APEP BAR INVESTIGATION | By Lotta Goddess
A growing public UFO-data platform promises to make nearly 200,000 sightings searchable alongside space weather, earthquakes, meteor events and nuclear facilities. It also contains a revealing contradiction: its headline about nuclear-site concentrations is not supported by its own published comparison.
The UFO community has never lacked stories. What it has lacked is a consistent way to check the stories against one another. Did two witnesses report the same event? Did a meteor cross the sky that night? Was there an earthquake nearby, a geomagnetic storm overhead, or a more ordinary reason that more people were looking up?
Enter UAP Monitor, an online UFO/UAP sightings database and research dashboard. The site says it aggregates 198,000-plus reports from 15 sources, including the National UFO Reporting Center (NUFORC) and Larry Hatch’s historical UFO database. Its coverage is described as stretching from accounts dated to 70 CE through the present. Those figures are the platform’s own claims, not an independent recount of every record.
The idea is attractive: stop arguing from a handful of viral clips and start testing a much larger record. But a database of reports is not a database of proven anomalous craft. And a dashboard’s statistical label is only as credible as its source data, controls and methodology.
What UAP Monitor actually monitors
1. Global UFO and UAP sighting reports
The entry point is the global sighting monitor and interactive map. The publicly indexed interface offers scope selections for all reports and shorter 24-hour, seven-day and 30-day views, along with geographic filtering across the Americas, Europe, Eurasia, Asia and the Middle East, the Pacific, Africa, oceans and space-related categories. The site advertises shape classification and credibility scoring to help users sort large numbers of records.
What it can do: help a reader locate reported incidents, compare regions and periods, explore described shapes and look for recurring narrative patterns. A regional spike can become a lead for follow-up research.
What it cannot do by itself: establish that two descriptions refer to the same physical object, determine an object’s true speed or distance, or prove that a witness observed nonhuman technology. The interface aggregates records from other sources; it should not be confused with an independently operating global network of calibrated cameras and radars. Nor should a feed labeled “live” be assumed to mean every report was observed, reviewed or verified in real time.
UAP Monitor also labels some intelligence feeds as active and others as planned. That distinction matters. A source indicator is not evidence that all proposed integrations are already functioning or that any particular sighting has been independently corroborated.
2. Historical UFO cases and long-term patterns
The site’s historical section highlights cases such as the 1663 Lake Robozero account, the 1908 Tunguska explosion, the 1947 Roswell incident, the 1952 Washington sightings and the 2004 USS Nimitz encounter. This spans folklore and archival testimony, an established natural airburst, disputed historical claims and modern military observations. Those categories require very different standards of evidence.
Its usefulness: giving newcomers a chronology, offering researchers case leads and helping identify how descriptions change over time. Its danger: displaying accounts with radically different documentation side by side can make their certainty appear equal. A dramatic description copied into a historical timeline is still a claim that needs its original source checked.
A related Apep Bar investigation, “The Navy’s UFO Videos Are Authentic. That Still Doesn’t Tell Us What Flew Past the Cameras,” illustrates the difference between authentic footage and a conclusive identification.
3. Geomagnetic and space-weather correlation
One of the site’s dedicated views is Geomagnetic Correlation, supported by the research and methodology page. It compares reported sighting frequencies with the planetary Kp index, a 0–9 measure of disturbance in Earth’s magnetic field. The NOAA Space Weather Prediction Center classifies Kp 5 and above as storm-level activity.
Why monitor this? Geomagnetic storms produce auroras and can disrupt space and radio systems. Researchers may wonder whether unusual sky reports become more frequent during such periods. That is a testable question, without assuming any exotic mechanism.
UAP Monitor’s own comparison finds 4.20 mean daily sightings on geomagnetic-storm days versus 6.01 on calm days—a storm-to-calm ratio of 0.70. It marks that particular hypothesis not supported. Separately, it reports that sightings distributed across Kp bands depart from a day-count-based expectation, with a chi-square statistic of 8,876.8, and labels that test supported. Those results answer different questions: a nonuniform distribution does not reverse the reported lower average on storm days, much less identify a cause.
To explore the original environmental variable, readers can inspect NOAA’s Kp measurements directly.
4. Earthquake and seismic correlation
The Seismic Correlation view compares reported sightings with earthquakes. The research page describes 6,524 sighting–earthquake pairs within 150 kilometers and seven days on either side of a quake, versus 6,218 pairs under a time-shifted control. The ratio is about 1.05—roughly a five-percent uplift.
That is a modest statistical association, not evidence that earthquakes create UFOs, that UFOs trigger earthquakes, or that a luminous object has been independently verified. The site says it uses 90-day time shifts to help control geographic overlap. Such controls are useful, but further replication would need to account for earthquake magnitude, local reporting density, time-zone precision and how many possible pairs are generated by one event.
The independent comparison source is the USGS earthquake program and searchable catalog.
5. Nuclear facilities: the dashboard’s most consequential contradiction
For decades, witnesses, investigators and advocates have debated whether unidentified objects are unusually interested in nuclear installations. UAP Monitor attempts to test a geographic version of that proposition—and its results demand unusually careful reading.
On its homepage, the platform features the headline “UAP sightings are disproportionately concentrated near nuclear facilities.” But immediately beneath it, the site displays 22.4% of sightings within 80 kilometers of nuclear facilities against a stated comparison baseline of 54.0% ± 1.6%. Its reported ratio is 0.42, and the research page categorizes the proposed nuclear concentration as “NOT SUPPORTED.”
That is the reverse of a positive enrichment finding under the site’s chosen comparison. A negative z-score of −19.51 does not rescue the headline: it indicates a difference in a negative direction relative to that baseline. The site’s description of its geographic controls—20 sets of randomly selected points—also raises questions about the sampling universe and comparability that a reproducible code-and-data release could settle.
The correct takeaway is narrow but important: UAP Monitor’s published test does not support its prominently advertised nuclear-proximity claim. That does not disprove every documented encounter near a facility. It means the platform’s population-level conclusion should not be advertised as evidence of an excess where its own numbers indicate the opposite.
Readers should compare the homepage claim with the actual hypothesis table rather than repeating either in isolation.
6. NASA fireballs: searching for the familiar in the extraordinary
UAP Monitor reports 14.2 mean daily sightings on days with a NASA CNEOS fireball event versus 7.6 on other days, or a ratio of 1.87. This is one of its more striking reported associations.
But consider the meaning: bright meteors can prompt observers to file reports of unusual lights. The correlation can represent shared sky visibility, witness attention or ordinary fireball misidentification—not necessarily a second unexplained phenomenon traveling alongside the meteor.
Crucially, NASA’s Center for Near-Earth Object Studies states that its fireball dataset is incomplete, is not published in real time and is supplied from U.S. government sensor detections that CNEOS does not independently reanalyze. Those limitations matter when matching the event times to witness reports.
7. Weekend and seasonal reporting biases
Another two tests ask whether sighting reports track the hours and seasons when people are more likely to notice the sky. UAP Monitor reports 45.3% of sightings on Friday through Sunday, compared with a calendar expectation of 42.9%. It also reports 30.6% of sightings during June through August, against a baseline of 25%, with July the peak month in its dataset.
These are especially valuable findings because they address the observer, not an imagined visitor. More leisure time, outdoor activity, vacation travel, weather and daylight patterns may alter reporting. Summer patterns would also need hemispheric adjustment: Northern Hemisphere summer is Southern Hemisphere winter. A bigger count of reports is not automatically a bigger count of unknown objects.
8. Credibility scoring and descriptive detail
Finally, the platform advertises credibility scoring and reports a Pearson correlation of 0.5406 across 199,276 records between the number of reported characteristics and its credibility score. That is a moderate positive statistical correlation. It should not be mistaken for independent validation that more detailed witnesses saw something stranger.
The essential unresolved question is how the score is constructed. If the algorithm itself rewards the number of characteristics described, the association could partly reflect the formula rather than any newly discovered property of reality. Independent calibration against verified outcomes, with the exact scoring rules available, would be more revealing.
What “six of eight hypotheses supported” really means
UAP Monitor prominently counts six supported hypotheses out of eight. In statistical language, however, “supported” on a site’s own test panel means that a chosen comparison met that site’s criterion. It does not mean that six extraordinary UFO theories have been confirmed, that the tests have undergone independent peer review, or that an extraterrestrial explanation is favored.
The eight entries mix several very different claims: environmental associations, patterns in reporting behavior and a relationship involving the site’s own credibility metric. The results are interesting precisely because some may expose mundane reporting effects and others may not survive stronger controls. Hypothesis tests also require attention to multiple comparisons, reporting delays, uneven global coverage, duplicate witness submissions and data quality.
The community impact: a path beyond anecdote—and a new risk of false precision
For UAP researchers, independent journalists, witnesses and skeptics, an accessible archive can change the conversation in four concrete ways.
First, it democratizes the search. Readers no longer need to rely entirely on personalities interpreting a selection of famous cases. They can pursue geographic and temporal questions themselves. Second, it creates opportunities for falsification. If nuclear concentration fails its own control, the result should be shown clearly even when it disappoints the most enthusiastic audience.
Third, it highlights reporting bias. Location, season and visibility often tell us about the people doing the observing. Fourth, it gives citizen investigators a starting point for checking original records and independent environmental datasets. The strongest investigations will trace a map pin back to its witness report, document its provenance and compare it with flight, astronomical and weather context.
There is a cost, too. A world map full of pins can look like a world map full of spacecraft. Scores and p-values can make evidence appear more settled than it is. A vivid historical entry can turn a disputed narrative into something that looks database-certified. And records collected primarily through English-language or U.S.-centered channels can overrepresent places with easier reporting. Our earlier investigation of conflicting global UFO rankings explains why incompatible counts should not be treated as equivalent.
NASA’s 2023 UAP independent study stressed the scarcity of high-quality, calibrated observations and metadata. The Pentagon’s AARO reporting-trends page separately tracks morphology and resolution outcomes in its own reporting system. Neither is equivalent to UAP Monitor’s public aggregation, and no such comparison proves one organization can account for every case.
The research checklist: how to use UAP Monitor without fooling yourself
- Start with the map, then open the underlying source. Record the case date, location, description and original reporting organization. Treat missing metadata as missing—not as evidence of secrecy.
- Use environmental overlays as competing hypotheses. Compare the date and location with NOAA’s Kp index, USGS earthquakes and NASA CNEOS fireballs. Remember that correlation windows and database reporting delays can generate apparently persuasive overlaps.
- Read both the method and the result. Check denominators, sample sizes, control groups, scoring rules and whether an effect points in the direction claimed. Where calculations cannot be independently reproduced, say so.
Direct-access research links
- UAP Monitor main map and sightings dashboard — browse the reports, geography, time windows and source indicators.
- Geomagnetic Correlation — explore sighting counts alongside planetary magnetic activity.
- Seismic Correlation — review the earthquake-comparison view.
- Research and Methodology — read all eight hypotheses, effect sizes and limitations as published by the platform.
- NUFORC original report database — check witness reports and the reporting organization’s own classifications.
- Larry Hatch’s *U* historical database — learn about one of the platform’s named historical source collections.
- NOAA planetary Kp index — inspect geomagnetic conditions independently.
- USGS earthquake search — verify seismic events and dates.
- NASA CNEOS fireballs — compare bright meteor events, bearing its completeness limits in mind.
- NASA UAP independent study and AARO reporting trends — read official context for evidence standards and assessed cases.
Watch: NASA explains why better UAP data matter
The question that matters next
UAP Monitor represents an encouraging impulse in a field crowded with certainties: collect the reports, compare them to the wider world, and see what survives scrutiny. But the test of a serious UFO data platform is not whether it can produce intriguing correlations. It is whether it can publish an uncomfortable negative result as prominently—and as accurately—as a dramatic positive claim.
Nearly 200,000 reported encounters invite curiosity. The nuclear headline invites a correction. And both lead toward the same question: when the data contradict a favorite UFO story, will the community follow the data?
Image note: Featured photograph is a genuine star-filled night-sky image by Felix Mittermeier / Unsplash, reused from Apep Bar’s licensed media library as contextual astronomy photography. It is not a picture of a UAP, a UAP Monitor instrument or any sighting discussed in this article. Licensed under the Unsplash License.
