Methodology – Cities with the Fastest Internet

Welcome to our methodology page, where we break down how we determine the rankings for our “cities with the fastest internet” series of lists. The goal here is to provide a clear and detailed explanation of the methods and data behind our rankings.

A robust methodology is crucial for ensuring that our rankings are accurate and reliable. By sharing our approach, we aim to give you a deeper understanding of the processes and considerations involved in our analysis. We'll cover everything from our granular data analysis to how we define city boundaries, and explain why these details matter.

This page is designed to offer transparency and insight into our work, helping you see the effort and precision that go into creating our rankings. Whether you're a journalist, a consumer, or just curious about how we do things, you'll find all the details you need right here.

Full list of Cities with the Fastest Internet:

  • Top 10 Metropolitan Cities with the Fastest Internet
  • Top 10 Major Cities with the Fastest Internet (coming soon)
  • Top 10 Large Cities with the Fastest Internet (coming soon)
  • Top 10 Medium Cities with the Fastest Internet (coming soon)
  • Top 10 Small Cities with the Fastest Internet (coming soon)
  • Top 10 Suburban / Regional Cities with the Fastest Internet (coming soon)

Methodology Overview

  1. Granular Data Analysis: Using block-level data to capture detailed variations in internet speeds.
  2. Weighted Max Download Speed (WMD): Calculated by weighting maximum speeds by the population of each block, giving a realistic measure of what most residents can expect.
  3. City Size Tiers: Categorizing cities into six tiers based on population for fair comparisons:
    • Metropolitan City: 1,000,000+ residents
    • Major City: 500,000 – 999,999 residents
    • Large City: 250,000 – 499,999 residents
    • Medium City: 100,000 – 249,999 residents
    • Small City: 50,000 – 99,999 residents
    • Suburban/Regional City: 25,000 – 49,999 residents
  4. Sophisticated Boundary Definitions: Using precise urban boundaries and multiple levels of city definitions to avoid broad classifications like MSAs, providing accurate and meaningful comparisons.
  5. Data Sources and Reliability: Utilizing FCC data reported by ISPs with statistical methods to address potential biases. Current ranking uses the May 28, 2024 FCC update, which is based on the Broadband Data Collection as of December 31, 2023.

Our Methodology in Detail

1. Granular Data Analysis

Our smallest data point is the city block, this is much more granular than using zip codes or cities in their totality. To illustrate this, here are a few examples:

  • The US has roughly 33,000 physical zip codes and over 8.17 million blocks.
  • The average population in a zip code is 10,128 people, in a block it’s 58 people.
  • There are on average 246 blocks within a zip code.
  • Metropolitan areas with over a million residents have an average of 47,800 blocks within them.
  • Cities compared in our rankings (those with 25,000 or more residents) have an average of 1,245 blocks and 74 residents per block.
Los Angeles Block Example
You can see from the screenshot of AT&T Fiber availability in a Los Angeles neighborhood that anytime the color changes slightly, that’s because it’s a different block. In this case, each square you see is it’s own block and tracked separately in our database.

Our database includes every block in the country, which providers offer service in those blocks, and what their upload and download speeds are. This unparalleled data set allows us to aggregate and get a much more detailed and precise picture of a city.

2. Weighted Max Download Speed (WMD)

Our granular block level data allows us to get a more realistic picture of how fast internet in a city is, we’ve come up with the “Weighted Maximum Download Speed” to do this calculation. While there’s nothing complicated about the math here, it does provide a very strong baseline of comparison.

Weighted max down is calculated by what speed is available in the city multiplied by how many people can get that speed.

Simple Illustration of Weighted Max Download Speed Calculation: Click to see details

Let's illustrate this with a simple example:

  • Imagine we have a small city with 100 residents.
  • Half of these residents (50 people) have access to internet speeds of 20 Mbps.
  • The other half (50 people) have access to internet speeds of 50 Mbps.

To calculate the Weighted Max Download Speed, we use the following formula:

WMD = ((Number of People at Speed 1 * Speed 1) + (Number of People at Speed 2 * Speed 2)) / Total Number of People

Applying the numbers from our example:

WMD = ((50 * 20) + (50 * 50)) / 100

Breaking it down step by step:

  1. Calculate the product of the number of people and their respective speeds:
    • 50×20=1000
    • 50×50=2500
  2. Add these products together:
    • 1000+2500=3500
  3. Divide by the total number of people:
    • 3500/100=35

So, the Weighted Max Download Speed for this city is 35 Mbps.

This calculation provides a more accurate representation of the overall internet speed experience in a city by considering both the speed available and the number of people who can access each speed. It helps to ensure our rankings reflect the true internet performance that residents can expect.

3. City Size Tiers

To provide fair and meaningful comparisons of internet speeds, we've categorized cities into size tiers. This approach ensures that our rankings account for the unique challenges and advantages associated with different city sizes. By grouping cities with similar characteristics, we can offer more accurate and relevant insights into their internet infrastructure.

  • Metropolitan City: 1,000,000+ residents
  • Major City: 500,000 – 999,999 residents
  • Large City: 250,000 – 499,999 residents
  • Medium City: 100,000 – 249,999 residents
  • Small City: 50,000 – 99,999 residents
  • Suburban/Regional City: 25,000 – 49,999 residents

Why City Size Tiers Matter

City size significantly influences various aspects of infrastructure, including internet services. Larger cities often have more complex and extensive networks, while smaller cities may benefit from concentrated investments in specific areas. Here's a closer look at why these categorizations are important:

  • Economic Factors: Larger cities typically have more resources and a higher concentration of businesses, leading to greater investment in high-speed internet infrastructure. Smaller cities, on the other hand, might rely on fewer providers and have less competitive markets.
  • Infrastructure Demands: The sheer scale of larger cities requires more extensive and robust infrastructure. This includes not just internet services but also transportation, utilities, and public services. Smaller cities have different infrastructure needs and may face fewer logistical challenges.
  • Population Density: Higher population densities in larger cities can strain existing networks, requiring continuous upgrades and maintenance. Smaller cities may experience less congestion and can often deliver higher speeds to a smaller, more concentrated population.
  • Service Availability and Competition: Large cities often have multiple internet service providers (ISPs) competing, which can drive improvements in speed and service quality. In smaller cities, fewer ISPs might mean less competition and slower adoption of new technologies.
  • Regional Development: Larger cities often serve as regional hubs, influencing surrounding areas. The internet infrastructure in these cities can impact a broader region, whereas smaller cities primarily focus on serving their immediate populations.

Why We Separate Cities Like This

By separating cities into these size tiers, we ensure that comparisons are made between cities with similar infrastructure demands and capabilities. This approach avoids skewed results that might occur if smaller cities, which might have disproportionately high speeds due to focused investments, were compared directly to much larger cities with more complex challenges.

Ultimately, our city size tiers help to ensure that our rankings are relevant and useful for residents, businesses, and policymakers in cities of all sizes. By acknowledging the unique characteristics of different city sizes, we can deliver insights that truly reflect the internet infrastructure landscape across the country.

4. Sophisticated Boundary Definitions

When it comes to defining city boundaries for our rankings, we employ a sophisticated approach that goes beyond traditional Metropolitan Statistical Areas (MSAs). This allows us to provide more precise and meaningful comparisons between cities of varying sizes. Our methodology acknowledges that many smaller cities and towns are often considered part of a larger metropolitan area but have distinct characteristics and infrastructure needs.

Why Sophisticated Boundary Definitions Matter

Traditional methods often lump multiple cities and towns into a single MSA, which can obscure important differences in internet infrastructure and service quality. By using more granular definitions, we can:

  • Highlight Unique Characteristics: Each city, even within the same metropolitan area, can have unique internet infrastructure, challenges, and advantages. Our approach allows us to capture these nuances.
  • Provide Accurate Comparisons: Comparing cities of similar sizes and characteristics offers a more accurate and fair assessment of their internet speeds. This is crucial for residents, businesses, and policymakers who need reliable information to make informed decisions.
  • Reflect Real-World Experiences: People often identify more closely with their specific city or town rather than the broader metropolitan area. Our rankings aim to reflect the real-world experiences of residents in these smaller, distinct areas.

Example: Greater Salt Lake City Area

Let's take the Greater Salt Lake City area as an example. While Salt Lake City itself falls into the Metropolitan City tier, there are several smaller cities within the same metropolitan area that belong to different tiers:

  • Salt Lake City: Metropolitan City (1,000,000+ residents)
  • West Valley City and Sandy: Medium City (100,000 – 249,999 residents)
  • Murray: Small City (50,000 – 99,999 residents)
  • Midvale: Suburban/Regional City (25,000 – 49,999 residents)

Each of these cities, while part of the greater Salt Lake City area, has its own unique infrastructure and internet service landscape. By categorizing them separately, we can provide a more accurate picture of internet speeds and service quality for each specific area

5. Data Sources and Reliability

The reliability of our rankings is rooted in the robust and comprehensive data sources we utilize. Our primary data source is the Federal Communications Commission (FCC), which provides detailed information on internet service availability and speeds across the United States.

Why We Use FCC Data

  1. Comprehensive Coverage
    • Nationwide Data: The FCC collects data from internet service providers (ISPs) across the entire country, ensuring that we have access to extensive and consistent information for all regions.
    • Detailed Reporting: The FCC data includes granular details on internet speeds and service availability at the block level, allowing us to perform precise and accurate analyses.
  2. Regulatory Standards
    • Mandated Reporting: ISPs are required to report their service data to the FCC, which helps maintain a high level of accuracy and accountability. This regulatory oversight ensures that the data is both reliable and up-to-date.
    • Consistency: The FCC's standardized reporting requirements mean that data from different providers and regions can be compared fairly and accurately.

Our Approach to Ensuring Data Reliability

While the FCC data forms the backbone of our analysis, we take additional steps to ensure the reliability and accuracy of our rankings:

  • Granular Analysis: By working with block-level data, we can capture detailed variations in internet speeds within cities, providing a more accurate picture than broader, less precise measures.
  • Sophisticated Boundary Definitions: Our methodology includes precise city boundary definitions, ensuring that our comparisons reflect the true characteristics of each area.
  • City Size Tiers: By categorizing cities into different size tiers, we can compare cities with similar infrastructure and service demands, leading to fairer and more meaningful rankings.

Data Update Frequency

To maintain the relevance and accuracy of our rankings, we regularly update our data:

  • ISP Data Updates: The ISP database is updated frequently, with minor updates occurring about every two weeks and more significant updates twice a year. This ensures that our information on service availability and speeds is as current as possible.
  • Annual Rankings Update: Our rankings are updated yearly to reflect the latest changes in ISP data from the FCC and demographic shifts from the Census Bureau. This annual update process allows us to account for both technological advancements and population changes, providing a comprehensive view of internet performance in each city.

Transparency and Commitment to Accuracy

We are committed to transparency in our data reporting and methodology. By using reliable data sources like the FCC and applying rigorous analytical methods, we ensure that our rankings are accurate and trustworthy. Our goal is to provide clear and reliable insights into internet performance across cities of all sizes, helping consumers, businesses, and policymakers make informed decisions.

In summary, the combination of comprehensive FCC data, regular updates, and our detailed analytical approach allows us to deliver reliable and insightful rankings of internet speeds across the United States.

Comparative Analysis

Our methodology goes beyond simply ranking cities based on internet speeds. By categorizing cities into size tiers and using sophisticated boundary definitions, we ensure that our comparisons are both fair and meaningful. This approach allows us to provide a more accurate picture of internet performance across different types of cities.

  1. Within-Tier Comparisons
    By comparing cities within the same size tier, we ensure that each city's internet infrastructure is evaluated against others with similar characteristics. This avoids the skewed results that can occur when small cities are compared directly to large metropolitan areas.
  2. Cross-Tier Insights
    While our primary comparisons are within tiers, we also derive insights from looking at trends and performance across different tiers. This helps us understand how city size impacts internet speeds and infrastructure quality.
  3. Accurate Representations
    By using precise boundary definitions, we capture the true internet performance of each city, rather than relying on broader, less accurate MSAs. This provides a clearer, more detailed understanding of how internet speeds vary within and between metropolitan areas.

Example: Greater Salt Lake City Area

In the Greater Salt Lake City area, we consider not just Salt Lake City itself but also surrounding cities like West Valley City, Sandy, Murray, and Midvale. Each of these cities falls into a different size tier:

  • Salt Lake City: Metropolitan City
  • West Valley City and Sandy: Medium City
  • Murray: Small City
  • Midvale: Suburban/Regional City

By categorizing and comparing these cities separately, we can provide a more nuanced and accurate assessment of internet speeds and infrastructure within the broader metropolitan area. This approach highlights the specific strengths and challenges of each city, ensuring that our rankings are both fair and relevant.

Our comparative analysis strengthens our overall rankings, offering a detailed, accurate, and fair representation of internet performance across cities of all sizes. By using this approach, we ensure that our data is both meaningful and useful for a wide range of audiences.

Why Our Methodology Stands Out

Our approach combines several key elements that set our rankings apart from others:

  • Granular Data Analysis: By using block-level data, we provide a more precise and accurate picture of internet speeds within cities.
  • Weighted Max Download Speed (WMD): This calculation offers a realistic measure of the internet performance that most residents can expect, rather than relying on peak speeds alone.
  • City Size Tiers: Categorizing cities by size ensures fairer comparisons, preventing smaller cities with exceptional providers from skewing the overall rankings.
  • Sophisticated Boundary Definitions: Our use of precise urban boundaries captures the unique characteristics and infrastructure of each city, providing more meaningful comparisons.

These elements ensure that our rankings are not only accurate but also relevant and useful for a wide range of audiences.

Alternative Ranking Methods and Their Limitations

While our methodology for ranking cities with the fastest internet is designed to be comprehensive and accurate, there are several alternative methods that others use. Each of these methods has its own limitations, which can lead to less reliable or meaningful results. Here, we explain why these alternative methods fall short and highlight the strengths of our approach in comparison.

Using Advertised Maximum Download Speeds

Some rankings rely solely on the maximum download speeds advertised by internet service providers (ISPs). This approach is limited because advertised speeds often reflect the highest possible speeds under optimal conditions, which are rarely experienced by the average user.

Additionally, these speeds may not be available to all residents within a city, leading to an inaccurate representation of the overall internet performance. A city might have a fast Fiber ISP covering 5% of the city, yet that counts for everyone.

Speed Test Data

Another common method is using speed test data collected from users performing tests on their own devices. However, speed test results can vary widely based on factors such as the time of day, the user's device, and network congestion at the time of the test.

Frequent testers might skew the data, as they may have higher technical knowledge or better equipment than the average user. Moreover, most people do not subscribe to the highest service tiers available, so speed tests often do not reflect the maximum potential speeds.

Percent of Residents at a Certain Speed Tier

Some rankings use the percentage of residents who have access to a certain speed tier to gauge internet performance. While this method provides some insight, it lacks nuance and doesn't capture the full spectrum of speeds available or the variations within a city. As a result, it fails to provide a detailed understanding of how speeds are distributed across different areas within a city.

Combining All Cities into One Ranking

A common approach is to create a single ranking that includes all cities, regardless of size or other factors. This method often leads to skewed results, as it does not account for the vastly different infrastructure demands and capabilities of small towns versus large metropolitan areas. Comparing a large metropolitan area directly with a small town can produce misleading conclusions about internet performance.

Lack of Objectivity in Some Rankings

Some rankings are based on subjective opinions or untransparent methodologies. Rankings based on opinions can introduce biases that are not present in data-driven approaches. Without a clear methodology, it is difficult to assess the validity and reliability of these rankings.

Each of these alternative ranking methods has significant limitations that can lead to less accurate and less useful results. In contrast, our methodology is designed to provide a more realistic and reliable assessment of internet performance by using granular data, sophisticated boundary definitions, and fair comparisons across city size tiers. This ensures that our rankings are not only accurate but also meaningful and useful for a wide range of audiences.

Limitations of Our Approach

While our methodology is designed to provide a comprehensive and accurate ranking of cities with the fastest internet, it is not without its limitations. Transparency is crucial, and we believe it is important to acknowledge the constraints and potential biases inherent in our approach.

Reliance on Self-Reported ISP Data

Our primary data source is the FCC, which collects information reported by internet service providers (ISPs). This data is subject to certain limitations. ISPs may over-report their actual speeds by using “up-to” speeds and exaggerating their coverage areas. Additionally, the data can be time-delayed, meaning the information we display might be several months to a year old. Smaller providers or those in smaller cities might also underreport their data, leading to potential underrepresentation in our rankings.

Use of Maximum Speed

Our methodology uses the maximum speed available to most residents in a city. While this provides a useful measure of the best possible internet performance, it does not account for how many residents actually subscribe to these speeds. Additionally, this approach does not consider the affordability of high-speed internet services. Some residents in cities may be more able to afford the speeds offered than others, which can skew the perception of available speeds.

Economic Disparities

Our rankings do not address economic disparities between different cities. Cities with higher incomes and more corporate investment typically have better infrastructure and faster internet. Conversely, underinvested communities may have slower speeds and less reliable service. This can lead to higher-ranked cities being those with more financial resources, rather than those with the most equitable internet distribution.

Simplification of Complex Factors

While our methodology focuses on internet speeds and availability, it simplifies many other complex factors that affect internet quality. These include the reliability of local providers, customer service issues, data caps, and pricing.

We strive to provide the most accurate and comprehensive rankings possible, but it is important to recognize the limitations of our approach. By relying on self-reported data, focusing on maximum speeds, and not fully addressing economic disparities or other complex factors, there are inherent biases and potential inaccuracies. We believe in transparency and continuous improvement, and we are committed to refining our methodology to provide even more reliable insights in the future.

Final Thoughts and Further Analysis

We're data people, focused on creating a scalable and repeatable methodology that provides an objective and detailed measurement of internet speeds across cities. Our goal is to offer the most accurate and comprehensive rankings possible, but we recognize that the specific nuances between cities and tiers are best understood by those who know them well.

Our rankings use the unique Weighted Max Download Speed metric to provide a clear picture of internet performance. In addition, we offer other useful statistics like the Digital Connectivity Index and ISP Report Card to give a broader context that might help explain the rankings beyond just speed.

We believe it's up to local officials, journalists, and researchers to explore the specific factors that make a city stand out or explain why it might not rank as high. Our city or zip search tool allows anyone to look up the Weighted Max Download Speed for any location, along with other metrics. This transparency helps you see the data behind our rankings and understand how your city compares to others.

In summary, while we provide the data and tools for a thorough analysis, the deeper understanding of each city's performance comes from local insights and expertise. Use our data as a starting point to uncover the unique story of your city's internet infrastructure and share your findings to help create a more informed conversation about internet service across the country.

Frequently Asked Questions (FAQ):

Q: Your definition of a city I’m familiar with seems strange to me.

A: This can definitely happen due to the way we categorize different city tiers and use complex boundaries. A familiar example for us is Salt Lake City, UT, which can be complicated to define even for residents. The Metropolitan Statistical Area (MSA) considers Salt Lake City as a large area within the Salt Lake Valley, whereas the technical boundaries of “Salt Lake City” are much smaller. If you ask individuals on the street, you'll probably get varying definitions somewhere in between. For our purposes, when referring to larger cities, we lean towards using their MSA boundaries. We do this because we believe this is the more commonly understood definition of a city. When someone talks about Los Angeles, they often include Pasadena, Glendale, and Hollywood as part of LA, and sometimes even further out to Long Beach or Anaheim.

Q: Why do you include smaller cities that are contained within larger cities?

A: We include smaller cities within larger cities to ensure fair comparisons across the country and to provide useful information. For example, someone might be looking at where to move and initially narrow their options down to specific states or large cities, like Los Angeles, Chicago, or New York City. However, these cities are so large and sprawling that having information for just the larger city isn't enough. By providing data on the smaller cities within those MSAs, we give users more detailed information to aid in their decision-making. This way, if someone decides on New York City, our tools can help them narrow down their decision to one of the five boroughs, and even further within each borough. This detailed approach helps users make more informed decisions based on the specific characteristics of smaller areas within large metropolitan regions.