Starlink Latency – Is It Fast Enough to Hire for Events?

Network providers are constantly striving to improve performance to their service and Starlink engineering teams are no different. Starlink’s focus and goal is to deliver a service where the median latency is a stable 20ms with minimal packet loss. 

With customers and users across the globe, Starlink has managed to meaningfully reduce the median and worst-case latency over the past month. As an example, users in the US benefited from a reduction of 30% in median latency, taking it from 48.5ms to 22ms during peak times. Worst-case latency during peak times also dropped, this time by 60% from over 150ms to less than 65ms. 

Customers outside of the US have also enjoyed reduced median latency by up to 25% and worst-case latency by up to 35%. 

What is Latency?

Already we’ve talked a lot about latency – That’s what this article is about! Here’s a brief explanation of what latency actually is. 

Latency is generally measured in milliseconds, and refers to the amount of time it takes for a packet to be sent from your Starlink router to the internet and for the response to be received. This can also be referred to as RTT or “round-trip time.” 

For someone’s perceived experience of using the internet, latency is one of the most important factors. It can significantly affect things like:

  • The speed in which web pages load
  • How ‘real life’ audio and video calls feel
  • Responsiveness of online gaming

If you’re wondering actually how important latency is when it comes a user experience of using the internet, here’s an example. During testing, increasing the bandwidth beyond 10 Mbps didn’t increase the speed of which a web-page loaded, yet those that reduced latency saw much quicker load times. 

How Does Starlink Measure Latency?

Starlink’s latency is measured by collecting anonymous measurements from millions of Starlink routers. This measurement is taken every 15 seconds. The median and worst-case latencies are then calculated by taking the average of these 15 second latency measurements. 

Median Latency

The median (50th percentile or p50) refers to the point where half of the latency measurements are below that number and the other half are above. 

Worst-Case Latency

The worst-case latency, or 99th percentile, is defined as the place where 99% of measurements are better than a certain point. 

When Are These Measurements Taken?

Measurements are taken from all points in time so all data can be analysed, but Starlink do specifically look at how they are performing during peak times (between 6pm and 9pm). This is when most people are using a Starlink connection and the network is under the most load. 

What Affects Latency When Using a Starlink Connection?

There are a few factors that can affect latency in any network. For Starlink, the biggest things affecting latency are: 

  • Physical speed-of-light propagation from the user to the satellite and back to the ground.

    This goes back to the RTT (round trip time) we referred to earlier. Each part of the trip (there and then back) takes about 1.8 to 3.6 ms, with a total RTT of under 10 ms (usually).

    If traffic flows over laser links instead of directly to the ground, higher incidences of latency could occur. This would be as a result of congestion mitigation, lack of satellite to ground paths, and other factors.

    Laser connectivity is actually essential for connecting the most remote locations on Earth as well as for routing around congestion in the network. Starlink are however striving to make sure that latency sensitive traffic can flow over the shortest path possible. 
  • Ground latency from the gateway sites to the internet connection point driven by ground network layout.

    During 2024 the US will see the introduction of PoPs or Points of Presence, where Starlink has added 6 internet connect locations. They are optimising gateway locations and planning algorithms to ensure that traffic can land as close to its destination point as possible.

    Starlink continue to ensure that users are allocated to optimal internet connection locations, so that all users get the lowest latency possible route to the internet. 
  • Fronthaul (the radio links between the satellite and user) scheduling latency driven by the network topology and the number of users served by a given beam from a satellite.

    Over the past few months, Starlink’s major focus has been on optimising fronthaul scheduling latency, even though this is an inherent part of shared wireless systems. 
  • Non-physical limitations in the system.

    This would include unneeded processing delays, unoptimised buffers, or unnecessary packet drops that force retries.

    Buffers across the Starlink network have been right sized to reduce bufferbloat, and queueing algorithms have been improved to increase capacity on their gateway links from the ground to satellites. 


Starlink Wi-Fi latency has been improved, with the addition of active queue management (fq_codel) to the Starlink Wi-Fi router. What does this mean in real life? Well, with active queue management enabled, if one person on your Wi-Fi is downloading a big file, and another is playing a game, the queue management will make sure that game latency will not be affected by the download. 

How Are Starlink Striving to Reach the Goal of 20ms Latency?

Starlink has been monitoring and gaining metrics across the network to measure latency on every subsystem down to the microsecond over the past few months. They have rigorously tuned their algorithms to prefer paths with lower latency, no matter how small the difference and to remove any and all sources of unnecessary and non-physical latency. 

This is just a selection of some of the most impactful changes Starlink has made and continues to make. 

Since the beginning of the year, teams have deployed and tested 193 different satellite software builds, 75 gateway software builds, 222 Starlink software builds, and 57 Wi-Fi software builds. 

Over 2.6 million people around the world have chosen Starlink as their internet provider via satellite broadband. These customers can expect latency to continue to improve over the coming weeks and months as Starlink prioritises software changes, builds additional ground infrastructure, and launches more satellites. 

Future updates from Starlink are expected to include performance stats and more network goals as they work to improve the user experience. 

How Can I Check Starlink Latency For My Location? 

Be sure to check the latest latency statistics for your region at starlink.com/map.

Is Starlink Fast Enough to Hire for Events?

Absolutely! Here at Geekabit, we are delighted to be able to offer fast, reliable Wi-Fi via Starlink for a range of events and purposes across London and parts of the South of England. 

We’ve diligently tested what we can offer via Starlink when it comes to temporary Wi-Fi for outdoor events. Some of our test events included supporting policing events in London, hybrid meetings, rural wedding fairs and a busy city fireworks fundraising event. 

For more information on our Starlink hire service, please visit our blog. Fast Wi-Fi hire is available for events with Starlink hire from Geekabit. Feel free to contact us to find out more. 

WiFi 8: What is it, What’s the Spec and When Will it Be Released?

As a society we’re always keen to get our hands on the latest technology – But no sooner as it’s in our hands, thoughts are already turning to what’s next. 

You might have barely got to grips with Wi-Fi 6, but with 233 million Wi-Fi 7 devices estimated to enter the market this year, is it any wonder we’re already looking ahead to Wi-Fi 8?

What is Wi-Fi 8?

Simply put, it’s the next generation of Wi-Fi and will be successor to the Wi-Fi 7 (IEEE 802.11be) standard. 

As with previous Wi-Fi standard successions, the aim of Wi-Fi 8 will be to improve wireless performance as well as introduce new and innovative features to advance Wi-Fi technology further. 

Generally this means that in comparison to previous standards, the new one will offer:

  • Faster speeds
  • Lower latency
  • Better performance 

What’s the spec for Wi-Fi 8?

We don’t actually know the specifications of Wi-Fi 8 yet as the details haven’t been officially released. 

But would it even be a technological advancement if there wasn’t speculation on the specifications? 

We are expecting the technical details for Wi-Fi 8 to be finalised and released imminently.

What can we expect from Wi-Fi 8?

Over the years we’ve seen a steady evolution of Wi-Fi standards, with each one playing its own vital role in providing our indoor and outdoor environments with seamless wireless connectivity. 

As the Internet of Things has also evolved over time, each standard has of course had its inadequacies, with a constant push for better. 

So what will the upcoming Wi-Fi 8 standard offer to help with the current connectivity challenges we’ve been facing? 

Wi-Fi 8 is expected to offer us a range of powerful new features and capabilities, designed to provide high-reliability, ultra low latency and support for extremely high node density.

A few of the major features we’re expecting from Wi-Fi 8 are:

  • Multiple Access Point Coordination and Transmission
  • Millimeter Wave (mmWave) Frequencies
  • Low Latency

So let’s take a little look at each of these major Wi-Fi 8 features and what they mean. 

What is Multiple Access Point (AP) Coordination and Transmission for Wi-Fi 8?

When a network has multiple access points deployed, e.g. in buildings and office complexes, they operate on the same radio frequency. This can cause interference and the degradation of network performance. To help alleviate this, the transmissions of the access points can be configured to avoid overlapping channels and coordinated accordingly.

Multiple Access Point (AP) coordination and transmission in Wi-Fi refers to the management of multiple access points in a wireless network to avoid interference and ensure efficient communication between the client devices and the network. 

We can ensure that transmissions do not interfere with each other by using coordination techniques for Access Points. This could look like: 

  • Channel Allocation: Interference can be minimised by configuring Access points to use non-overlapping channels. This can be done manually or automatically using techniques such as Dynamic Frequency Selection (DFS).
  • Power Management: Interference can be avoided by configuring Access points to adjust their transmission power based on their proximity to other access points.
  • Load Balancing: Network loads can be balanced through configuring Access points by directing clients to connect to the least congested access point.

How can Millimetre Wave Links improve Wi-Fi 8?

Improvements in Wi-Fi 8 can be made using mmWave by providing access to a larger spectrum of frequencies. This in turn allows for higher bandwidth and data rates. 

By using mmWave, Wi-Fi 8 can support data rates of up to 100 Gbps. What would this be useful for? This feature would be perfect for things like 4K and 8K video streaming as well as virtual and augmented reality. Other high-bandwidth and low-latency applications like these would also benefit. 

Performance improvements will also be seen in environments with high node density with mmWave technology. Places like stadiums and concert halls will benefit from better coverage with Wi-Fi 8 as well as the reduction of interference between devices.  

Information on a Project Authorisation Request document suggests that Ultra High Reliability technology will be a key part of Wi-Fi 8. It looks like it will be capable of support carrier frequencies in the mmWave bands between 42.5 and 71 GHz and achieving an aggregate throughput of 100 Gbps. 

In comparison to Wi-Fi 7, it’s expected that UHR will offer improvements in maximum latency and jitter for latency-sensitive applications, especially those in the 99 to 99.9999th percentile range. 

Wi-Fi 8 and Low Latency

Why is low latency so important? In this day and age, our modern industries rely on Wi-Fi in many industrial applications, e.g. real-time control systems, remote monitoring, robotic automation. Without fast and reliable communication between devices, the performance of these applications would degrade and cause big problems. 

Even the smallest of delays in data transmission can cause significant errors or delays further down the system, affecting response time as well as negatively impacting production processes and potentially even causing safety issues. 

The amount of data generated and transmitted over Wi-Fi networks is increasing rapidly as more industrial applications adopt the Industrial Internet of Things (IIoT) and other advanced technologies. 

In order for this data to be transmitted accurately and quickly, it’s crucial that there is low latency to reduce delays and bottlenecks. 

Previously, a latency of under 25 ms was achieved with Wi-Fi 7, using Restricted Target Wake Time (R-TWT), Stream Classification Service (SCS) and Quality of Service (QoS) signalling. However, this standard falls short of the current demands of industrial applications which need latencies of less than a few milliseconds. 

Thankfully, the Wi-Fi world is expecting UHR to enhance and improve things in this area by minimising the maximum latency of Wi-Fi. 

When will we be using Wi-Fi 8?

It’s estimated and expected that Wi-Fi 8 could become a market reality in 2027/2028. 

Watch this space!