How Much EMF Does the Netgear AXE7800 WiFi 6E Router Produce?

Summary

Most articles about WiFi router EMFs repeat manufacturer specifications, summarize existing research, or make broad claims without presenting original measurements. We wanted to take a different approach.

For this article, we independently tested the Netgear AXE7800 WiFi 6E Tri-Band Router using an EMF meter under a standardized testing protocol. Measurements were taken from five different directions (front, back, left, right, and above) at 1 foot and 5 feet, both while the router was idle and while it was actively streaming 4K video.

Our goal is not to prove or disprove health claims. Instead, we aim to provide transparent, first-hand measurement data that helps readers understand how this specific router behaved under our testing conditions. Every result published in this article comes from our own testing and includes the methodology, measurements, observations, and limitations so readers can evaluate the data for themselves.

Quick Answer

Netgear AXE7800 EMF Test Results (At a Glance)

Based on our testing:

• Highest electric field measured: 447 V/m

• Where it occurred: Back of the router

• Distance: 1 foot

• Operating state: Streaming a 4K video

• Lowest electric field measured: 25 V/m

• Where it occurred: Front of the router

• Distance: 5 feet

• Operating state: Idle

Key Takeaways

• Measurements varied substantially depending on where the router was measured.

• Distance influenced the readings, but orientation around the router also played a significant role.

• The highest reading was not observed from the front of the router, highlighting that measured electric fields were not uniform in every direction.

• These results reflect our specific testing environment, equipment, and methodology and should be interpreted as observational measurements rather than evidence about health effects.

This article includes the complete dataset, testing methodology, photographs from every measurement position, and a discussion of what these observations may, and may not, tell us.

I would tighten these considerably. Google’s guidance repeatedly emphasizes first-hand experience, transparency, and helpfulness. So instead of sounding like a blog, make it read like a small research report.

Why We Tested This Router

Search for information about the EMF output of almost any WiFi router, and you’ll find the same pattern: articles that explain what electromagnetic fields are, summarize existing research, or recommend products, without ever measuring the router itself.

Very few articles publish original measurements from a real device.

We wanted to answer a much simpler question:

How much electric field did this specific Netgear AXE7800 WiFi 6E router produce during our testing?

Instead of relying on manufacturer specifications or repeating information found elsewhere, we tested the router ourselves using a consistent measurement protocol. We recorded measurements from multiple positions, distances, and operating conditions to better understand how the readings changed throughout the experiment.

This article documents those observations exactly as they were measured. Our objective is not to promote a particular viewpoint, but to provide transparent, first-hand data that readers can evaluate for themselves.

Testing Methodology

To make the results as consistent and reproducible as possible, every measurement in this article followed the same testing procedure.

Device Tested

• Netgear AXE7800 WiFi 6E Tri-Band Router

Measurement Device

• Consumer EMF meter

• Average (AVG) measurement mode enabled for all readings

Testing Environment

To reduce unnecessary variables, all measurements were collected under the following conditions:

• Same indoor room throughout testing

• Router remained in the same physical location

• Same EMF meter used for every measurement

• Same operator performed every test

• Measurements recorded using the meter’s Average (AVG) mode

• Nearby wireless devices and sources of radio frequency interference were minimized where practical before testing began

Measurement Distances

Measurements were taken at two distances from the router:

• 1 foot

• 5 feet

Measurement Positions

At each distance, measurements were collected from five different locations around the router:

• Front

• Back

• Left side

• Right side

• Above

This resulted in ten measurements for each operating state.

Operating States

The router was tested under two different conditions:

State A — Idle

The router remained powered on with no intentional network activity occurring during the measurement period.

State B — Active Load

The router remained powered on while streaming a continuous 4K YouTube video, creating sustained network traffic during the measurements.

Scope of This Test

These measurements describe how this individual router performed under our specific testing conditions. Results may vary depending on factors such as the surrounding environment, measurement equipment, firmware version, wireless activity, and device placement. For that reason, the data in this article should be interpreted as observational measurements, not universal values for every Netgear AXE7800 router.

I would make this section much stronger than just dropping tables. The tables are the evidence, but you should first explain what the reader is looking at. This helps both humans and AI interpret the data correctly.

Test Results

The following tables summarize every electric field measurement collected during our testing of the Netgear AXE7800 WiFi 6E Tri-Band Router.

Measurements were recorded from five positions around the router (front, back, left, right, and above) at two different distances (1 foot and 5 feet) under two operating conditions:

• State A: Router powered on with no intentional network activity (Idle)

• State B: Router actively streaming a continuous 4K YouTube video (Active Load)

All values shown below represent the average electric field (V/m) measured by our EMF meter during each test.

State A — Idle (5 Feet)

Router powered on with no intentional network activity

Observations

• The lowest reading during this test occurred at the front of the router (25 V/m).

• The highest reading occurred above the router (70 V/m).

• Even while idle, the measured electric field varied noticeably depending on where the meter was positioned.

State A — Idle (1 Foot)

Router powered on with no intentional network activity

Observations

• Moving the meter from 5 feet to 1 foot generally resulted in higher measured electric field values.

• The highest idle reading occurred on the right side of the router (118 V/m).

• The above position produced the lowest measurement at this distance (71 V/m).

State B — Active Load (5 Feet)

Router actively streaming a continuous 4K YouTube video

Observations

• During streaming, the front of the router produced the highest measurement at 115 V/m.

• The back of the router measured the lowest value (49 V/m) at this distance.

• Network activity did not increase measurements uniformly across every position.

State B — Active Load (1 Foot)

Router actively streaming a continuous 4K YouTube video

Observations

• The highest measurement recorded during the entire experiment occurred behind the router, reaching 447 V/m during active streaming.

• Aside from the rear measurement, the remaining positions ranged from 118–136 V/m, making the back of the router a clear outlier under our testing conditions.

• This reinforces that measured electric fields around the router were not uniform and changed depending on both operating state and measurement location.

Overall Results at a Glance

Across all 20 measurements collected during this experiment:

• Highest reading recorded: 447 V/m

• Location: Back of the router

• Distance: 1 foot

• Operating state: Active Load (Streaming 4K Video)

• Lowest reading recorded: 25 V/m

• Location: Front of the router

• Distance: 5 feet

• Operating state: Idle

Rather than showing a single consistent value, the measurements varied based on distance, measurement position, and network activity. This highlights why reporting only one number for a WiFi router can oversimplify how measured electric fields behave under different conditions.

Key Observations From Our Testing

Collecting measurements is only part of the process. The more valuable question is what patterns emerged from the data.

Below are the most notable observations from our testing of the Netgear AXE7800 WiFi 6E Tri-Band Router.

1. Distance Influenced the Measurements—But Not in a Uniform Way

One of the clearest patterns was that moving the meter closer to the router generally resulted in higher electric field measurements. However, the relationship was not perfectly consistent across every position we tested.

For example, the front of the router measured 25 V/m at 5 feet while idle, compared to 86 V/m at 1 foot. Other positions showed different rates of change, suggesting that distance alone does not fully explain the measurements.

This reinforces an important point: the measured electric field around the router was influenced by both distance and where the measurement was taken.

2. Network Activity Did Not Affect Every Side Equally

One of the most interesting findings emerged when comparing the router’s idle state with active network use.

While streaming a continuous 4K YouTube video, some measurement locations increased only modestly, while others changed much more dramatically.

The most significant change occurred behind the router, where the measured electric field increased from 91 V/m while idle to 447 V/m during active streaming under our testing conditions.

Meanwhile, other positions changed far less.

Rather than increasing uniformly in every direction, the measured values responded differently depending on where the meter was positioned.

3. The Highest Reading Was Not Where We Initially Expected

Many people assume the front of a WiFi router would produce the strongest measurable field because that’s the side most users interact with.

Our measurements did not support that assumption.

The highest electric field recorded during the entire experiment occurred behind the router, not in front of it.

This illustrates why measuring only one location around a device can provide an incomplete picture of how it behaves under a specific set of test conditions.

4. The Router Did Not Produce the Same Measurements in Every Direction

Across all twenty measurements, one pattern remained consistent:

The measured electric field varied depending on where the meter was positioned around the router.

Even under the same operating condition, different sides of the router produced noticeably different readings.

Based on our observations, treating a WiFi router as though it produces the same measurable field equally in every direction oversimplifies what we observed during testing.

Instead, the data suggests that the measured electric field around this router was directional, with certain locations consistently producing higher readings than others.

5. Original Measurements Provide More Useful Context Than Single Numbers

One reason we designed this testing protocol was because many discussions about WiFi routers focus on a single measurement, or no measurement at all.

Our testing showed that there isn’t one number that fully describes how this router behaved.

The measured values changed depending on:

• Distance from the router

• Measurement position

• Router activity

Publishing the complete dataset provides far more context than quoting a single maximum reading. It allows readers to see how the measurements varied across different testing conditions and draw their own informed conclusions.

What Do These Measurements Actually Mean?

Raw measurements are useful, but numbers without context can easily be misunderstood.

For example, seeing a measurement of 447 V/m may sound significant on its own, but that number simply describes what our EMF meter measured at a specific location, under a specific set of testing conditions, using a specific measurement device.

By itself, it does not answer questions such as:

• Is this level considered high or low?

• Does it indicate a health risk?

• Should you replace your WiFi router?

• Should you move your router to another room?

• How does it compare to other everyday electronic devices?

Those are separate questions that require additional context beyond a single measurement.

Understanding EMF exposure involves many variables, including:

• Distance from the source

• How long someone is near the device

• How the device is being used (idle vs. active)

• The surrounding environment

• Current scientific evidence related to radio frequency exposure

• Personal risk tolerance and circumstances

Our testing answers a much narrower question:

What did this specific Netgear AXE7800 router measure under our standardized testing conditions?

It does not attempt to determine whether those measurements are harmful, safe, or appropriate for every person or environment.

Instead, we believe that publishing transparent, first-hand measurements allows readers to make better-informed decisions than relying solely on assumptions, marketing claims, or isolated numbers without context.

Practical Takeaways: What Should Most People Actually Do?

One of the biggest mistakes people make after seeing EMF measurements is assuming that every number requires immediate action.

In reality, measurements are only one part of the decision.

How close you are to a device, how often you’re around it, and where it’s located in your home often matter just as much as the measurements themselves.

Here are a few practical ways to think about the results from this test.

If Your Router Is Several Rooms Away

If your WiFi router is located in another room, a hallway, or a part of your home where you spend very little time, the measurements in this article are unlikely to reflect your typical day-to-day proximity to the device.

In that situation, understanding the router’s output may be interesting, but it may not meaningfully change any practical decisions you make.

If Your Router Is Next to Your Bed

Some people place their WiFi router on a nightstand or dresser just a few feet from where they sleep.

If you’re someone who is concerned about long periods of overnight proximity to wireless devices, you may decide that relocating the router to another part of the room, or another room entirely, is worth considering.

Moving a router is often one of the simplest changes a homeowner can make, assuming it doesn’t significantly affect network performance where it’s needed.

If Your Router Sits Under Your Desk

Many people work from home with a router positioned directly beside or underneath their desk.

If you’re seated within a foot or two of the router for several hours each day, that represents a different pattern of proximity than briefly walking past a router mounted in another room.

Whether that matters to you is ultimately a personal decision, but understanding where your router is located relative to where you spend the most time can be just as important as understanding the measurements themselves.

If Your Goal Is Simply to Reduce Proximity

If reducing your proximity to wireless devices is one of your personal goals, you don’t necessarily need to start by replacing equipment or purchasing new products.

In many cases, simple changes, such as relocating a router to a different shelf, moving it farther from frequently occupied spaces, or avoiding placing it immediately beside a bed or workstation, may be easier first steps to consider.

Remember: Measurements Are Information, Not Instructions

Our testing isn’t intended to tell you what you should do.

It’s intended to provide transparent data that helps you make your own decisions.

Some readers may look at these measurements and decide no changes are necessary. Others may choose to rearrange where a router is located simply because it’s an easy adjustment that aligns with their personal preferences.

Neither response is inherently right or wrong.

The value of original measurements is that they replace assumptions with observations, allowing each person to evaluate the information in the context of their own home, habits, and priorities.

Should You Move Your Router?

One of the most common questions people ask after seeing EMF measurements is:

“Should I replace my router?”

Based on our testing, a more useful question may be:

“Should I reconsider where my router is located?”

Throughout our measurements, the electric field values varied depending on both the distance from the router and the position where the measurement was taken. While this article does not attempt to draw conclusions about health effects, it does illustrate an important practical reality:

Where a router is located influences how close people are to it during everyday life.

For example, you may want to think differently about router placement if it currently sits:

• On a nightstand next to your bed

• Directly underneath your home office desk

• Beside your favorite chair or couch

• Next to a child’s bed or play area

• In another location where people spend many hours each day

By contrast, if your router is mounted in a hallway, utility room, closet, or another area where people spend very little time, your day-to-day proximity may already be relatively limited.

For many households, moving a router is one of the simplest changes available. Unlike replacing equipment or purchasing additional products, relocating a router often costs nothing and can usually be done in just a few minutes, provided it doesn’t negatively affect your home’s wireless coverage.

Whether changing the router’s location is worthwhile depends on your home, your priorities, and your personal comfort level.

Our goal isn’t to tell you what decision to make.

It’s to provide original measurements that help you make that decision with better information rather than assumptions.

The Questions We Wanted to Answer

Before we turned on the EMF meter, we already had a list of questions we wanted this test to answer.

Not because we expected a particular outcome, but because these are the same questions people ask when researching WiFi routers and EMF exposure.

This testing project was designed to replace assumptions with observations.

Would Streaming a 4K Video Increase the Measurements?

One of our biggest questions was whether actively using the router would change the measured electric field compared to leaving the router powered on but idle.

Rather than guessing, we measured both conditions using the same testing protocol.

Our results showed that network activity did influence the measurements, although the amount of change depended on where the measurement was taken.

Would Every Side of the Router Produce Similar Measurements?

It’s easy to imagine a WiFi router producing the same measurable field in every direction.

We wanted to know whether that assumption actually held true.

After measuring the front, back, left side, right side, and above the router, we found noticeable differences between positions under the same operating conditions.

That was one of the most interesting findings from the entire experiment.

Would Moving Closer Always Increase the Reading?

Many people assume that cutting the distance in half automatically produces a predictable increase in measurements.

We wanted to see how the readings changed when moving from 5 feet to 1 foot.

In general, the measurements were higher at the closer distance, but the size of the increase varied depending on where the meter was positioned around the router.

Would the Highest Reading Be in Front of the Router?

Before testing, we assumed the strongest measurement might occur in front of the router since that’s the side most people associate with the antennas and indicator lights.

Our measurements told a different story.

The highest electric field recorded during our testing occurred behind the router while it was actively streaming a 4K video.

That’s exactly why we measured multiple positions instead of relying on a single reading.

Why We Tested Multiple Positions Instead of Just One

If we had only measured the front of the router, we would have missed the highest reading observed during the entire experiment.

Likewise, if we had only measured while the router was idle, we wouldn’t have seen how the measurements changed during sustained network activity.

Testing multiple distances, positions, and operating states gave us a more complete picture of how this specific router behaved under our testing conditions.

Good Testing Starts With Questions, Not Conclusions

The purpose of this project wasn’t to prove a predetermined point.

It was to investigate a set of practical questions using a consistent, transparent testing method.

Some of our expectations were confirmed.

Others were challenged.

That’s exactly what makes first-hand testing valuable.

Rather than asking readers to accept our conclusions, we’re sharing the complete methodology and dataset so you can evaluate the results for yourself.

Why We Didn’t Test Just One Spot

One of the biggest limitations we found while researching existing EMF articles is that many either don’t perform any measurements at all or publish a single reading without explaining how that number was obtained.

The problem is that a single measurement can only tell you what happened at one location, under one condition, at one moment in time.

It cannot tell you how the device behaves as a whole.

That’s why we intentionally designed this test differently.

Instead of measuring the router from only one position, we measured it from five different directions:

• Front

• Back

• Left

• Right

• Above

We also measured the router at two different distances:

• 1 foot

• 5 feet

And we repeated the entire process under two different operating states:

• State A: Idle (no intentional network activity)

• State B: Active Load (streaming a continuous 4K YouTube video)

That resulted in 20 individual measurements for a single router.

Why This Matters

Imagine if we had only measured the front of the router while it was idle.

Based on our testing, we would have reported a reading of 25 V/m at 5 feet.

That would have been technically accurate, but it also would have been incomplete.

Later in the experiment, we measured 447 V/m behind the router at 1 foot while streaming a 4K video.

Those are two very different observations from the same device.

If we had only published one measurement, readers would have missed how dramatically the readings varied depending on distance, operating state, and measurement position.

A Single Number Rarely Tells the Whole Story

Consumer electronics are dynamic devices.

Their measurable characteristics can change depending on how they’re being used and where they’re being measured.

Reporting a single value without explaining the testing conditions can unintentionally give readers the impression that one number represents the entire device.

Our testing suggests that’s often an oversimplification.

By measuring multiple positions, distances, and operating conditions, we aimed to provide a more complete picture of how this specific router behaved during our testing.

This Is the Testing Standard We’re Building

This methodology wasn’t created just for the Netgear AXE7800.

It’s the same standardized testing protocol we plan to use across every device we measure, including WiFi routers, smartphones, laptops, smartwatches, Bluetooth devices, baby monitors, electric vehicles, and other common consumer electronics.

Using the same protocol for every product allows the results to be compared consistently over time.

Rather than building a collection of isolated reviews, our goal is to build a growing library of original, first-hand measurements collected under one transparent and repeatable testing standard.

What We’re Testing Next

One of the biggest limitations of most discussions around EMF measurements is that they focus on a single device in isolation.

But that’s not how people live.

The average person isn’t surrounded by just a WiFi router. Modern homes are filled with connected technology, from smartphones and smartwatches to laptops, Bluetooth headphones, baby monitors, and smart appliances.

That naturally raises a new question:

How does this router compare to the other devices we use every day?

That’s exactly what we’re working to answer.

Rather than testing one product and stopping there, we’re building a growing database of original measurements collected using the same standardized testing protocol.

By keeping the methodology consistent, we’ll be able to compare devices under similar conditions instead of relying on isolated numbers from different sources using different equipment.

Some of the devices we’ll be testing next include:

• iPhone 17 Pro Max

• Apple Watch

• Tesla Model Y

• Microwave ovens

• Baby monitors

• AirPods and other Bluetooth earbuds

• Laptops and desktop computers

• Gaming consoles

• Smart TVs

• Other WiFi routers and mesh systems

As our database grows, readers will be able to compare products side by side using the same testing methodology, making it easier to understand how different devices behaved under comparable conditions.

Our Long-Term Goal

We’re not trying to create another list of product reviews.

We’re building a standardized library of first-hand EMF measurements for everyday consumer electronics.

Every device is tested using the same protocol.

Every measurement is documented with photographs.

Every article includes the complete methodology, raw observations, and limitations.

Over time, this will allow readers to compare hundreds of devices using one consistent framework instead of piecing together scattered information from dozens of unrelated sources.

We believe that’s far more useful than a single measurement, and it’s the resource we wished existed before we started this project.