Why does Wi-Fi get slower when you move farther from the router? The simplest answer is that Wi-Fi is radio communication. As the radio signal spreads through space, passes through walls, competes with other transmissions and reaches the limits of the devices involved, the connection has to use slower and more robust methods to keep data moving reliably. Distance is therefore not just “fewer bars.” It changes the quality of the communication channel.
A fast internet plan cannot remove this physical problem. Your broadband connection may deliver hundreds of megabits or even gigabits to the router, yet a phone in a distant bedroom can still feel slow because the weak link is the wireless hop between the phone and the access point. Wi-Fi speed depends on signal strength, signal-to-noise ratio, frequency band, obstacles, interference, channel width, device capability, network congestion and the Wi-Fi generation being used.
This is also why moving a router by a few metres, opening a door, changing bands or adding a well-placed access point can sometimes produce a larger improvement than paying for a faster internet package. The useful question is not only “How fast is my internet?” but “How cleanly can this device and this Wi-Fi access point hear each other right here?”
The short answer: distance makes the radio link harder
A Wi-Fi connection has to send information through electromagnetic radio waves.
As the device moves farther from the access point:
- received signal power generally falls;
- walls and objects absorb, reflect and scatter energy;
- the useful signal gets closer to the level of background noise;
- the system may select a slower modulation and coding rate;
- corrupted frames are more likely to need retransmission;
- fewer spatial streams may work reliably;
- wider channels may become less useful;
- other networks and devices may consume airtime;
- latency can rise because successful delivery takes more attempts.
Wi-Fi is designed to adapt.
That adaptation is why the connection often keeps working at long range instead of suddenly disappearing. The price is speed.
Wi-Fi is a conversation, not a broadcast tower
People often imagine Wi-Fi as a router shouting data outward.
That is only half the picture.
Most normal network activity requires communication in both directions. The access point sends data to the device, and the device sends acknowledgements, requests and its own data back.
A router may have relatively powerful radios and well-positioned antennas, while a phone or small battery-powered device has much tighter limits.
This creates an important rule:
A connection is only as useful as the weaker direction.
You may be able to “see” a network because the access point’s signal reaches your device, yet the device may struggle to transmit back strongly enough for reliable high-speed communication.
That is one reason signal bars are not a complete measure of network quality.
Why radio signals get weaker with distance
When radio energy leaves an antenna, it spreads.
In a simple open environment, power density decreases rapidly as distance increases because the same transmitted energy is distributed over a larger area.
Real indoor Wi-Fi is more complicated than a perfect free-space model. Walls, floors, reflections, antenna patterns, furniture and people alter the path. Multiple reflected copies of the same signal can reinforce or weaken one another.
But the general idea remains: farther usually means less received signal power.
Radio engineers often describe signal levels in decibels relative to one milliwatt, written as dBm.
A value such as -40 dBm is much stronger than -75 dBm.
Because decibels use a logarithmic scale, a modest-looking numerical change can represent a large change in received power.
This is why a device may work brilliantly near the router, remain acceptable across one room, and then degrade sharply after another wall.
The physical environment has pushed the link across a threshold where higher data rates are no longer reliable.
Signal strength is only part of the story
A strong signal can still perform badly if there is also strong interference.
What matters is not only signal strength but signal-to-noise ratio.
Imagine trying to hear a person speaking.
If the room is quiet, a relatively soft voice can be understood.
If the room is full of loud conversations, music and machinery, the same voice becomes difficult to follow.
Wi-Fi has a similar problem.
The receiver needs to distinguish the desired transmission from noise and competing signals.
A network can therefore be slow because:
- the signal is weak;
- interference is strong;
- both are true.
This explains why moving closer to the router may help even when the signal bars did not look terrible. The cleaner signal gives the radio more room to use faster transmission settings.
Why Wi-Fi slows down instead of simply failing
Modern Wi-Fi systems adapt their transmission rate.
When conditions are excellent, devices can use complex modulation, efficient coding, multiple spatial streams and wider channels to carry many bits at once.
As conditions worsen, the system can shift toward more robust settings.
These settings encode fewer useful bits per transmission opportunity, but they are easier to decode correctly.
It is similar to speaking.
When two people are nearby in a quiet room, they can speak quickly.
Across a noisy hall, they may slow down, repeat words and use shorter phrases.
The conversation continues, but the effective information rate falls.
Wi-Fi rate adaptation is one reason the technology feels graceful. It trades speed for reliability.
What modulation has to do with Wi-Fi speed
Digital radio systems encode information by changing properties of a radio signal in controlled patterns.
Wi-Fi can use modulation schemes that represent different numbers of bits per transmitted symbol.
Higher-order modulation can carry more information in the same basic time interval, but the receiver needs a cleaner signal to distinguish the many possible symbol states.
When signal quality is poor, the system may step down to a simpler modulation and stronger error-correcting code.
The result is a lower physical-layer data rate.
This is not the router “deciding to punish” a distant device.
It is the communication system choosing a mode that has a realistic chance of working.
The selected combination of modulation and coding is often described through an MCS, or modulation and coding scheme.
Different Wi-Fi standards define many such combinations.
The exact numbers are less important than the principle:
clean link = more information per transmission; noisy link = more protection and less information per transmission.
Why retransmissions make a weak connection feel even slower
Wi-Fi is not perfect.
A frame can be corrupted or lost because of interference, collision-like contention, fading or a weak signal.
When that happens, the sender may need to transmit it again.
Retransmission consumes airtime that could have carried new information.
Suppose a link can nominally transmit at a high rate, but many frames require a second or third attempt. The real application throughput can become much lower than the headline link rate.
This is why a connection can sometimes show a respectable negotiated speed and still perform poorly.
The useful speed is not the raw signalling rate.
It is the rate at which correct, useful data reaches the application after protocol overhead, contention, acknowledgements and retries.
Why walls matter so much
A wall is not simply “one obstacle.”
Its effect depends on material, thickness, moisture, reinforcement and the radio frequency being used.
Common building materials can attenuate Wi-Fi to very different degrees.
Drywall or light partitions may have modest effects.
Dense concrete can cause much larger losses.
Metal structures can block or reflect radio energy strongly.
Reinforced concrete combines dense material with metal reinforcement, often creating a difficult environment.
Large mirrors can also contain metallic backing.
Even water matters because water absorbs microwave-frequency energy. Human bodies are mostly water, so a crowded room can alter radio propagation.
This does not mean every wall guarantees a fixed speed loss.
Indoor radio paths are complex. A signal may travel through a doorway, reflect from surfaces or take multiple routes.
That is why router placement can produce surprising results.
Why 2.4 GHz often travels farther
Many Wi-Fi networks use frequency bands around 2.4 GHz, 5 GHz and, in newer systems and permitted regions, 6 GHz.
The lower-frequency 2.4 GHz band often provides better range and wall penetration than higher bands under comparable conditions.
That makes it useful for distant or low-bandwidth devices.
But 2.4 GHz also has disadvantages:
- less available spectrum;
- fewer non-overlapping channel choices in many deployments;
- more crowding from neighbouring Wi-Fi;
- coexistence with other devices using the same general band;
- lower practical peak capacity than wider modern channels at higher frequencies.
So 2.4 GHz is not “better Wi-Fi.”
It is a different trade-off.
Why 5 GHz can be faster
The 5 GHz band offers more spectrum and supports many wider channel options.
Close to the access point, this can enable very high throughput.
It is often less congested than 2.4 GHz, though that depends on location.
The trade-off is range.
Higher-frequency signals generally suffer greater path loss under comparable conditions and often penetrate obstacles less effectively.
A device can therefore experience excellent speed near the router and then fall off more sharply through several walls.
The fastest band is useful only when the signal is good enough to support its faster modes.
What 6 GHz changes
Wi-Fi systems that can use the 6 GHz band gain access to additional spectrum in regions where regulators permit it.
That extra spectrum can provide cleaner channels and support wide bandwidths with less legacy-device congestion.
The limitation is again propagation.
A higher-frequency band is not a magic long-range upgrade. It is particularly valuable when devices are relatively close to appropriately placed access points.
This is why modern high-performance networks increasingly depend on good access-point placement rather than trying to make one router cover an entire large building.
More spectrum helps.
Geometry still matters.
Why wider channels can be fast and fragile
A Wi-Fi channel can occupy different bandwidths.
Wider channels can carry more data because they use more spectrum at once.
But there are trade-offs.
A very wide channel:
- consumes more of the available spectrum;
- can overlap with more interference;
- may be harder to use effectively at long range;
- can reduce the number of independent channels available for nearby access points.
In a clean environment near the router, wide channels can deliver impressive speed.
In a crowded apartment building, a narrower channel may sometimes produce more consistent real-world performance because it reduces contention and interference exposure.
Maximum width is not always maximum usefulness.
Why neighbouring Wi-Fi networks slow each other down
Wi-Fi devices share radio airtime.
They do not normally transmit whenever they want without checking the channel.
A simplified version of the process is “listen before talk.”
If the medium appears busy, a device waits.
This helps multiple networks coexist, but it means nearby networks can reduce each other’s available airtime even when they belong to different households.
Imagine several conversations in one meeting room.
People can take turns successfully, but each person gets less speaking time.
Dense housing can create exactly this problem.
Your internet service may be fast and your router may be functioning correctly, yet the local radio environment can still be crowded.
Distance worsens this because a weaker link often takes longer to send the same amount of data, consuming more airtime.
Why one slow device can affect others
Wi-Fi airtime is a shared resource.
A distant device using a slow physical rate may need much more airtime to transmit the same amount of data as a nearby fast device.
For example, sending a fixed file over a weak link can occupy the channel for longer.
Other devices have fewer opportunities to transmit during that time.
Modern Wi-Fi includes many techniques to improve multi-user efficiency, but the basic reality remains: slow transmissions can be expensive in airtime.
This is why coverage problems are not always isolated to the one distant room.
A badly connected device can contribute to poor network efficiency for everyone sharing the same access point.
Why your internet plan and your Wi-Fi speed are different things
Many troubleshooting mistakes begin by mixing up two links.
First, there is the broadband connection from the internet service provider to your modem, optical network terminal or gateway.
Second, there is the local Wi-Fi connection from your router or access point to your device.
Either can be the bottleneck.
If you buy a faster internet package but your Wi-Fi link can only deliver 80 Mbps reliably in a distant room, a 2 Gbps broadband plan will not make that room operate at 2 Gbps.
Likewise, perfect Wi-Fi cannot make a 100 Mbps internet connection deliver 500 Mbps from the public internet.
A useful diagnosis separates:
- internet service capacity;
- wired local-network capacity;
- Wi-Fi link capacity;
- server or application capacity.
The slowest relevant component sets the experienced limit.
Why speed-test results change from room to room
A speed test measures a whole path.
It depends on the Wi-Fi connection, the router, the internet service, the selected test server, network load and device performance.
When the result drops sharply as you move away from the router, Wi-Fi is a strong suspect.
But one test is not enough to prove the cause.
Useful comparisons include:
- same device, same server, different rooms;
- same room, different Wi-Fi bands;
- wireless versus Ethernet;
- one device versus another;
- quiet time versus busy time.
The goal is to change one variable at a time.
That is how a vague complaint such as “the Wi-Fi is bad” becomes a diagnosable system.
Why latency can rise even when speed looks acceptable
Speed and latency are different.
Throughput tells you how much data can be transferred over time.
Latency tells you how long it takes for information to make the trip.
A weak Wi-Fi link can increase latency because frames wait for airtime, are retransmitted, or encounter buffering.
Interactive applications notice latency quickly.
Video calls, cloud gaming, remote desktops and online games can feel poor even when a speed test shows enough bandwidth for the application’s average data rate.
A network can therefore be “fast” in bulk transfer and still feel unresponsive.
Good Wi-Fi design considers both capacity and delay.
Why video sometimes works when browsing feels slow
Streaming services use buffering.
They can download chunks of video ahead of playback, creating a cushion against short network interruptions.
Web browsing and interactive apps often require many smaller request-and-response exchanges. Delays in those exchanges can feel immediate.
This is why network performance cannot be judged from one activity.
A connection that streams a movie successfully might still perform badly for:
- gaming;
- video conferencing;
- remote control;
- real-time collaboration;
- pages that load many small resources.
Different applications stress the network differently.
Why signal bars can be misleading
The Wi-Fi icon on a phone or laptop is a simplified display.
It may represent received signal strength, but manufacturers use different thresholds and smoothing methods.
It usually does not directly show:
- interference;
- channel congestion;
- retransmission rate;
- uplink quality;
- negotiated spatial streams;
- actual internet speed;
- latency.
Two devices can show the same number of bars and achieve very different performance.
The icon is useful for a quick impression, not a full diagnosis.
Why antennas and device design matter
Wi-Fi performance depends on both ends of the link.
Devices differ in:
- number of antennas;
- antenna placement;
- supported frequency bands;
- supported Wi-Fi generation;
- maximum channel width;
- number of spatial streams;
- transmit power;
- receiver sensitivity;
- driver quality;
- power-saving behaviour.
A modern laptop may sustain a fast connection where an older low-cost device struggles.
Even holding a phone differently can affect antenna performance in some situations.
That is why troubleshooting should avoid assuming the router is always the only problem.
What MIMO does
MIMO means multiple-input, multiple-output.
Instead of treating reflected radio paths only as a problem, modern Wi-Fi can use multiple antennas and signal-processing techniques to transmit multiple data streams under suitable conditions.
This can increase capacity.
The environment matters because MIMO depends on distinguishable spatial paths.
The device must also support the required number of streams.
A router advertised with many antennas does not automatically make every phone receive all of that theoretical capacity.
Performance is negotiated between the actual capabilities of both ends.
Why reflections can help and hurt
Indoor radio waves bounce from walls, floors, ceilings and objects.
Multiple copies of a transmission can arrive at slightly different times and phases.
In older simple radio systems, this multipath behaviour could be a major problem.
Modern Wi-Fi uses technologies such as OFDM and MIMO that are designed to handle and sometimes exploit multipath.
Still, reflections can create local dead zones and changing signal conditions.
Moving a device a surprisingly short distance can improve or worsen reception because the pattern of reflected waves changes.
This is one reason there is no perfectly smooth map of “distance from router equals speed.”
The building shapes the radio environment.
Why router placement matters more than many people expect
A router hidden in a cabinet at one end of a home begins with a disadvantage.
Useful placement principles include:
- place the access point reasonably centrally relative to the devices it serves;
- keep it elevated rather than on the floor;
- avoid enclosing it in metal or dense furniture;
- avoid placing it directly beside large interfering electronics where practical;
- reduce the number of dense walls between it and important devices;
- use additional wired access points when one location cannot cover the space well.
The aim is not to make the router visually prominent.
The aim is to give radio waves sensible paths.
A beautiful hidden installation can be a poor network installation.
Why putting the router “higher” can help
Wi-Fi radio energy propagates in three dimensions, and many home access points radiate most usefully around their antenna geometry rather than straight upward or downward.
Raising the device can reduce blockage from furniture and people.
It can also improve line-of-sight paths through doorways and across rooms.
The effect depends on the specific antenna design and building, so “higher is always better” is too simple.
But putting a router on the floor behind a television stand is rarely an ideal starting point.
Why extenders sometimes disappoint
A wireless range extender receives Wi-Fi and retransmits it.
This can improve coverage, but it may also consume additional airtime and add another wireless hop.
If the extender itself has a weak connection back to the main router, it cannot create a fast upstream link out of nothing.
Placement is critical.
An extender should normally sit where it still receives a good signal while being closer to the weak area.
Putting it inside the dead zone is like placing a translator where neither side can be heard clearly.
Why wired access points are often better
A separate access point connected by Ethernet has a dedicated wired path back to the network.
That means it does not need to spend wireless airtime relaying traffic to the main router.
For large homes, offices or multi-storey buildings, multiple well-placed wired access points can provide far more consistent coverage than trying to increase the power of one central router.
This is how many professional Wi-Fi systems are built.
Coverage comes from several local radios connected by a strong backbone.
The principle is simple:
bring the access point closer to the user instead of demanding that one radio cross the entire building.
What mesh Wi-Fi does
Mesh Wi-Fi uses multiple nodes that coordinate to provide broader coverage.
Some mesh systems use wireless links between nodes. Others can use Ethernet backhaul.
A well-designed mesh can improve roaming and simplify management.
But “mesh” does not override radio physics.
A wireless mesh node that has a poor connection to the main node will have limited performance.
Good placement still matters.
Wired backhaul, where practical, can improve capacity by removing the need for user traffic and backhaul traffic to compete on the same radio resources.
Mesh is a network architecture, not a magic signal amplifier.
Why adding maximum transmit power is not the universal solution
It is tempting to solve range by making the router transmit more strongly.
There are several problems.
First, regulatory limits exist.
Second, the client device also needs to transmit back.
Third, excessive power can increase interference for neighbouring networks.
Fourth, a device may stay connected to a distant access point longer than it should, creating inefficient roaming.
Good Wi-Fi is not a shouting contest.
It is a planned two-way communication system.
Why 2.4 GHz devices can interfere without being Wi-Fi
The 2.4 GHz band is shared by several technologies and household devices.
Depending on design and use, interference can come from sources such as:
- Bluetooth activity;
- some cordless devices;
- poorly shielded electronics;
- microwave ovens while operating;
- neighbouring Wi-Fi networks.
Modern protocols are designed to coexist reasonably well, but heavy local activity can still reduce available airtime or raise the noise floor.
This is another reason the same router can perform differently at different times of day.
The radio environment changes.
Why a microwave oven can affect Wi-Fi
Microwave ovens use electromagnetic energy near the 2.4 GHz region to heat food.
A properly functioning oven is shielded, but small amounts of leakage and broad noise can sometimes interfere with nearby 2.4 GHz Wi-Fi reception.
The effect varies with distance, shielding, equipment and channel.
A microwave does not “use your Wi-Fi.”
It is simply another source of electromagnetic energy in a nearby frequency range.
If a connection drops only when the microwave is running, changing router placement or using 5 GHz or 6 GHz where appropriate may help.
Why Wi-Fi standards matter
Successive Wi-Fi generations have improved efficiency, throughput and multi-device handling.
Newer standards can introduce features such as:
- more efficient modulation;
- better multi-user scheduling;
- improved use of multiple antennas;
- wider channel options;
- new frequency bands;
- better performance in dense environments.
But both the access point and client device must support the relevant features.
A new router cannot make an old client radio behave like a new one.
Likewise, a new laptop connected to an old access point is limited by the older side.
Network performance is negotiated, not imposed.
Why the advertised router speed is not what one device gets
Router boxes often show large combined numbers.
These may add theoretical maximum rates across multiple radios and bands.
A single device generally connects to one band at a time and has its own limits.
Real throughput is also lower than the raw physical link rate because Wi-Fi needs:
- framing;
- acknowledgements;
- management traffic;
- contention time;
- error correction;
- retransmissions;
- protocol overhead.
The advertised number is therefore not a promise that a phone will download at that rate.
It is a capacity-related marketing figure under specific assumptions.
Why crowded networks slow down even near the router
Distance is not the only reason Wi-Fi becomes slow.
If many devices are active, they share airtime.
A home may have phones, laptops, televisions, tablets, cameras, speakers, consoles, appliances and smart-home devices.
Many of these use little data most of the time, but simultaneous activity can create contention.
Large uploads are especially important because they can occupy upstream capacity and create queueing delays.
A fast nearby device can therefore feel slow because the network is busy, not because its signal is weak.
Good diagnosis separates coverage from congestion.
Why moving one metre can sometimes change everything
Indoor radio propagation creates peaks and nulls.
Reflected copies of a signal can combine constructively or destructively.
A device sitting in a weak spot may improve dramatically after being moved to a table, doorway or different side of the room.
This can seem irrational if we think only in terms of straight-line distance.
But Wi-Fi does not travel through a simple empty sphere.
It travels through a complicated three-dimensional environment full of reflecting and absorbing surfaces.
Small geometry changes can matter.
How to diagnose slow Wi-Fi methodically
The fastest way to waste time is to change five settings at once.
A better approach is to isolate variables.
Step 1: test near the router
Use one capable device close to the access point.
If performance is already poor, distance is probably not the main issue.
Step 2: compare wired performance
If practical, test the internet connection over Ethernet.
This helps separate broadband problems from Wi-Fi problems.
Step 3: move through the space
Use the same device and repeat the test at several locations.
Look for where performance begins to fall.
Step 4: compare bands
Test 2.4 GHz and 5 GHz, or 6 GHz where available and appropriate.
Step 5: check busy times
If performance changes with time of day, local or internet congestion may be involved.
Step 6: check multiple devices
One bad device can indicate a client problem rather than a whole-network problem.
Step 7: inspect placement
Look at what the radio path crosses: concrete, metal, floors, cabinets, appliances.
Diagnosis should produce a map of the problem.
Practical ways to improve Wi-Fi range and speed
The best fix depends on the cause, but common improvements include:
- move the router or access point to a more central, open location;
- use 2.4 GHz for distant low-bandwidth devices;
- use 5 GHz or 6 GHz for high-speed nearby devices where conditions allow;
- add a properly placed access point;
- use Ethernet backhaul where possible;
- reduce unnecessary interference;
- avoid hiding the router behind dense or metallic obstacles;
- update old hardware when device limitations are the bottleneck;
- use sensible channel planning in multi-access-point networks;
- connect fixed high-bandwidth devices by Ethernet when practical.
The goal is not to force every device onto the fastest-looking band.
The goal is to give each device a reliable path with enough capacity.
Common myths about slow Wi-Fi
Myth: more signal bars always mean faster internet
Bars mostly indicate received signal strength. Congestion, interference, device capability and internet service can still limit performance.
Myth: buying a faster internet plan fixes weak Wi-Fi
It only helps if the broadband connection was the bottleneck.
Myth: a more expensive router must cover a whole large building
Better radios and antennas can help, but walls and distance remain. Large spaces often need multiple access points.
Myth: 5 GHz is always better than 2.4 GHz
5 GHz can be faster nearby, while 2.4 GHz often reaches farther.
Myth: an extender placed in the dead zone will create strong Wi-Fi
The extender needs a good upstream connection first.
Myth: Wi-Fi speed is the same as link speed
Actual application throughput is lower because of protocol overhead, contention and retransmission.
Questions people often ask about Wi-Fi distance
How far can Wi-Fi reach?
There is no single meaningful indoor distance. Range depends on transmit power, antennas, frequency, walls, interference, receiver quality and required speed. A network may remain detectable much farther than it remains fast.
Why is Wi-Fi slow upstairs?
The signal may need to pass through a floor, structural material, pipes, wiring and furniture. Vertical router placement can also be poor. A second access point may be more effective than increasing power.
Why is the bedroom slow even though it is not far away?
The straight-line distance may cross dense walls or a bathroom containing pipes and moisture. Radio path quality matters more than walking distance.
Why does opening a door improve Wi-Fi?
A doorway can create a lower-loss path than a dense wall, allowing more radio energy to reach the device.
Why does my phone have Wi-Fi but no internet?
The wireless connection to the router can be active while the router’s internet connection is down, DNS is failing, authentication is incomplete or another network problem exists.
Why is Wi-Fi faster on one phone than another?
Devices have different antennas, radios, Wi-Fi standards, spatial-stream support, power management and software.
Why is download fast but upload slow?
The client device may transmit with less effective power, the internet plan may provide asymmetric upstream capacity, or upstream congestion may be present.
Why does Wi-Fi get worse when many people come home?
More local devices and neighbouring networks become active, increasing airtime contention and possibly internet congestion.
Should I use automatic band steering?
Often it is useful because the network can guide devices toward suitable bands, but behaviour depends on the access point and client. Manual separation can sometimes help troubleshooting.
Does restarting a router really help?
It can temporarily clear software states, force new channel selection on some systems or recover from faults. If restarting is repeatedly necessary, the underlying cause should still be investigated.
The deeper reason Wi-Fi gets slower with distance
Wi-Fi speed falls with distance because digital communication depends on certainty.
The receiver must decide what pattern of radio energy was transmitted.
Nearby, the signal is strong and clean enough to support dense information encoding.
Farther away, the signal is weaker. Walls remove energy. Other transmitters compete for airtime. Noise becomes more significant. Reflections complicate the path. Frames fail more often.
The network responds intelligently.
It slows the signalling rate.
It adds robustness.
It retransmits lost data.
It uses more airtime to deliver the same useful information.
That adaptation keeps the connection alive, but the visible result is lower speed and sometimes higher latency.
Once you understand that, Wi-Fi troubleshooting becomes much less mysterious.
The question is no longer “Why are my bars bad?”
It becomes:
What is reducing signal quality here?
Is the problem distance, obstacles, interference, congestion, device capability or the internet service itself?
And would the network improve more by moving the radio closer than by asking one router to shout farther?
That is the core principle behind reliable wireless design.
Good Wi-Fi is not created by maximum numbers on a box.
It is created by strong enough signals, clean enough channels, capable devices and access points placed where the users actually are.