The Latest Solar Images
Note: All images on this website © 2018-2026 by Brian Cudnik and Prairie View A&M Physics. All rights reserved.
Observations are happening daily, except for most Saturdays, all Sundays, and holiday periods; and are governed by duty schedule, weather, and solar activity. When the Sun has very low activity (spotless), observations will be limited or non-existent. Whenever the Sun becomes active again, the observing program will become active as well, weather permitting. The Sun is expected to reach the maximum activity level of the current Cycle 25 solar cycle. So we anticipate more events in terms of active region size and number, and solar flares.
One can monitor the Sun via several websites that provide real-time images of the Sun. The website, https://www.solarmonitor.org/, has such images in six different channels. The numbers are the NOAA designations for active regions (with the “1” at the start of the designation removed for convenience). Another website with up-t0-date information on solar activity and other goings-on in the skies is www.spaceweather.com. Additional information about the Sun’s current activity can be obtained from https://www.swpc.noaa.gov/, and real-time full-disk H-alpha images from observatories around the world can be viewed at http://halpha.nso.edu/.
A typical observing run may last from one to four hours, depending on seeing considerations, weather, and other work responsibilities, but will include active region monitoring of available active regions and the collection of frames for high-resolution solar mosaics in H-alpha. Each session includes at least one mosaic, which is a series of images made of all parts of the Sun’s disk that can later be stitched together to form a whole-disk image. At the very least, this ensures that all visible features such as prominences, filaments, and active regions (sunspot groups) are all captured in image form at least once per session. Usually observations are carried out in the late morning hours, but an additional session may occur in the mid-afternoon hours and it will include its own mosaic. If a sunspot group is expected to be active, then it becomes a main focus for observation for extended periods of time.
Solar activity is summarized in each day’s entry below, based on the forecast discussion product issued by the Space Weather Prediction Center each morning, along with observed activity (or lack of) the day of the featured observations. Regions are numbered by the NOAA/SWPC and are often provided in four-digit format (e.g. 3327), although I and other sources use the full five-digit designation (13327). Solar flares are described in terms of their X-ray intensity and optical “importance” (apparent brightness and area covered). One can learn more about the X-ray class of solar flares often discussed below by going to this website: https://www.spaceweather.com/glossary/flareclasses.html. Finally the SWPC 3-day forecast for solar activity is provided at the end of each entry.
More information about solar flares can be found at these websites: https://www.swpc.noaa.gov/phenomena; https://www.space.com/solar-flares-effects-classification-formation; and https://www.spaceweatherlive.com/en/solar-activity/solar-flares.html. I have also found the following website to be very useful: spaceweatherlive.com
The solar images are recorded through a Meade 16-inch f/8 Cassegrain telescope equipped with a 0.3 Å Hydrogen-alpha filter and a 16-bit, 3326×2504 pixel SBIG STF-8300 CCD camera. The aperture of the scope is stopped to 4-7/8 inch by an energy-rejection filter, which renders the system an f/26. A neutral density filter is added to bring the sunlight intensity down by 90%. Each image is automatically dark-subtracted as it is saved and each exposure is 0.1 second long for the red off-band continuum images and 0.5 second for the on-band H-alpha images. Flat field images are taken at periodic intervals throughout the observing session and are obtained by training the telescope to focus near the center of the Sun’s disk. Five images are then taken while dithering the frame 1′ to 5′ N,S,E, and W. The idea is to try to get images that are slightly blurred (either due to seeing or scope motion) and off set from each other. A set of 30 bias images (0-second exposures with the dome closed and scope parked) are taken at the end of each observing session.
Select images are processed for further study and display. A program called MaxIM DL is used to do basic calibration (bias-subtraction and flat field correction), and the levels are adjusted for optimum display contrast. Choice images are then selected for online display. All of the images are archived in their raw FITS format, sorted by date, and backed up twice. At a later time we can mass process these and make them available for scientific use. Inquiries can be made of Brian Cudnik, at bmcudnik@pvamu.edu, or Premkumar Saganti, at pbsaganti@pvamu.edu.]
NOTE: Images of the March 14, 2025 total lunar eclipse are posted at https://www.pvamu.edu/pvso/cosmic-corner/total-lunar-eclipse-1/
NOTE: Images of the April 8, 2024 solar eclipse are posted at https://www.pvamu.edu/pvso/cosmic-corner/partial-solar-eclipse/.
Observations have been conducted since then at the PVSO, primarily with H-alpha. There was a period of time when magnetospheric data were collected but the work had primarily been regional H-alpha images of active regions and filaments. Regular observations continued through the mid-2000’s, then became more sporadic through 2015. After a five-year pause, regular observations resumed (in their current format) on 8 January 2020.
February 12, 2026
Solar activity continued at moderate levels through early today with two M1.4 flares: one at 13:12 UT on 11 February, and the second at 2:40 UT today, 12 February, from newly-departed AR 14366. This region was the source of six C-class flares. Since the second M1.4 flare, solar activity returned to low levels, with the background X-ray levels steadily sloping downward as AR 14366 rotates further beyond the west limb. AR 14373 has shown some modest growth and additional sunspots; ARs 14369 and 14371 showed some minor decay. The rest of the regions were unchanged.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the images covers 7.8’x7.8′ on the sky, unless indicated otherwise. Celestial north is up, west is right in each image.
Solar activity is expected to be low, with a slight chance for M-class flares through 14 February.
February 11, 2026
Solar activity remained at moderate levels today. The largest was an M1.2 at 13:12 UT today from AR 14366. This region also produced a long duration, double-peaked M1.1 event, first peak at 0:44 UT. AR 14366 also produced eight C-class flares yesterday and today. AR 14366 has rotated over the west limb of the Sun and it was not visible either visually or in images taken this afternoon. Some modest limb activity in H-alpha marked the location of the region just over the solar limb. AR 14371 , 14373, and 14374 each produced C-class flares yesterday into this afternoon. AR 14371 and 14369 are in decay, with the other numbered active regions remaining stable. There is another region (AR 14375) that rotated into view behind AR 14374, but this was quiet.
A large filament in the northwest quadrant of the solar disk lifted off and disappeared around 19:10 UT on 10 February. There was possibly another eruption from the west southwest limb of the Sun, seen around 19:24 UT and superimposed on the eruption from the filament. It is yet to be determined if all this has generated a coronal mass ejection.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the four images covers 7.8’x11.4′ on the sky. Celestial north is up, west is right in each image.
Solar activity is expected to be low through 13 February. There remains a slight chance (10-15%) for an M-class and/or X-class flaring from over the western limb by AR 14366
February 9, 2026
Solar activity reached moderate levels yesterday and early today, before returning to low levels all day today. AR 14366 produced two M-class flares, the largest of which was an M2.8 at 2:27 UT today (9 February). The region continues to be the largest, most magnetically complex on the visible solar disk, but it is approaching the western limb. It has also been on a slow decay. AR 14374 rotated into view and produced a C6.6 flare at 8:36 UT on the 9th. This, and the other active regions on the solar disk were largely stable. AR 14366, beside the M2.8 today, produced 6 C-class flares, the most recent of which occurred at 15:36 UT. Then it went quiet for the rest of the day (through 23:15 UT). AR 14374 produced another C-class flare, a C3.0 at 18:17 UT today.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the four images covers 7.8’x11.4′ on the sky. Celestial north is up, west is right in each image.
Solar activity is expected to be moderate with M-class flares likely and a chance for an X-class flare from AR 14366 through 11 February.
February 6, 2026
Solar activity returned to low levels today. Since the last of a series of M-class flares (an M1.1 at 22:18 UT yesterday, 5 February, from AR 14272, which has decayed to plage), there has been no further M-class flare activity today, through 23:15 UT. The most powerful flare of yesterday was a long duration M2.7 at 4:41 UT on 5 February from AR 14366. This region continues to slowly decline in magnetic complexity and optical appearance and today’s activity level matches these observations. AR 14371, however, showed rapid growth and became more magnetically complex. AR 14362 has also grown some and together with AR 14371, was the source for most of the C- and M-class flares yesterday. Today, only C-class flares, mostly from AR 14366; the strongest was a C6.9 at 10:20 UT today, 6 February. All of the other visible spotted active regions (there are seven total) were stable or in decay.
A coronal mass ejection launched off the south/southwest limb at 15:48 UT on 5 February, likely from the M1.8/1N flare that was produced from AR 14362, which peaked at 15:13 UT on 5 February. We observed part of the tail end of this event. This CME may graze the Earth’s magnetic field anytime between late on 8 February and early on 9 February (UT).
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the four images covers 7.8’x11.4′ on the sky. Celestial north is up, west is right in each image.
Solar activity is expected to be moderate to high due to continued M-class flaring with a chance for an X-class flare from AR 14366 through 8 February.
February 5, 2026
Solar activity was high due to the frequent occurrences of M-class flares from various regions today. There were ten M-class flares from three regions (AR 14362, 14366, and 14372). AR 14366 contributed most of these as it slowly decays and simplifies. AR 14369 grew some while 14370 decayed, and the remainder of the regions were stable or in decay.
We monitored AR 14366 for most of the day today. We managed to observe one M-class flare but the other M-class flares that occurred during the period were from AR 14362 (two events, an M1.8 and an M2.2). No further X-class flare has happened since the impulsive X4.2 at 12:13 UT on 4 February.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the four images covers 7.8’x11.4′ on the sky. Celestial north is up, west is right in each image.
Solar activity is expected to be moderate to high due to continued M-class flaring with a good chance for an X-class flare from AR 14366 through 7 February.
February 4, 2026
Solar activity remains at high levels due to the ongoing activity of AR 14366. It produced an X4.2 today at 12:12 UT today. This occurred nearly a day after an X1.5 flare at 14:08 UT on 3 February, followed by an M7.2. There has been a slight shrinkage in spot area, with the visual appearance of the spot group this morning being a little simpler than in previous days. It is by far the largest spot group of the 9 visible active regions, at 1100 MSH. AR 14372, in the southeast quadrant of the solar disk, emerged yesterday but is already in decay today. AR 14358 developed a few new sunspots after decaying to a spotless region yesterday. AR 14371 is showing growth, as is AR 14362. The rest of the active regions were stable or in slight decay.
A large filament slowly erupted from the northwest quadrant of the solar disk beginning at 4:00 UT yesterday, 3 February. This generated a CME that lifted off the northwest limb around 18:00 UT. Several other filaments are visible today across the solar disk, as well as a well developed hedgerow prominence on the east southeastern limb.
Observations resumed today but with glitches in communication between the mount and computer ongoing. AR 14366 produced an M1.8 flare at 15:34 UT, prior to our opening the dome at 17:00 UT. However, since opening and through our closure at 20:02 UT due to overspreading mid- to high-level clouds, solar activity dropped back to low levels. There had not been any further M-class activity since this morning’s M1.8, through 23:20 UT today (4 February).
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the four images covers 7.8’x11.4′ on the sky. Celestial north is up, west is right in each image.
AR 14366 is the largest spot group on the visible disk. |
AR 14366 was the most active spot group, and had been for four days now. |
Many small active regions trail AR 14366. |
These regions have been comp |
Solar activity is expected to be moderate to high due to continued M-class flaring with a good chance for an X-class flare from AR 14366 through 6 February.
February 2, 2026
Another attempt to collect solar observations was made this morning. The connection was successfully established with the mount and camera, but when commanded to slew to the Sun, the mount put itself in a safe mode and would not move. This error repeated for all three of the attempts made. We will be making further attempts to get the problem fixed Wednesday and Thursday of this week.
Solar activity has surged to very high levels in the last two days. A new spot group appeared on the Sun and grew explosively. It was invisible on the 28th of January, appeared as a simple pair of spots on the 29th, added new spots and began to fill in on the 30th; by the 31st it had grown dramatically and continued to do so through the 1st and 2nd of February. This is AR 14366, which, in the past 24 hours or so, produced 23 M-class flares and 4 X-class flares, the largest of which was an X8.1 that happened at 23:57 UT yesterday. The complex series of events launched a tangle of three coronal mass ejections into space, but they appear to be on track to mostly miss the Earth
This is an animated GIF image (click on the image for the animation) that shows the flare in action. It is an animated series of images taken in extreme ultraviolet light from the Solar Dynamics Observatory and posted to Spaceweather.com. Solar activity is expected to remain moderate through 4 February with frequent M-class flares (80% probability of occurrence) and occasional X-class flares (40 % probability of occurrence) due to AR 14366.
January 28, 2026
Solar activity reached has been low the last 7 days. The last X-class flare, an X1.9, was on 18 January; the last M-class flare, an M3.4, happened on 21 January. Unfortunately due to a malfunction in our system, we were unable to observe today after being offline for 9 days due to inclement weather. I have no information on when we will be able to remedy the issue, so for the foreseeable future, we will not be able to make further observations from the East Dome.
January 19, 2026
Solar activity reached high levels yesterday (18 January) as a result of a long-duration X1.9/3B flare from AR 14341. This event peaked at 18:09 UT on 18 January. This launched a coronal mass ejection that took only 25 hours to impact the Earth’s magnetic field, producing widespread bright aurorae in Europe. There are eleven spotted active regions on the Sun.
After the X1.9 flare, solar activity returned to moderate levels, before trending to low later in the day. AR 14345 produced an M1.1 flare at 11:19 UT on 19 January. It the produced 8 C-class flares, ranging from C2 to C8 throughout the day. Only one other region flared, AR 14342, producing a C2. AR 14341 remained quiet all day long.
The first column below includes red continuum images, each 0.15 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the images covers 7.8’x11.4′ on the sky, unless indicated otherwise. Celestial north is up, west is right in each image.
Solar activity is likely to be moderate, with a slight chance of additional X-class flares through 21 January.
January 16, 2026
Solar activity was low. The largest flare so far today (through 22:30 UT, 16 Jan.) was a C6.6/SF from AR 14345, a newly formed region just south of AR 14341. AR 14341 continues to be the largest (420 MSH) and most complex (beta-gamma-delta magnetic configuration) active region on the visible solar disk but it also remained quiet all day. It only produced two optical subflares and a C1 so far today.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the images covers 7.8’x11.4′ on the sky, unless indicated otherwise. Celestial north is up, west is right in each image.
Solar activity is expected to be low, with a chance for M-class flares and a slight chance for X-class flares through 18 January.
January 15, 2026
Solar activity was at moderate levels due to an M1.6 flare that happened at 20:33 UTC on 14 January from AR 14341. This region also produced a C9.7 flare at 6:36 UTC on 15 January. Since then, and through 00:10 UTC, 16 January, solar activity returned to low levels, with only infrequent low-level C-class flaring. AR 14343 has grown quite a bit since yesterday, but was otherwise inactive. A Coronal Mass Ejection came from the area of AR 14340, but the bulk of this debris has been launched northward and is expected to miss the Earth.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the images covers 7.8’x11.4′ on the sky, unless indicated otherwise. Celestial north is up, west is right in each image.
Solar activity is expected to be low, with a 25-30% chance for M-class flares from 15 to 17 January.
January 14, 2026
Solar activity is now back to moderate levels. The largest flare over the last 7 days was an M3.3 at 23:10 UTC on 11 July from AR 14341, which was behind the solar limb at the time. Then there was a C9.6 at 3:50 UTC on 14 January. Just happened was an M1.6/1F at 20:32 UT from AR 14341. Slight decay occurred in AR 14334 (barely visible as a single spot) and 14336 (a large spot with a few attendants trailing behind). AR 14340, which emerged several days ago, has also demonstrated some decay. AR 14341 and 14342 are situated along the eastern limb of the Sun and contributed almost all of the flaring activity over the last two days.
The first column below includes red continuum images, each 0.09 sec exposure; and the second column hosts H-alpha line center images, each 0.15 sec exposure. Each of the images covers 7.8’x11.4′ on the sky, unless indicated otherwise. Celestial north is up, west is right in each image.
Solar activity is expected to be low, with a 25% chance for M-class flares from 14 to 16 January.


















































