How Fast is Verizon‘s 5G Ultra Wideband Network? A Detailed Look

Verizon‘s 5G Ultra Wideband network offers lightning fast peak download speeds reaching above 4 Gbps! That‘s over 100 times faster than the average 4G LTE connection. This blazing performance enables impressive new capabilities like downloading 4K movies in seconds.

But how fast is 5G Ultra Wideband in typical real-world usage? What are the exact speed ranges you can expect? How does it compare to Verizon‘s other 5G network and 4G LTE? Read on for a comprehensive guide examining the speeds and capabilities of Verizon‘s advanced 5G Ultra Wideband technology.

An Overview of 5G Ultra Wideband Speeds

First, let‘s quickly summarize the speeds 5G Ultra Wideband can deliver:

• Peak download speeds: Above 4 Gbps, with some reports of over 5 Gbps

• Typical speeds: 500 Mbps to 1 Gbps

• latency: Around 20 milliseconds

To put those numbers in perspective, with peak 5G Ultra Wideband speeds you could:

• Download a full length 4K HD movie in less than 10 seconds
• Download a 500 MB video game in just 1-2 seconds
• Stream 8K video with virtually no buffering

And at typical speeds of 500 Mbps to 1 Gbps, you‘ll still experience:

• Lightning fast downloads – like pulling down an entire album of music in under a second
• Ultra low latency for live streaming and interactive apps
• No lag or buffering when streaming 4K or 8K video

Now let‘s dig deeper into how these exceptional speeds are made possible.

The Technology Powering 5G Ultra Wideband‘s Speeds

5G Ultra Wideband operates on high-frequency millimeter wave (mmWave) spectrum in the 28GHz and 39GHz bands.

This spectrum provides a massive amount of bandwidth – up to 800 MHz per channel – compared to just 5-20 MHz per channel on 4G LTE. And more bandwidth equals higher data speeds.

Along with large bandwidth, mmWave frequencies allow packing in more antennas into a small space. 5G Ultra Wideband uses advanced antenna technologies like massive MIMO (multiple input, multiple output) that multiplies capacity.

The combination of huge bandwidth and advanced antennas gives 5G Ultra Wideband its ultra fast speeds and massive capacity when connecting devices directly to mmWave cell sites.

How 5G Ultra Compares to Other 5G Networks

Not all 5G is created equal. Let‘s see how Verizon‘s 5G Ultra Wideband compares to other flavors of 5G:

Verizon 5G Nationwide

• Spectrum used: Mid-band (2.5 GHz, 3.5 GHz)
• Typical speeds: 50 – 150 Mbps
• Description: Decent speeds with much wider coverage than Ultra Wideband. Uses Dynamic Spectrum Sharing (DSS) on existing 4G channels.

AT&T 5G+

• Spectrum used: High-band mmWave
• Typical speeds: 500 Mbps – 1 Gbps
• Description: AT&T‘s branding for mmWave 5G that competes directly with Verizon‘s Ultra Wideband.

T-Mobile 5G Extended Range

• Spectrum used: Low-band 600 MHz
• Typical speeds: 50 – 100 Mbps
• Description: Long range but slower due to narrow bandwidth. Marketed as 5G E by AT&T.

T-Mobile 5G Ultra Capacity

• Spectrum used: Mid-band 2.5 GHz
• Typical speeds: 300 Mbps
• Description: Faster than Extended Range and uses Sprint‘s mid-band spectrum. But slower than mmWave.

As you can see, Verizon‘s 5G Ultra Wideband using mmWave offers by far the fastest 5G download speeds available from any US carrier. No other flavor of 5G can match the peak throughput over 1 Gbps and typical speeds ranging from 500 Mbps to 1 Gbps.

Real-World Speed Test Examples

Let‘s look at some real-world 5G Ultra Wideband speed tests to see the technology in action:

• Mark Spoonauer from Tom‘s Guide got download speeds over 3 Gbps in ideal conditions standing outside a Verizon store in Chicago.

• Sascha Segan from PCMag got downloads peaking at 2.5 Gbps in his 5G Ultra Wideband testing in New York City.

• Youtube channel SpeedSmart achieved over 4 Gbps in some locations with optimal signal.

So in ideal conditions very close to the cell site, 5G Ultra Wideband can deliver on the promise of multi-gigabit speeds. But there are also factors that can impact speeds.

Real-World Factors Affecting 5G Ultra Wideband Speeds

The blazing fast peak speeds may not always be achievable in practice due to various limiting factors:

• Distance from cell site – Speeds degrade rapidly with distance from the mmWave transmitter.

• Line-of-sight obstructions – Buildings, walls, trees, etc. can block mmWave signals.

• Bandwidth sharing – Speeds drop when multiple users connect to the same cell site.

• Indoor vs outdoor – Speeds are generally slower indoors due to signal penetration issues.

• Network congestion – Speeds vary depending on overall traffic load on the network.

Due to these constraints, while 5G Ultra Wideband will occasionally hit peak speeds over 1 Gbps when conditions are ideal, real-world speeds are likely to be closer to the 500 Mbps to 1 Gbps range on average.

Still extremely fast, but not consistently hitting the multi-gigabit maximums. As mmWave deployment expands, Ultra Wideband coverage and capacity will improve.

5G Ultra Wideband Use Cases

The ultra low latency and ability to transfer large amounts of data wirelessly makes 5G Ultra Wideband a game changer for many cutting edge use cases:

• Cloud gaming – 5G allows streaming immersive games anywhere with no lag. Google Stadia requires 35 Mbps for 4K gaming – easily achieved on Ultra Wideband.

• Augmented/virtual reality – AR/VR apps require extremely fast speeds and low latency, which 5G Ultra delivers.

• Autonomous vehicles – Self-driving cars need to transmit massive sensor data in near real-time over 5G networks.

• Industrial automation – Robots and machines can be controlled wirelessly over 5G for flexible manufacturing.

• Multi-angle 8K video streaming – With 5G‘s high bandwidth and low latency, you could stream 8K video from multiple angles and switch seamlessly.

• Remote healthcare – Doctors can perform "telehealth" services and procedures using HD video and robotics over 5G.

These revolutionary applications give a glimpse of how 5G Ultra Wideband‘s impressive speeds can enable technologies of the future when widely available.

Limitations of Verizon‘s 5G Ultra Wideband

The downside to the ultra fast mmWave speeds is the limited signal propagation. Specific limitations include:

• Smaller coverage area – mmWave cells cover around 1000 feet vs over 5 miles for 4G LTE.

• Strict line-of-sight requirements – Blockages severely degrade signal.

• Poor building penetration – Speeds drop off indoors by walls, windows.

• Interference issues – mmWave is susceptible to interference from weather, physical obstructions, or other signals.

Due to these constraints, Verizon 5G Ultra Wideband is currently only available in certain outdoor areas of select cities. Rural coverage is very limited. So experiences can be hit-or-miss depending on exact location.

The Outlook for 5G Ultra Wideband

Verizon‘s mmWave 5G Ultra Wideband network is still in its infancy, with the carrier rapidly expanding coverage while working to address limitations.

Here are some developments to look for:

• New mmWave spectrum auctions will provide access to more bandwidth, enabling faster speeds and greater capacity.

• Beamforming advancements will allow signals to be directed more precisely for better penetration indoors and around obstacles.

• Small cell deployment will greatly densify 5G Ultra Wideband coverage in urban areas and inside buildings.

• Standalone 5G network architecture will reduce reliance on 4G LTE infrastructure for optimal performance.

So while the speeds and coverage are impressive for an early stage technology, expect 5G Ultra Wideband to keep advancing in speed, reliability and availability.

The Bottom Line

Verizon 5G Ultra Wideband delivers exceptional peak download speeds above 4 Gbps and typical speeds ranging from 500 Mbps to 1 Gbps. This enables new use cases like streaming immersive cloud gaming and augmented reality on the go. While the limited coverage and finicky nature of mmWave 5G poses challenges now, continued expansion and technical improvements will help Ultra Wideband achieve its full potential. For those able to consistently tap into its capabilities in select locations today, it provides an enticing glimpse of the future of mobile connectivity.