Elapsed time and moving time measure two different parts of an activity.
Elapsed time includes the entire period between starting and finishing. Moving time attempts to include only the periods during which you were actually moving.
The difference may be only a few seconds during an uninterrupted workout. During an activity with traffic lights, rest stops, photographs or equipment adjustments, it can become several minutes or even hours.
Understanding these measurements helps explain why two activity summaries can show different durations, average speeds or paces for the same route.
| Measurement | What it includes | Most useful for |
|---|---|---|
| Elapsed time | The complete period from start to finish, including stops | Route planning, total outing duration and daylight requirements |
| Moving time | The periods during which movement was detected | Comparing active pace, speed and performance |
What is elapsed time?
Elapsed time is the complete amount of time between the start and finish of an activity.
If you begin at 9:00 and finish at 10:15, the elapsed time is 1 hour and 15 minutes. It does not matter whether you moved continuously during that period.
Elapsed time includes:
- Time spent moving.
- Manual and automatic pause periods.
- Waiting at road crossings.
- Rest and food stops.
- Time spent checking directions.
- Equipment adjustments.
- Photography stops.
- Any other interruption before the activity ends.
Some applications use labels such as duration, active time or recorded time differently, so check the app’s definitions before comparing results.
Elapsed time answers a simple question:
How much real-world time passed from the beginning of the activity to the end?
This is useful when the total duration matters more than continuous movement.
What is moving time?
Moving time is an estimate of how long you were actively travelling.
The tracker attempts to exclude periods when your position remained stationary or your movement fell below a chosen threshold.
If an activity lasted 1 hour and 15 minutes but included 10 minutes of stops, its moving time may be approximately 1 hour and 5 minutes.
Moving time answers a different question:
How long was I actually in motion?
This can be useful when comparing pace, speed or performance across similar activities.
A simple example
Consider a five-kilometre activity with the following timeline:
- 28 minutes moving.
- 2 minutes waiting at traffic lights.
- 1 minute checking directions.
- 4 minutes resting before finishing.
The complete activity took 35 minutes.
The timing values would be approximately:
- Elapsed time: 35 minutes.
- Moving time: 28 minutes.
- Stationary time: 7 minutes.
Both durations are valid. They describe different aspects of the same activity.
Elapsed time describes the complete outing. Moving time describes the active movement within it.
Why do elapsed time and moving time affect pace?
Pace is commonly expressed as the amount of time needed to cover a unit of distance, such as minutes per kilometre or minutes per mile.
If stationary time is included, the average pace becomes slower.
Using the previous five-kilometre example:
- Moving time: 28 minutes.
- Elapsed time: 35 minutes.
The average pace calculated from moving time is:
28 minutes ÷ 5 kilometres = 5:36 per kilometre
The average pace calculated from elapsed time is:
35 minutes ÷ 5 kilometres = 7:00 per kilometre
Neither value is mathematically wrong.
The first describes the pace maintained while moving. The second describes how long the complete activity took per kilometre, including every interruption.
This is why two applications can display different average paces even when they use the same route and distance.
Why do they affect average speed?
Average speed is calculated by dividing distance by time.
Suppose a cyclist travels 30 kilometres:
- Moving time: 1 hour.
- Elapsed time: 1 hour and 20 minutes.
Average speed based on moving time is:
30 km ÷ 1 hour = 30 km/h
Average speed based on elapsed time is:
30 km ÷ 1.33 hours = approximately 22.5 km/h
The difference is substantial because the elapsed calculation includes 20 minutes of stationary time.
When comparing activity results, check which duration was used for the displayed average.
What counts as movement?
Determining whether someone is moving sounds straightforward, but GPS measurements are never perfectly still.
Even when a phone remains in one place, its reported position may drift by several metres. Trees, buildings, terrain and reflected satellite signals can make the recorded point move around the actual location.
A tracker cannot simply treat every change in position as genuine movement.
It may instead consider information such as:
- Current or recent speed.
- Distance between recorded points.
- How long the low-speed period lasts.
- GPS accuracy.
- The selected activity type.
- Whether the workout was paused manually.
- Whether auto-pause was activated.
The exact calculation varies between applications. As a result, moving time should be understood as an informed estimate rather than a perfectly objective measurement.
For more detail about GPS drift, signal obstruction and route errors, see How accurate is phone GPS for outdoor activity tracking?.
Why activity type matters
The same movement threshold is not appropriate for every activity.
A low speed may indicate a stop during road cycling but represent normal movement during a steep hike. Slow movement can also be expected during technical mountain biking, trekking over difficult ground or navigating a crowded urban area.
An activity tracker should consider the expected behaviour of the selected activity.
Examples include:
Road cycling
Cycling speeds are normally higher, making genuine stops easier to detect. Coasting, tight turns and steep climbs can still produce temporary low-speed readings.
Mountain biking
Technical terrain may involve frequent low-speed sections that are part of the ride rather than actual stops.
Hiking and trekking
Movement may be naturally slow and irregular, particularly on climbs, rocky ground or difficult trails. An aggressive threshold could incorrectly remove valid sections.
Indoor workouts
GPS movement may not be relevant at all. Duration may instead be based on the workout timer and manual pause controls.
This is why configurable auto-pause settings can be more useful than a single threshold applied to every sport.
Valid slow movement can otherwise be classified as stationary during steep climbs, technical trail sections, crowded routes, difficult mountain-bike terrain or frequent changes of direction.
If slow movement is an important part of the activity, a less aggressive auto-pause setting or manual control may produce a more representative result.
Is paused time the same as stopped time?
Not necessarily.
Paused time usually means the workout timer was deliberately or automatically paused.
Stopped time means the person was stationary, regardless of whether the tracker paused.
For example, you may wait for one minute at a road crossing while the workout continues recording. That minute is stopped time, but it is not paused time.
You may also pause a workout before sitting down for a longer rest. In that case, the rest is both stopped time and paused time.
The distinction affects how the application calculates and displays the final activity.
How does manual pause affect the result?
Manual pause gives you direct control over which periods are included in the active workout timer.
It is useful when:
- Taking a planned rest.
- Stopping for food.
- Repairing equipment.
- Entering a building.
- Waiting for a group.
- Interrupting the activity for a reason unrelated to the route.
The main disadvantage is that you must remember both actions.
Forgetting to pause includes the interruption. Forgetting to resume can exclude part of the activity.
Manual pause works best for deliberate stops where you know the active timer should not continue.
How does auto-pause affect the result?
Auto-pause temporarily stops the active workout timer when movement falls below a configured threshold. It resumes the timer when movement begins again.
This can be useful for routine interruptions such as:
- Traffic lights.
- Road crossings.
- Short navigation checks.
- Brief waits for other participants.
- Momentary stops during an urban route.
Auto-pause can make the workout duration more closely resemble moving time without requiring repeated manual interaction.
However, it is still based on movement detection. A poorly chosen threshold can pause during valid slow movement or continue recording during small GPS fluctuations.
The best setting depends on the activity and what you want the final result to represent.
For an example of why this feature matters on a smartwatch, see Does Google Fit have auto-pause on Wear OS?.
Why can two fitness trackers show different moving times?
Two applications can record the same activity and still report different moving times.
Possible reasons include:
Different speed thresholds
One tracker may classify movement below a certain speed as stationary, while another continues counting it.
Different delay periods
Some trackers wait several seconds before pausing so that brief GPS fluctuations do not repeatedly stop and restart the timer.
GPS filtering
Applications may process inaccurate or irregular location points differently.
Activity-specific settings
One tracker may use separate rules for hiking, cycling and running, while another applies a general calculation.
Manual pause behaviour
Applications may distinguish active duration, paused duration and total elapsed time differently in the final summary.
Post-activity processing
Moving time may be calculated during the activity or reconstructed afterward from the recorded route.
A difference between applications does not automatically mean one recording is wrong. You must first determine which time definition and method each one uses.
When is elapsed time more useful?
Elapsed time is useful when the complete duration of the activity matters.
Examples include:
- Completing a hiking route before sunset.
- Measuring how long a day trip took.
- Planning the duration of a future route.
- Recording an event where rest periods are part of the experience.
- Comparing total travel time.
- Understanding battery, food or hydration requirements.
- Measuring the time between leaving and returning.
For a long hike, two hours of rest may be important because they still affect daylight, temperature exposure and the total time spent outdoors.
Excluding them would provide an incomplete picture of the day. For route planning around daylight and changing conditions, read What weather conditions should you check before an outdoor activity?.
When is moving time more useful?
Moving time is useful when the focus is on active performance.
Examples include:
- Comparing pace across repeated routes.
- Reviewing cycling speed without long café stops.
- Analysing the active part of a training session.
- Comparing distance covered per hour of movement.
- Understanding how effort changed while travelling.
- Evaluating splits without unrelated interruptions.
Moving time can make repeated activities easier to compare when the amount of stationary time varies.
It should still be considered alongside elapsed time, particularly when the stops are part of the route or activity strategy. Distance splits can provide additional detail about where pace or speed changed.
Which time should you use when comparing activities?
Use the same measurement for every activity in the comparison.
Comparing moving time from one workout with elapsed time from another produces a misleading result.
Before comparing pace or speed, check:
- Whether auto-pause was enabled.
- Whether manual pauses were used.
- Which duration the average uses.
- Whether both activities used similar tracking settings.
- Whether the routes contained similar types of stops.
- Whether one activity involved unusually slow but valid movement.
Consistency is more important than choosing one measurement universally.
If your goal is active performance, compare moving-time statistics. If your goal is total route completion, compare elapsed time.
Can moving time be calculated without auto-pause?
Yes.
An application can record the entire activity continuously and estimate moving time afterward.
It can examine the location points and determine which sections appear to contain movement. This allows it to report moving time even if the visible timer never paused during the workout.
Auto-pause changes the active timer while the activity is taking place. Post-activity moving-time calculation analyses the completed recording later.
The results may be similar, but the two processes are not identical.
What about indoor activities?
Elapsed time and active time still matter indoors, even when GPS is not involved.
For a gym workout, elapsed time may include:
- Rest between sets.
- Moving between equipment.
- Preparing weights.
- Waiting for equipment.
- Conversation or unrelated interruptions.
Whether these periods should count depends on the purpose of the measurement.
Rest between sets is normally part of strength training, while a 20-minute interruption may not be. Manual pause is often more appropriate indoors because movement speed does not reliably describe whether the workout is active.
How VMFit handles activity timing
VMFit supports manual workout controls and lets you configure auto-pause separately for supported GPS-tracked activity types. This allows activities with different movement patterns to use settings suited to their expected speeds.
A threshold appropriate for road cycling may not be suitable for hiking, trekking or technical mountain biking.
VMFit’s Wear OS companion app also provides controls for:
- Starting an activity.
- Pausing the workout.
- Resuming the workout.
- Stopping the activity.
- Viewing live workout information.
The Android phone performs the primary activity recording, while the compatible watch provides convenient access to the controls and current measurements.
After an activity, recorded timing can be considered alongside the route, distance, pace, speed, elevation, laps and graphs. Together, these provide more context than a single average value.
To understand how route and timing measurements are created, read What is a GPS activity tracker and how does it work?.
Frequently asked questions
What is the difference between elapsed time and moving time?
Elapsed time covers the complete period from starting to finishing. Moving time attempts to include only the periods during which you were actively moving.
Does moving time exclude traffic lights?
It may, depending on the tracker’s movement detection or whether auto-pause was enabled.
Why is my moving pace faster than my elapsed pace?
Moving pace excludes some or all stationary time. Elapsed pace includes the complete duration, so the average becomes slower when the activity contains stops.
Is moving time always accurate?
No. It is an estimate based on recorded locations, speed, timing and the tracker’s movement rules. GPS drift and slow movement can affect the result.
Should rest stops count during a hike?
That depends on what you want to measure. Include them when total route duration matters. Use moving time when analysing active travel separately.
Does auto-pause calculate moving time?
Auto-pause can make the active timer resemble moving time by pausing during detected stops. Some trackers also calculate moving time separately after the activity.
Can two apps report different moving times?
Yes. They may use different thresholds, delays, GPS filtering and post-processing methods.
Which time should I use for average speed?
Use moving time when evaluating speed while actively travelling. Use elapsed time when evaluating how long the complete route took.
Conclusion
Elapsed time and moving time are not competing versions of the same measurement. They answer different questions.
Elapsed time shows how long the complete activity took from start to finish. Moving time estimates how much of that period was spent actively travelling.
Moving time is often useful for comparing pace and speed, while elapsed time provides the total real-world duration of a route or outing.
Reviewing both values gives a clearer understanding of an activity than relying on either one alone.