £4,999, and adding a decent sized screen to this and you’re still way off the premium TVs above. Even the LG CineBeam Q, one of the best ultra short throw (UST) projectors, can hit over 100-inch projection for under $1,000 / £1,000. So why would you opt for anything other than a projector at these 100-inch sizes? Cheaper, big screen TVs – for and against The Hisense L9H projector (left) vs the Hisense 100-inch U7K (right) (Image credit: Future) OK, so above I picked some of the most extreme examples of big-screen TVs. The truth is there is a crop of 100-inch mini-LED TVs, one of the better panel types for bigger screens, out there for under $5,000 / £5,000 – some for as low as $2,000 / £2,000. The Hisense U8K, one of 2023’s best mini-LED TVs, is one of those budget sets, retailing for around $3,999, but we’ve seen it as low as $2,599 during Black Friday before. For a mini-LED TV of this quality, which we praised for its detail, brightness and contrast, that’s a bargain at this size. I even tested a 100-inch Hisense U7K against the Hisense L9H Laser TV (UST projector) to see which was better if you wanted a big home theater screen on a budget, and although I chose the L9H projector, the U7K mini-LED TV came very close and even bested the projector in some areas (namely during brighter viewing conditions). Edge-lit, big screen TVs such as the Samsung CU8000 (pictured) can struggle with dark images. (Image credit: Future) There’s also a score of cheap, big screen QLED and LED models from Hisense, TCL, Samsung and more, for as low as $1,299 / £1,299, which is significantly cheaper than what you would have to fork out for a decent projector and screen. Of course, it’s crucial to make sure these TVs have the right type of lighting – edge-lit TVs are best avoided, as I discovered testing a 75-inch budget Samsung. However, the overall issue with these cheaper, big screen TVs, is they can have noticeable flaws. This could be poor backlight control, resulting in backlight blooming, and poor black uniformity (the ability to display dark tones evenly across the whole screen), something similarly priced projectors are unlikely to suffer from. The other problem is, for how much you would spend on one of the ‘better’ affordable big screen TVs, such as the Hisense U8K or a more premium set, you could easily get a very good ultra short throw projector. The Hisense PX3-Pro, which costs around $3,499 / £2,499 and earned four-and-a-half out of five in our review, thanks to its excellent HDR picture quality and high versatility, is a prime example of this. Final thoughts While it appears that big screen TVs are indeed here and could be the future of home theater viewing, they ultimately aren’t going to replace projectors anytime soon. To get the very best quality from a large screen TV, you’d need to spend more than you would for a very good 4K or UST projector and an even larger screen (over 130 inches, say). Don’t get me wrong, some of the big-screen TVs we’ve seen here at TechRadar, myself included, are certainly impressive and rival the most elite of projectors. But until these big-screen TV prices reduce, they’re not going to dethrone the projector for those looking for the best bang-for-your-buck home theater. You might also like TechRadar will be covering all of the latest CES news from the show as it happens. Stick with us for the big stories on everything from 8K TVs and foldable displays to new phones, laptops, smart home gadgets, and the latest in AI. And don’t forget to follow us on TikTok for the latest from the CES show floor!

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Blue Origin New Glenn Set for Launch on January 10 from Cape Canaveral

The highly anticipated debut launch of Blue Origin’s New Glenn rocket has been scheduled for January 10, 2025. The heavy-lift rocket, designed for both commercial and government missions, will take off from Florida’s Cape Canaveral Space Force Station. A launch window of three hours, beginning at 1 a.m. EST, has been announced. The rocket’s inaugural flight marks a significant milestone for Blue Origin as the company aims to validate its capabilities and establish itself as a major player in the space industry.

New Glenn’s Mission and Capabilities

According to Blue Origin, as reported by space.com, the New Glenn rocket is a reusable, 320-foot-tall launch vehicle capable of carrying 50 tons (45 metric tons) to low Earth orbit (LEO). The NG-1 mission will test the company’s Blue Ring spacecraft platform, which is designed to support a variety of orbital payloads. This demonstration will include assessments of communication systems, in-space telemetry, and ground-based tracking capabilities. The payload will remain aboard the rocket’s second stage for a six-hour mission, as stated by Blue Origin.

Booster Recovery and Future Goals

The mission will also attempt a recovery of the rocket’s first stage booster, which will land on a ship stationed in the Atlantic Ocean, as per reports from space.com. The company’s senior vice president, Jarrett Jones, emphasised the importance of the flight, stating that rigorous preparations had been undertaken but that true insights could only be gained through actual launch experiences.

NG-1 is a critical step toward securing certification for U.S. national security missions. A successful outcome would bring Blue Origin closer to fulfilling these high-stakes contracts, further solidifying its position in the competitive aerospace sector.

This launch will serve as a proving ground for the New Glenn system, with valuable data expected to inform future missions and technology advancements.

Catch the latest from the Consumer Electronics Show on Gadgets 360, at our CES 2025 hub.

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Ammonium Hydrosulfide Identified as Primary Component of Jupiter’s Clouds, Not Ammonia

Recent findings have challenged the traditional understanding of Jupiter‘s clouds, showing they are not primarily composed of ammonia ice. Instead, it has been discovered that the clouds are formed from ammonium hydrosulfide mixed with photochemical materials. This revelation, achieved through a collaboration of professional and amateur astronomers, sheds new light on the composition and dynamics of Jupiter’s atmosphere, offering simpler methods for mapping the planet’s cloud layers.

Ammonium Hydrosulfide Identified as Main Cloud Component

According to the study published in the Journal of Geophysical Research: Planets, the breakthrough came after amateur astronomer Dr. Steven Hill developed a method using commercial telescopes and specific filters to measure ammonia abundance and cloud-top pressures. His technique demonstrated that the clouds reside in warmer regions of Jupiter’s atmosphere, deeper than the expected ammonia cloud layer. This conclusion was confirmed when the method was applied to data from the Multi Unit Spectroscopic Explorer (MUSE) instrument on the Very Large Telescope in Chile.

Professor Patrick Irwin of the University of Oxford explained to phys.org that the simulations showed light interacting with gases at higher pressures and temperatures. This ruled out ammonia ice as the main component of the clouds and instead pointed to ammonium hydrosulfide mixed with smog-like materials. These substances are believed to contribute to the planet’s characteristic red and brown hues.

New Opportunities for Citizen Science

The study highlights how Dr. Hill’s method, which compares brightness levels in narrow color filters, matched the accuracy of complex computational techniques. According to a statement made to phys.org by John Rogers of the British Astronomical Association, this simpler method allows amateurs to frequently monitor variations in Jupiter’s atmospheric features, linking chemical changes to observable weather phenomena like storms and the Great Red Spot.

Photochemical reactions in Jupiter’s atmosphere are thought to prevent ammonia from condensing into clouds. Similar observations were made on Saturn, suggesting that photochemical processes play a significant role in shaping the atmospheres of gas giants.

Catch the latest from the Consumer Electronics Show on Gadgets 360, at our CES 2025 hub.

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When to Use a Mesh VPN and Four Signs You Shouldn’t

A mesh Virtual Private Network (VPN) is a secure, flexible way for remote teams to communicate over the internet.

Unlike traditional client-server VPNs that route traffic through a central server, a mesh VPN connects each device directly to others, allowing for faster, more efficient data transmission. This decentralized approach ensures that every team member can securely access the network without relying on a single point of failure.

Mesh VPNs can provide superior flexibility and security in certain scenarios, but they’re not always the best solution for every network.

Mesh VPN vs traditional VPN

Understanding the distinctions between these two networks will be easier if you are familiar with how a VPN works and basic network terminology. Let’s go through both in detail.

A traditional VPN (aka: client-server VPN or centralized VPN) runs on a main server that acts as a central gateway for all data. This is known as a hub-and-spoke model, where all of your data traffic — including files, emails, and VoIP calls from one team member to another — gets routed through the primary intersection point before reaching its destination.

The problem with this is that if the main server goes down, everyone loses access to the network. Likewise, if a cyber attacker gains access to the system, all user data becomes vulnerable.

Another major complaint regarding traditional VPN technology is its unreliability. Specifically, since every data packet must flow through one central hub, sudden increases in traffic can create bottlenecks that slow down performance. If this happens during peak hours, for instance, users will be battling for bandwidth and get frustrated by network latency as a result.

Of course, you can sometimes restore network performance by turning off your VPN, but then you leave your network open to outside threats.

SEE: Learn how to check if your VPN is working.

A mesh VPN is decentralized. Each device acts as both a client and a server, enabling direct communication with other devices in the network. In this way, it spreads network access across the entire system by connecting multiple devices, each acting as a point in the network.

Originally developed for military use, mesh technology was created to solve the problem of spotty connectivity in the field, keeping team communication secure and smooth in any location. Categorized as a Peer-to-Peer (P2P) model, the strength of a mesh VPN lies in its ability to route information among multiple pathways — which is much more efficient than routing through a central managing server.

SEE: Learn more about the differences between client-server and P2P networks.

On a mesh VPN, each node is its own access point, ensuring continued internet access for all users even if one loses connectivity. Instead of routing information along one pathway from the main server to each user, data travels from node to node along the fastest route available at any given moment, supporting faster service even with multiple users on the network.

With the traditional hub-and-spoke VPN, your central server gateway sits in one specific location. The farther you travel from this central hub, the slower and weaker your connection will be — especially as more family or team members hop onto the network. The solution offered by mesh VPN implements more hubs and/or nodes, creating a stronger connection across a wider space.

Smart devices such as phones and watches can act as nodes — and so can routers, desktop computers, gaming consoles, and additional servers. Together, these can all help create a convenient wireless network capable of providing reliable coverage across all areas of a home, an office building, or a remote working location.

Mesh VPNs still use at least one central server, called a control plane, to handle system-wide configurations and updates. From there, admins can customize various network settings, implement security measures, and adjust which nodes can communicate with each other. Keep in mind that you don’t have to manage this system yourself, as the best enterprise VPN providers offer cloud-hosted options, so you don’t have to manage it yourself.

Full mesh vs partial mesh VPN

In a full mesh VPN, every device or node is directly connected to every other device in the network. This means that data can be transmitted between any two nodes without needing to go through a central point. This design offers redundancy and flexibility, as multiple communication paths are available between devices. However, it also requires more careful management of each node’s connections and resources.

A partial mesh network connects only specific nodes, coordinating which devices can communicate with one another based on network needs or roles. This approach can reduce complexity and resource use, as fewer direct connections are needed. Each node in a partial mesh can be individually programmed, which makes it an ideal setup for testing new software, security features, or configurations on a small scale.

Downsides to mesh networks

Despite how mesh VPNs address many of the issues associated with traditional hub-and-spoke networks, there are some notable trade offs:

  • Higher latency: Since data passes through multiple devices before reaching its destination, the network can experience higher latency, particularly with larger networks.
  • Scalability challenges: While mesh networks scale well, the number of connections grows exponentially as more devices are added, potentially leading to performance issues or management difficulties.
  • Security risks: More devices connected directly to each other increases the attack surface, requiring robust security measures to mitigate risks.
  • Resource usage: Mesh VPNs use more system resources due to the need for each device to handle its own traffic and data management, potentially impacting performance.

Let’s talk about a few of these downsides, as they might surprise readers.

With security, for example, we’ve talked about how the decentralization of a mesh VPN has advantages — but it also comes with new vulnerabilities to network security threats. With more devices connected directly, the attack surface increases — each device connected to the mesh VPN becomes a potential entry point for malicious actors.

Network latency can be an issue, as well, especially in partial mesh networks where data is forced along a specific route. On really large networks, this can be a big problem.

These downsides can certainly be addressed. To ensure low latency for employees relying on a mesh VPN, for example, admins can optimize routing paths to prioritize direct, low-latency routes between devices. They use network monitoring tools to identify issues early, prevent congestion, and maintain smooth data flow.

When to use mesh VPN

The introduction of mesh VPNs provided a useful stop-gap solution for the increasing number of businesses moving toward a hybrid work model. By setting up remote VPN access, team members could work from any location using their home or Local Area Network (LAN) and access all shared private network resources. Today, many organizations still rely on this P2P model — which works really well for large teams operating from various locations.

Mesh VPN can also be configured to support an existing hub-and-spoke system, siphoning off some of the data burden to streamline the user experience. In fact, a hybrid system known as Dynamic Multipoint VPN (DMVPN) combines both the traditional and mesh approaches. With a central server acting as the primary gateway for incoming traffic, all intra-network communication occurs on the P2P network.

Nevertheless, larger companies with sizable IT budgets are ultimately moving toward more secure alternatives to VPN technology—and growing concerns over intra-network vulnerabilities have given rise to options such as Zero Trust Network Access (ZTNA) and Software-Defined Wide Area Network (SD-WAN).

While mesh VPNs focus on walling out external threats, both ZTNA and SD-WAN technology implement security measures within the network as well. These approaches treat even authorized users as potential threats, only allowing access to specific role-based files and pathways.

SEE: Check out my full post on when to use SD-WAN or VPN.  

That said, mesh VPNs remain a comparatively cost-effective solution for companies who need to share a reliable network and aren’t particularly concerned about the storage of highly sensitive data. At the end of the day, mesh system complexity — while greater than that of a traditional VPN — is much more manageable and easily scalable than ZTNA and SD-WAN.

So, while those alternatives are directly designed to tackle latency and cybersecurity issues, they are probably better suited for businesses with robust IT budgets, high-risk privacy concerns, and tons of users.

SEE: Learn network security architecture best practices and how to apply them.

Four signs you shouldn’t use a mesh VPN

1. It’s illegal in your country

VPNs are legal in the U.S. and many countries around the world. There are a few nations, however, that ban or restrict their use—such as China, Iraq, Russia, and North Korea. Be sure to double-check the regulations in your specific areas of operation before implementing this system.

2. Your team is small and centrally located

For home-based businesses and teams that operate within a smaller office space of around 5,000 square feet, a mesh VPN might be overkill. One central server may work just fine for your needs. The best VPN solutions for small businesses offer are fully-hosted, which means you don’t have anything to set up and zero maintenance moving forward — employees will just sign into the service.

3. You have many untrusted devices on your network

When you have a large number of untrusted devices on the network, such as contractors, or third-party vendors, using a mesh VPN can be risky. Any untrusted device can potentially compromise the security of the entire network. This makes it harder to enforce strict access controls and monitor user behavior, increasing the risk of unauthorized access or insider threats.

4. Your IT resources are limited

Setting up and maintaining a mesh VPN requires significant IT knowledge, especially when configuring multiple access points and managing the control plane. If your team lacks the expertise or time to properly manage these tasks, the complexity of a mesh VPN could lead to more challenges than benefits. In such cases, a simpler solution may be more appropriate to avoid ongoing maintenance issues.

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OnePlus 13 Mini Said to Be in Development; Key Specifications Tipped

OnePlus 13 and OnePlus 13R were launched in select global markets including India on Tuesday. The handsets are powered by Snapdragon 8 Elite and Snapdragon 8 Gen 3 chipset, respectively. The OnePlus 13 sports a 6.82-inch Quad-HD+ LTPO display, while the OnePlus 13R has a 6.78-inch full-HD+ LTPO screen. Now, a tipster has suggested that the Shenzhen-based company is working on a smaller handset with the Snapdragon 8 Elite SoC. Key specifications of the purported smartphone have leaked as well.

OnePlus 13 Mini/ OnePlus 13T Features (Expected)

Tipster Digital Chat Station (translated from Chinese) suggested in a now-edited Weibo post that OnePlus is working on a smaller smartphone with a 6.31-inch 1.5K LTPO OLED flat display with slim, uniform bezels. It is speculated to launch with the moniker OnePlus 13 Mini or the OnePlus 13T.

oneplus 13 mini 13t dcs weibo gizmochina oneplus 13 mini

OnePlus 13 Mini/ OnePlus 13T leaked features via Digital Chat Station on Weibo
Photo Credit: Gizmochina

The purported OnePlus 13 Mini or the OnePlus 13T will likely get a Snapdragon 8 Elite chipset, according to the tipster. The handset is expected to get a glass body and a metal middle frame. For security, it is tipped to carry a short-focus in-screen fingerprint sensor.

As per the tipster, the rumoured OnePlus 13 Mini or the OnePlus 13T phone could sport a triple rear camera setup including a 50-megapixel Sony IMX906 primary sensor, an 8-megapixel ultra-wide shooter, and a 50-megapixel periscope telephoto camera with 3x optical zoom. The tipster added that the camera details in the actual product may vary.

Responding to another Weibo user, the tipster said that the purported OnePlus 13 Mini or the OnePlus 13T model will vary from the rumoured Oppo Find X8 Mini in terms of chipset and camera hardware. The latter is tipped to come with a MediaTek Dimensity 9400 SoC and a triple rear camera unit, including a Sony IMX9 series main sensor and a 50-megapixel ‘high-quality’ periscope shooter.

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Panasonic announces its 2025 TV lineup, led by a brighter flagship OLED TV with a new Prime Video Calibrated Mode

Panasonic reveals its 2025 TV lineup The range is headlined by the flagship Z95B OLED TV The lineup includes the W95B mini-LED and W70B LED TVs Panasonic has revealed its 2025 TV lineup at CES 2025. The reveal consists of three TVs – the flagship Z95B, the W95B mini-LED, and the W70B, a more entry-level LED TV. There is currently no pricing info or release dates for these models. The Panasonic Z95B, successor to the Panasonic Z95A, one of 2024’s best OLED TVs, is the flagship set in the 2025 lineup. It will use a new ‘Primary RGB Tandem Panel’ instead of the micro-lens array (MLA) OLED panel used in its predecessor, which Panasonic says will result in higher brightness, better detail and greater color volume. The Panasonic W95B will have an improved mini-LED panel with up to 2.5x more dimming zones compared to last year’s W95A, which will result in improved contrast and better black levels. The entry-level Panasonic LED series will support HDR10+ (decode only), HDR10 and HLG formats and will have a slim-bezel design. All three sets use Fire TV as their smart TV platform. Both the Z95B and W95B will feature a new Prime Video Calibrated Mode, a picture mode optimized for watching Amazon Prime Video content, as well as Calman and ISF calibration tools to fine-tune picture settings, a first for a Fire TV model. In the US, both the Z95B and W95B will also feature an ATSC 3.0 NEXTGEN TV tuner for broadcast TV. The Z95B and W95B will be available in both the US and the UK, while the W70B will be available in the US only. Scroll down for more detailed information on each TV. Panasonic Z95B OLED TV The Panasonic Z95B on display at CES 2025 (Image credit: Future) The Panasonic Z95B will be available in 55, 65 and 77-inch sizes, with the smallest and largest models available for the first time in the US (the Z95A was only available in a 65-inch size last year). Sign up for breaking news, reviews, opinion, top tech deals, and more. The Z95B’s biggest upgrade over its predecessor, the Z95A, is a new quad-layer Primary RGB Tandem Panel, which is coupled with Panasonic’s own ThermalFlow cooling system. Panasonic says this will make the Z95B bolder, brighter, more colorful and more detail-rich than the Z95A. The new panel is in place of the micro-lens-array(MLA) OLED panel used in the Z95A, as well as the LG G4. It’s not officially confirmed whether this quad-layer panel is the same ‘four-stack’ panel set to feature in the LG M5 and G5 OLEDs, but this seems likely. The Z95B features an HCX Pro AI Processor MK II, which will support both Dolby Vision IQ and HDR10+ HDR formats. There is also a Precision Detail feature, designed to “unlock more from Dolby Vision content”. The Z95B’s built-in speaker system has been re-designed to allow for a wider soundstage and improved processing for spatial audio. It will support Dolby Atmos audio format as well. If its speaker system is anything like the Z95A’s, which was arguably the best TV for sound released in 2024, we have high hopes. The Z95B supports gaming features you’d expect to find on the best gaming TVs, including 4K 144Hz, VRR (AMD FreeSync Premium and Nvidia G-Sync), ALLM and Dolby Vision gaming, as well as a True Game Mode. Panasonic W95B mini-LED TV (Image credit: Panasonic) The Panasonic W95B is the mini-LED entry in Panasonic’s 2025 TV lineup. It will be available in 55, 65, 75 and 85-inch sizes in both the US and UK. The W95B features a mini-LED panel that will deliver enhanced contrast, better black levels and better detail than previous mini-LED models, according to Panasonic. With 2.5x more local dimming zones than the W95A (this depends on screen size), the W95B promises better backlight control, resulting in an overall better picture. The W95B will feature the same HCX Pro AI Processor MKII found in the Z95B. It will support Dolby Vision IQ and HDR10+ formats, along with a Precision Detail feature that “unlocks more from Dolby Vision content”. The W95B is also well suited for gaming, with 4K 144Hz, AMD FreeSync Premium and Nvidia G-Sync VRR, ALLM and Dolby Vision gaming, which is also supported at 144Hz. The W95B’s built-in sound system has yet to be confirmed, but we do there is a 20W subwoofer included. Panasonic W70B LED TV (Image credit: Panasonic) The Panasonic W70B will be available in the US in 43, 50, 55, 65, 70, 75 and 85-inch sizes. The W70B uses an LED panel and supports 4K HDR formats including HDR10+ (though this is decoded), HDR10 and HLG. It will also feature MEMC for fast-paced images and sports viewing. There are four HDMI ports for connectivity, though there is no confirmation as to whether any of these will support HDMI 2.1 for gaming. The W70B will feature voice control as part of Fire TV, which can be exectuted using the Alexa voice remote. You might also like We’re covering all of the latest CES news from the show as it happens. Stick with us for the big stories on everything from 8K TVs and foldable displays to new phones, laptops, smart home gadgets, and the latest in AI. And don’t forget to follow us on TikTok for the latest from the CES show floor!

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2,300-Year-Old Dwarf Statuette from Alexandria Reveals Ptolemaic Art Insights

A 2,300-year-old marble statuette discovered in Alexandria, Egypt, has offered new insights into how dwarves were perceived during the Ptolemaic period (332–150 B.C.). Depicting a muscular, nude dwarf in motion, the 4-inch sculpture reflects a combination of Egyptian and Greek artistic traditions. Despite missing its arms, legs, and part of the head, the craftsmanship of the piece indicates a highly skilled rendering of human anatomy. It is currently housed at the Metropolitan Museum of Art in New York City.

Depictions of Dwarves in Ptolemaic Art

According to information from the Metropolitan Museum of Art, as reported by Live Science, the statuette incorporates elements from Greek art, such as classical nudity and Hellenistic realism, blended with Egyptian cultural aesthetics. This synthesis points to the cultural exchange that characterised the Ptolemaic dynasty, a period when Egypt was ruled by Ptolemy I Soter, a general of Alexander the Great. The depiction of a dwarf engaged in dance suggests a significant societal role, unlike the exaggerated caricatures of dwarves often seen in Greek art.

Egyptian Perspectives on Dwarves

Historical records indicate that dwarves were highly regarded in ancient Egypt, often serving in the households of nobles and pharaohs. Their association with the god Bes, who was depicted as a short and muscular protector of families and women in childbirth, contributed to their societal acceptance. Bes, known as a dancer and tambourine player, symbolises strength and guardianship in Egyptian mythology. The statuette’s design, which likely depicted the dwarf with a percussion instrument, aligns with this cultural significance.

A Glimpse into Cultural Integration

The artifact demonstrates the integration of different human forms into Egyptian society during the Ptolemaic era. The Met has emphasised that such depictions reflect a broader tradition of valuing diverse body types, setting the Egyptian approach apart from other ancient civilisations. This statuette, though small in size, offers a profound understanding of cultural dynamics during a transformative period in history.

Catch the latest from the Consumer Electronics Show on Gadgets 360, at our CES 2025 hub.