The European AllSky7 fireball network was started 2018 in Germany and contains meanwhile stations in a number of countries: Austria, Belgium, Switzerland, Germany, Denmark, Spain, France, Finland, Hungary, Greece, Ireland, Italy, Lithunia, Latvia, Netherlands, Norway, Poland, Portugal, Slovenia, Slovakia, Sweden, Turkey, and United Kingdom.
We also support some cameras outside Europe, namely in New Zealand, Antarctica and the United States (Iowa and New York).
The Network Status tab presents the location and status of the camera stations. Click on the icons for details about each station.
The Equipment tab provides details about the cameras used in the network. In the Live View tab you can see a live image
of the cameras which is updated every five minutes.
The weather view gives a quick overview of the current weather conditions at all network locations.
The Fireball Archive tab shows a selection of the most spectacular fireballs recorded by our network.
Under other events you find a number of other interesting recordings made by our network.
Get in touch explains how to join the AllSky7 community, and About us tells you about the aims of our network and our publication and copyright policy.
Note that all images and video presented here are copyright protected and may not be copied or shared for commercial purposes
Camera Status as of 2025-04-08 22:45:00 GMT
The network is based on the AllSky7 systems manufactured by Mike Hankey. Details about the systems were published in a paper at Meteoroids 2020 conference.
Each system contains seven highly sensitive NetSurveillance NVT cameras with the SONY STARVIS IMX291 CMOS Sensor and a 4 mm f/1.0 lens. Five of them are horizonally oriented at an altitude of about 25°, camera six and seven point in northern and southern direction at an altitude of about 70° All together they cover the full sky down to the horizon.
Each camera has a field of view of about 45x80°. The cameras are recording at 25 fps and reach a limiting magnitude of about 4 mag. Maximum resolution is 25 pixel/°.
Beside the cameras, the dome contains a power supply and an ethernet switch for each camera. Each camera has a black paper baffle. The dome is painted from the inside with two color layers - silver outside and pale black inside. That reduces internal reflections and the thermal influx.
Power is supplied via Power-over-Ethernet (PoE), so that the whole system needs just one CAT-6 Ethernet cable to connect it to base computer. The computer is a barebone Mini PC running Ubuntu and the AllSky7 software by Mike Hankey, which is continuously improved. Each camera provides an SD (704x576 pixel) and HD (1920x1080 pixel) video stream which are recorded by the Mini PC and analysed asynchronously.
The camera is recording meteors and fireballs 24/7, but at the moment only the nighttime recordings are automatically analysed. About 5.000 meteors are recorded per year under typical central European conditions.
The software provided by Mike Hankey covers all aspects of the measurement of fireballs. It allows to sort out false detections from the daily meteor stack, to measure the position of fireballs in single video frames, to identify reference stars and do the astrometry and photometry of the recording, and to combine the observation with data from other camera stations to calculate trajectories and orbits. The software comes free of charge for all members of the AllSky7 Firebal Network (community license). All software functions are shown in a short advertising film.
In 2022 we upgraded the system to AllSky7+ by adding an 8th camera with a 1.13mm fisheye lens on top. This camera records the full sky at once and provides improved photometry and astrometry of particularly bright fireballs.
In 2024 we switched to an high sensitivity (HS) edition by replacing the Sony IMX291-based with an IMX307-based camera. This sensor reaches higher sensitivity by improved noise reduction and yields superior performance in particular for stationary objects (e.g. stars, aurorae). This can be seen best during twilight, when the images still look like day-time recordings.
Starting from 2025, new system are equipped with a AS7 Sensor Board (AllSky7+ HS SB). This boards provides precise timing (1PPS) and geo-location, but also temperature and humidity inside and outside the dome. The sensor board comes optionally with a relay that can control a fan, heating device or cooling device, or any other system added by the camera operator, based on the climate inside and outside the dome. The sensor board provides additional digital ports for custom extensions.
Click here for further details.
The primary goal of the AllSky7 network is to record meteors and fireballs. However, since our cameras record the full sky 24 hours a days / 365 days a year, we record also other rare, curious, strange or simply pitoresque events. Here is a collection of such events. You can filter them by distance from the camera.
When Starlink satellites are launched, they can create a remarkable display at the night sky. Soon after the launch, 60 individual satellites are released from the parent. At first, they form a kind of shining string that travels the sky. Already one orbit later the satellites are visible as clearly separated points, and a day later you see then as individual satellites that all follow the same path with a few seconds separation. Here were recorded the early phase from Starlink 7 launch in April 22, 2020.
A heavy thunderstorm occured over Serbia in the night of Nov 4/5, 2021. Different AS7 cameras in Hungary, Slovenia and Slovakia recored 61 red spites within seven hours. Here we show the results of the cameras which recorded most sprites. Note that Cam3@AMS94 was slightly out of focus
Another fine example for a launch of 48 Starlink satellites. Here were recorded the early phase from Starlink 32 mission on December 2, 2021. The recording was done about 20 hours after launch.
On January 23, 2022, Starlink 2200 entered the atmosphere over southern Europe and desintegrated complete. Also all other 9 Starlink satellites that were launched on Transporter-1 mission and deployed as first Starlink satellites into a polar orbit, have meanwhile been removed from orbit. The re-entry was recorded by an AllSky7 camera in Spain. The complete video is available at YouTube.
Meteoroids are orbiting the Sun as independent, single objects, so meteors appear in random order when the meteoroids eventually collide with the Earth. When a major meteor shower is at peak activity, you may sometimes see two or three meteors in short succession, but bigger cluster of meteors are extremely rare. On October 30, 2022, a camera in Norway has caught the presumably second biggest meteor cluster ever recorded (only surpassed by a cluster of over 100 Leonids recorded by Kinoshita within two seconds in 1997). Within little more than 10s, a total of 23 meteors were detected. They are not all visible in the field of view of one camera, but distributed primarily over three cameras. The full picture is obtained when all seven cameras are combined to a full-sky projection. Since only the smallest deviation in their orbit would let the cluster drift away quickly, it is assume that a larger meteoroid broke apart a short time before it collided with Earth. The meteors do not belong to an established meteor shower, but they could be related to the 22 Lyncids.
Over time, defunct satellites and rockets or other space debris orbiting the Earth are loosing hight. Eventually they are re-entering the atmosphere and light up like a meteoroid. Contrary to ordinary meteoroids, such space debris is unusually slow and can create long-lasting sightings, much longer than ordinary fireballs which last a few seconds at most. This example of space debris was recorded on November 19, 2022, in Denmark and northern Germany. At Sorø, it crossed the whole sky from north via zenith towards south-west in over 60 seconds.
Another fine display of aurorae occured in the nights of February 26/27 and 27/28, 2023. They were visible down to about 50° N (e.g mid-Germany) and were recorded by a number of AllSky7 cameras. Particularly impressive were recordings from a station at nearly 60° N in southern Norway. The aurorae could be seen for many hours, but the time interval of particular strong activity with visibility far to the south lasted typically for less than one hour.
Halos are atmospheric phenoma that are caused by diffraction and reflection in ice crystals of cirrus clouds. The most common form is the 22° ring. Halos are typically created by light of the Sun, sometimes also by the Moon. In really rare cases, when fireballs have about the brightness of the Full Moon and the right type of cirrus clouds are present, halos are produced by fireballs and moving along with them in the sky. Such an event was recorded on November 9, 2023, by two AllSky7 stations. It was not our first display of this kind, but the brightest one.
Some AllSky7 stations are mounted on high-altitude mountain tops and experience extreme weather conditions including thunderstorms and lightnings. On July 21, 2024, the station at Sonnblick Observatory at over 3000 m altitude had a close-up look at a lightning that hit the nearby lightning rod.
On February 19, 2025, the second stage of Falcon 9 rocket entered uncontrolled the atmosphere over north-western Europe. Whereas is was still a single object as seen over UK, it split into two piece over Benelux and started to fully break apart over northern Germany. Finally, the remaining fragments disappeared over Poland, and few minutes later some remains crashed into a warehouse in Komorniki, Poland The complete video is available at YouTube.
If you want to contribute to the AllSky7 Fireball Network and operate your own camera, please get in touch with Mike Hankey if you reside outside the EU, or Sirko Molau if you are an EU resident.
Of course, you can also contribute to the network without owning a camera yourself. The easiest way to join the community and learn about ongoing projects, updates, latest observations and other topics, is to subscribe to our announcements mailing list (announcements@allsky7.groups.io) and to our German (german@allsky7.groups.io) and/or English (english@allsky7.groups.io) subgroups.
If you have a technical question about the network, you may contact the AllSky7 Support Team.
We aim at locating camera station at 100 to 150 km distance from each other to maximize the scientific output. There are two options of camera donations:
The AllSky7 Fireball Network is a loose consortium of owners of AllSky7 fireball cameras with the purpose of
The camera network has a charitable character and does not follow commercial interests.
All network members agree to terms and conditions of the network, which are drafted in
English and
German
and updated regularly.
Meteorite-dropping fireballs and meteorites are handled by the AllSky7 Meteorite Working Group (AS7 MWG),
which has its own terms and conditions drafted in
English and
German.
The recordings and data of the camera network can be downloaded and used in accordance to the purpose of the network. That includes:
In spite of the granted permissions, the copyright remains with the camera owner. Every use requires that the AllSky7 Fireball Network, the name of the camera owner and the copyright is mentioned.
Scientific publications have to contain the following sentence in their acknowledgements:
All [Part of] the work presented here is based on data of the AllSky7 camera network. The authors thank the network operators for making their data available.As reference, you may use the Meteoroids 2020 paper of Mike Hankey.
If individual recordings or data are published, they have to contain the copyright note (incl. link):
Copyright: <camera owner>, AllSky7 Fireball Network.