THE VERDICT · SUPPORTED IN THIS SAMPLE
Recent arrivals were more likely to be outside the top 20 a week later.
In the apps and dates I studied, recent arrivals appeared outside the top 20 more often than established apps that started in similar positions. The same pattern appeared in the earlier and later periods in both stores.
This is a group pattern, not a prediction for every app. It does not tell me why an app moved or whether its listing is better.
See what I found ↓
MY QUESTION
Is today’s chart position enough?
When I research an app, I often see a competitor near the top of a chart. But a single snapshot does not tell me whether that app has held its place for days or just arrived.
I wanted to know if that history made a difference to what happened next.
I found apps in the top 20 after spending the previous seven days outside it.
I matched each arrival with an app near the same starting position that had already spent at least five of the previous seven days in the top 20, including the day before.
I checked their positions seven days later in the same market and store.
A recent chart arrival is not necessarily a newly launched app. A familiar app can return to the top 20.
MY THEORY VS THE RESULT
The new arrivals dropped out more often.
My theory
Apps that had only just returned to the top 20 would be outside it more often a week later than established apps starting nearby.
What I found
That pattern appeared in both stores in the sample I tested, including a later period used to check the result.
recent arrival ↔ established app
Later checking period, matched pairs. These are positions on day seven, not the first day of departure.
See the original result chart
Later checking period. Higher bars mean more apps were outside the top 20 on that day.
Each pair matched apps in the same store, country and starting date, within three chart positions. These are positions on day seven: an app could leave earlier and return.
REAL APPS IN MY SAMPLE
What did that look like for actual apps?
These are historical US examples from the later period. They illustrate different outcomes, not proof of why an app moved. App names are as recorded in the source.
US · APP STORE
KICK and CapCut
KICK started at number 13 and was outside the top 100 seven days later. Its established comparison, CapCut, moved from 12 to 15.
US · GOOGLE PLAY
PDF Reader and WhatsApp
PDF Reader started at number 5 and was outside the top 100 seven days later. WhatsApp moved from 4 to 5.
US · GOOGLE PLAY
McDonald’s and X
The recent arrival McDonald’s climbed from 19 to 9, while its established comparison X moved from 18 to 23. A new arrival can stay or climb.
Outside the top 100 means the app was absent from that complete chart, not that it was removed from the store. None of these examples imply a client relationship.
MY ASO TAKEAWAY
Look at more than one day.
My ASO tip: Before treating an app as a sustained chart leader, look at its recent history. A single day tells only part of the story.
My ASO strategy: Keep emerging apps and established apps on your research list, but label them separately and revisit their positions over time.
My ASO warning: Chart persistence does not prove an app has better screenshots, keywords or conversion. This study did not measure those things.
WHAT I COULD NOT PROVE
Here is where the evidence stops.
- Why an app moved: I did not measure advertising, brand strength or seasonal demand.
- What happens to every app: The sample covers a short historical period and selected broad free app charts.
- Search ranking or installs: These were chart positions, not keyword rankings, conversion or private download counts.
- Identical comparisons: Apps were matched by chart, date and nearby starting position, but they can still differ in important ways.
- Independent samples: Some apps were reused, and the early and later periods can share outcome dates. The later check is not a fully independent experiment.
SOURCES & METHODS
Want to check my work?
I used AppOrbit’s archived chart records. I reran the supplied verifier against the saved data. Its checks rebuild chart histories, matched pairs and outcomes; they do not independently establish the accuracy of the original archive or why apps moved.
The source data and complete technical report are retained locally while third party redistribution rights are reviewed.
Read the original report and technical details
ASO RESEARCH · EXPERIMENT 4 · 27 OCTOBER 2026
Before choosing an app to study, check how long it has been near the top.
A high app-chart position today does not tell you whether that app will still be there next week. In our test, a week of chart history made a big difference.
The theory was supported in this sample. In the later-date check, about two-thirds of new top-20 arrivals were outside the top 20 a week later. Established apps at similar starting positions were much more likely to remain.The ASO question
You are researching successful apps. You open the chart, find an app near the top and start studying its title, screenshots and description.
But did you find an app that stays popular, or one that appeared near the top only recently?
Our theory: new top-20 arrivals are more likely to fall out of the top 20 over the following week than established apps at similar starting positions.
Why this matters for ASO
Your competitor shortlist shapes what you study. If you choose apps from a single chart snapshot, you may spend time examining a temporary chart appearance.
The practical implication is to check an app’s recent chart history before treating it as a benchmark for sustained visibility. This is an implication for ASO research, not proof that the more persistent apps have better screenshots, keywords or conversion rates.
What counts as a new arrival?
We compared two groups:
- New chart arrivals: apps in the top 20 today that were outside the top 20 on all seven previous days.
- Established chart apps: apps in the top 20 today that were also there on at least five of the previous seven days, including yesterday.
“New” means new to that chart’s top 20 after a week outside it. It does not mean a newly launched app. A familiar app such as DoorDash can qualify.
Each newcomer was paired with an established app in the same store, country and date, starting no more than three chart positions apart. For example, a newcomer at #13 might be compared with an established app at #12.
The main result: what happened a week later?
These are the results for the later event dates, October 8 to October 19, 2026. Each pair contains one newcomer and one established app.
| Store | Matched pairs | New arrivals outside top 20 after 7 days | Established apps outside top 20 after 7 days | Difference |
|---|---|---|---|---|
| Apple App Store | 69 | 45/69 (65.2%) | 13/69 (18.8%) | 46.4 percentage points |
| Google Play | 67 | 42/67 (62.7%) | 18/67 (26.9%) | 35.8 percentage points |
Apple: 45 of 69 new arrivals were outside the top 20 a week later. Only 13 of their 69 established comparison apps were outside it.
Google Play: 42 of 67 new arrivals were outside the top 20 a week later, compared with 18 of their 67 established comparison apps.
These are positions on day seven. An app could leave the top 20 during the week and then return, so “outside after seven days” is different from “left at any point”.
Did it happen in the earlier dates too?
Yes. Using the same rules on September 26 to October 7 produced the same direction and a large difference in both stores.
| Store | Matched pairs | New arrivals outside top 20 after 7 days | Established apps outside top 20 after 7 days |
|---|---|---|---|
| Apple App Store | 107 | 70.1% | 21.5% |
| Google Play | 88 | 72.7% | 27.3% |
Before calculating outcomes, we required a gap of at least 15 percentage points in both date periods and both stores, with at least 30 pairs in each group and a further stability check. The study met those requirements.
How quickly did the apps leave?
In the later-date sample, the share outside the top 20 at each checkpoint was:
| Store | Time after starting date | New arrivals | Established apps |
|---|---|---|---|
| Apple App Store | 1 day | 39.1% | 8.7% |
| Apple App Store | 3 days | 69.6% | 11.6% |
| Apple App Store | 7 days | 65.2% | 18.8% |
| Google Play | 1 day | 17.9% | 10.4% |
| Google Play | 3 days | 52.2% | 19.4% |
| Google Play | 7 days | 62.7% | 26.9% |
On Apple, new arrivals appeared in the top 20 on an average of 2.5 of the next seven daily charts. Their established comparison apps appeared on 6.0. On Google Play, the figures were 3.4 days and 5.4 days.
The Apple newcomer exit rate was slightly lower on day seven than on day three because some apps returned. These checkpoints do not describe a one-way, permanent disappearance.
Real app examples, including exceptions
The following are US chart pairs from the later period. For each store, we selected the earliest pair where the newcomer left and the established app stayed, plus the earliest pair where the newcomer remained. These illustrate the findings; they are not the basis for the overall percentages.
| Store | Starting date | New arrival: start → 7 days later | Established app: start → 7 days later |
|---|---|---|---|
| Apple App Store | 2026-10-16 | KICK - Live Streaming: #13 → Outside top 100 | CapCut: Photo & Video Editor: #12 → #15 |
| Apple App Store | 2026-10-18 | DoorDash: Food, Grocery, More: #18 → #17 | Depop - Buy & Sell Clothes: #17 → #22 |
| Google Play | 2026-10-08 | PDF Reader: #5 → Outside top 100 | WhatsApp Messenger: #4 → #5 |
| Google Play | 2026-10-09 | McDonald's: #19 → #9 | X: #18 → #23 |
KICK and PDF Reader illustrate the pattern. DoorDash and McDonald’s show the exception: a new chart arrival can stay in the top 20 or climb higher. The result helps describe a group; it does not predict every individual app.
App names are historical names from the archived metadata available before the starting chart capture. “Outside top 100” means absent from a complete top-100 chart. It does not mean removed from the store.
Could this just be because newcomers started lower?
Newcomers did start slightly lower on average. In the main later-date comparison, the average starting ranks were #12.86 versus #12.12 on Apple, and #15.30 versus #14.37 on Google Play.
We therefore repeated the matching with a stricter rule: the apps could start only one chart position apart. The difference remained large: 62% versus 16% on Apple, and 67% versus 26% on Google Play.
We also used a stricter definition of “established” and checked the result after counting each newcomer app ID only once across countries.
| Store | Later-date check | Pairs | New arrivals outside top 20 after 7 days | Established apps outside top 20 after 7 days |
|---|---|---|---|---|
| Apple App Store | Original comparison | 69 | 65.2% | 18.8% |
| Apple App Store | Starting ranks only one place apart | 50 | 62.0% | 16.0% |
| Apple App Store | Established apps present all 7 prior days | 60 | 61.7% | 6.7% |
| Apple App Store | Each newcomer app ID counted once across countries | 64 | 65.6% | 17.2% |
| Google Play | Original comparison | 67 | 62.7% | 26.9% |
| Google Play | Starting ranks only one place apart | 57 | 66.7% | 26.3% |
| Google Play | Established apps present all 7 prior days | 61 | 60.7% | 19.7% |
| Google Play | Each newcomer app ID counted once across countries | 59 | 64.4% | 27.1% |
The stricter matches still do not create identical apps. Category, advertising, brand strength and starting position may differ. The evidence supports an association between prior chart persistence and later persistence, not a causal explanation.
What can we publish from this?
Suggested research claim: “In this sample of free-app charts, new top-20 arrivals were substantially more likely to be outside the top 20 a week later than established apps starting within three chart positions. The pattern repeated in both stores and in a later date period.”The ASO lesson: one day’s rank is a limited basis for choosing an app to study as an example of sustained chart visibility. Looking back over the previous week gives useful context.
This does not tell us to ignore new arrivals. It tells us to distinguish an emerging app from an established chart performer before drawing lessons from its listing.
What we did not prove
We did not test keyword rankings, store-page conversion or private download counts. We did not establish why apps rose or fell. A brief chart appearance might reflect advertising, seasonality or another event, but those explanations were not measured.
We used broad free-app charts, not a list of direct competitors within one category. The earlier fitness-app example explained the idea; this was not a fitness-category study. Apple’s broad apps chart includes games, while Google Play’s apps chart excludes games, so we kept the stores separate.
Finally, this was a short historical study. The later Apple sample covers seven markets, and the later Google Play sample covers nine, with uneven numbers of pairs. It is not a representative estimate for every app or country.
Open the methods, country results and verification
Data and sample
The archived source covers September 19 to October 26, 2026. We selected the latest complete, valid top-100 free-app chart for each market’s local date. That produced 708 usable daily charts across the two stores. Each had 100 distinct app IDs and ranks 1 through 100.
We evaluated arrival dates from September 26 through October 19, allowing seven days of previous history and seven days of follow-up. Every date in both windows had to have a complete chart. We did not treat missing chart data as an app leaving the top 20.
| Store | Pairs across both periods | Distinct newcomer IDs | Distinct comparison-app IDs | Later pairs | Markets with later pairs |
|---|---|---|---|---|---|
| Apple App Store | 176 | 164 | 77 | 69 | 7 |
| Google Play | 155 | 144 | 73 | 67 | 9 |
There were 425 first qualifying newcomer appearances. Of those, 52 lacked complete follow-up, leaving 373 with the required coverage. Another 42 could not be matched within three places, leaving 331 matched pairs: 195 early pairs and 136 later pairs.
We selected the first qualifying arrival per store, country and app before checking follow-up or finding a match. The same app could still appear in different countries. Comparison apps could be reused on other dates, but not within the same chart and starting date. These are paired events, not 662 independent apps.
How the matching worked
For each store-country-date, we first maximized the number of newcomer-established pairs within the three-place limit. Among those solutions, we minimized total rank distance. Future chart positions were not used to choose matches. A fixed rank ordering made tie handling deterministic.
Each matched newcomer event has equal weight. Countries with more eligible pairs contribute more to the overall result. The next table shows starting-rank balance in the later sample and the most times a comparison-app ID was reused there.
| Store | Newcomer mean rank | Established mean rank | Mean absolute rank distance | Maximum control-ID reuse |
|---|---|---|---|---|
| Apple App Store | 12.86 | 12.12 | 1.38 | 7 |
| Google Play | 15.30 | 14.37 | 1.25 | 5 |
The one-place check re-runs matching with that tighter limit. The seven-day-history check requires the established app to have been in the top 20 on all seven previous days. The once-per-app check keeps the earliest primary matched newcomer event for each store-app ID across all countries and then separates the periods. These are robustness checks, not changes to the primary rule.
Later results by country
The percentages below describe apps outside the top 20 seven days later. Some samples are tiny. Equal rates in a country are retained, and countries with no qualifying matched pairs are shown explicitly.
| Store | Country | Pairs | New arrivals | Established apps |
|---|---|---|---|---|
| Apple App Store | Brazil | 0 | No eligible pairs | No eligible pairs |
| Apple App Store | China | 10 | 30.0% | 20.0% |
| Apple App Store | Germany | 17 | 58.8% | 11.8% |
| Apple App Store | United Kingdom | 0 | No eligible pairs | No eligible pairs |
| Apple App Store | Indonesia | 0 | No eligible pairs | No eligible pairs |
| Apple App Store | India | 5 | 80.0% | 20.0% |
| Apple App Store | Japan | 7 | 85.7% | 57.1% |
| Apple App Store | South Korea | 18 | 77.8% | 5.6% |
| Apple App Store | United States | 3 | 66.7% | 33.3% |
| Apple App Store | Vietnam | 9 | 66.7% | 22.2% |
| Google Play | Brazil | 6 | 50.0% | 50.0% |
| Google Play | Germany | 11 | 72.7% | 18.2% |
| Google Play | United Kingdom | 2 | 50.0% | 50.0% |
| Google Play | Indonesia | 5 | 60.0% | 20.0% |
| Google Play | India | 2 | 50.0% | 0.0% |
| Google Play | Japan | 7 | 85.7% | 14.3% |
| Google Play | South Korea | 19 | 68.4% | 26.3% |
| Google Play | United States | 10 | 50.0% | 30.0% |
| Google Play | Vietnam | 5 | 40.0% | 40.0% |
Germany and South Korea contribute many of the later pairs. The pooled result should not be described as a universal pattern in every country: Brazil, the United Kingdom and Vietnam had equal exit rates between the two groups in their small Google Play samples.
Checking stability across dates
We resampled blocks of seven observed event dates 5,000 times, keeping all countries and app pairs on a sampled date together. The middle 95% of the resulting later-date exit-rate gaps was:
| Store | Lower end of gap | Upper end of gap |
|---|---|---|
| Apple App Store | 31.5 percentage points | 61.8 percentage points |
| Google Play | 23.7 percentage points | 44.9 percentage points |
Both ranges remained above zero. These are temporal stability ranges within the observed period, not universal confidence limits. The later period has only 12 event dates. Reused apps, overlapping follow-up windows and shared market events limit the independence of the evidence. The early and later periods can share outcome dates, so the later check is a time-split replication, not a fully independent experiment.
The protocol was written locally before outcome calculation and its hash is included in the results. It was not externally preregistered. The chart dataset had been examined for earlier research questions. The success threshold of a 15-point gap was a chosen practical bar, not an established industry standard.
Verification
A separate verification script rebuilt the previous-week histories and all seven follow-up positions from the archived chart rows. It checked all 331 primary pairs, 254 pairs in the one-place comparison and 298 pairs in the stricter-history comparison.
It also used a different matching calculation, dynamic programming over ordered ranks, to confirm that the pair counts and total rank distances were optimal in every eligible date group. Primary and period totals were independently recalculated. All checks passed.
These are independent calculations using the same source archive. They do not independently validate the original collector against live store charts.
Research context and sources
Chart survival is an existing research topic. Lee and Raghu’s 2014 study, Determinants of Mobile Apps’ Success: Evidence from the App Store Market, examined survival in Apple’s top-grossing 300 chart. Our contribution here is a specific, reproducible comparison of new and established top-20 free-chart apps at nearby starting ranks. We do not claim to have discovered chart persistence for the first time.
Source data: AppOrbit, pinned commit 9621042dde5ad42193bc84c8b54e5bf9b2d4e9eb. The saved evidence includes chart rows, snapshot metadata, historical app names, protocol, code, matched pairs, results and verification. AppOrbit’s database rights are licensed under ODbL 1.0; its license does not grant rights to third-party app-store content. The original license and data-format documentation are included.
For the distinction from search rankings, see Apple’s discoverability documentation, which describes text relevance and customer behavior among search-ranking factors. That documentation supplies context, not evidence for our measured chart-survival result.
This is experiment 4 in an exploratory ASO series. The earlier unsupported results remain part of the record: experiment 1 did not support the proposed reactive-editing pattern; experiment 3 found little extra forecasting value from recent rating growth. Experiment 2 measured differences between countries’ app charts.
The evidence ZIP is built into this HTML file. Save the report and open it in a browser to use the download button. The report uses no external fonts, scripts or images.
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