Apocalypse

A guest post by Tallis

The very worst case scenarios are rarely considered for disasters and for usually a good reason. They are either so unlikely or so boring that there is no point in worrying or thinking about it. The worst case impact event is one that would completely destroy the Earth and make another asteroid belt or planet entirely. The worst case tornado would be one that would produce Jarrell level damage while moving at 70 plus mph through the downtown area of a large city (Not likely at all!). Flood basalts and gamma ray bursts are similar events. However volcanic winter through explosive eruption are not like that, since we don’t even know the climate effects of upper end VEI 7 eruptions let alone VEI 8s. We can’t just sit here and say “We don’t know so forget about it.” so I have done some brainstorming and I have conceptualized a potential worst case scenario for Explosive Volcanic winter.

First let’s address the best case scenario; lately some scientists have come forward saying that VEI 8 eruptions produce limited climate effects, producing a drop in temperatures of less then 1 C. It would seem that there is cold war when it comes to the effects of these eruptions between skeptics and supporters of apocalyptic volcanic winter. Personally I think a VEI 8 eruption would likely produce a temperature drop of 5-8 C. Pretty nasty but not crazy, the mere fact that an argument could be made for a drop of 10+ C or 1> C shows how little we know.

The central battle of this cold war is the Toba eruption, various arguments have been put forth on both sides but the physical evidence leans towards the skeptics. The two biggest arguments put forward by the skeptics is that as the mass of SO2 is released increases, the aerosols will become larger and will be flushed out quicker and higher concentrations of aerosols cannot be sustained because the aerosol microphysics will lead to higher removal rates. Supporters have argued with skeptics concerning how much these factors would limit volcanic winter but there is not a lot of arguments on other ways that the Toba eruption’s climate effects could be neutered.

Some have argued that the sulfur load from Samalas eruption is the point where the aerosols become too large and are flushed out quicker. For reference, this eruption released around 120-240 megatons of SO2, if this mass would be the limit of sustainable volcanic winter, then it would be safe to say that we wouldn’t really have to worry about larger eruptions. Thankfully we have a prehistoric event that disproves this: 7,600 years ago Mt Mazama produced an eruption similar in size to the Samalas eruption also with similar SO2 amounts for the northern hemisphere. An analysis of ice cores following this eruption has shown that the SO2 was flushed out over a period of 6 years! So I am sure that means the Samalas eruption didn’t exceed the perfect mass threshold. Whatever this ”Magic Mass” is, I don’t think any historic eruption has surpassed it, for all we know it could be a pretty small number or it could be the most massive numeral.

The first limit to explosive volcanic winter is time, the aerosols usually have a lifetime of 2-3 years at the most. The worst effects will usually be gone after the second year and there is no reason to assume the rules would change with larger eruptions. Finding concrete physical data concerning an event so brief will be extremely difficult, the longer term effects are likely mild compared to other cooling events so that may not be reliable either. The Toba eruption took place during the Ice Age and I believe the Ice Age neutered the eruption.

There are two fundamental ingredients for sulfuric aerosols, SO2 and water. If there isn’t enough of one then it doesn’t matter how much of the other you have, you are not going to see much. I think the SO2 released by the Toba eruption didn’t have a lot of water to work with because of the Ice Age. This may sound like stupid argument at a glance considering the most abundant gas released by volcanic eruptions is water vapor so surely this shouldn’t be an issue. Stratospheric volcanic water vapor injections have been studied and shockingly they found that while there was an increase, it only lasted a few days, not enough time to form all of the aerosols. Other studies of the stratospheric injection of other volcanic gases, have argued that not all of them can make it to the stratosphere. In fact only limited amounts of some volcanic gases take a lasting residence in the stratosphere. Effusive eruptions likely don’t have this issue due to the fact that the plume dynamics are completely different.

During an Ice Age, natural water vapor would not be enough to react with all of the SO2, I do believe that some of volcanic H2O could make a longer residence within the stratosphere but ultimately not enough. This could actually explain why a lot of large eruptions in the past 2 million years don’t seem to produce extreme climate effects. The evidence for the basic idea of limited water vapor injections are supported with real results. So I am pretty confident this is the likely cause for the neutered climate response of Toba.

With this idea, the dynamics of large amounts of sulfuric aerosols may be even more mysterious and hard to understand. We don’t know these dynamics and until something grants us the understanding and knowledge, neither the supporters or the skeptics can declare victory. The magnetism of an incredible disaster or the fear of it can cloud someone’s mind, after all no matter how unbiased one claims they are, they’ll always be inclined to one side. I am sure you can guess which side I am inclined for.

Can we even concretely discern the worst case scenario without this crucial knowledge? No. Can we get a picture? Yes. I believe there is the perfect level of SO2 mass that balances aerosol lifetime and intensity, I don’t know what the exact value of the “Perfect mass” would be but I am sure it exists. The eruption’s size would be an important factor for the worst case scenario but it is not the most important part. What is the other part? Younger Dryas shows the answer.

The cause for Younger Dryas has been debated ranging from an impact event to a supernova but the most accepted cause is a melt water pulse shutting down the Atlantic meridional overturning circulation. The AMOC as we’ll call it in this article, is responsible for the transport of warm water into the northern Atlantic. This is what keeps the climate of Western Europe and Eastern America warm. It is part of the Global thermohaline circulation.

There is a hypothesis that the eruption of Laacher See coinciding with the melt water pulse that triggered this event. (Note:The Laacher see volcano is in Germany and is part of a still kicking system and if you want some more information read this article https://www.volcanocafe.org/unrest-at-laacher-see-is-it-us-or-the-volcano/) This hypothesis hasn’t been confirmed, but there has been no significant evidence against it. Younger Dryas did take place very shortly after this eruption and sea ice-ocean circulation positive feedback could sustain the cooling from the eruption. The dynamics of such a process are not settled and this is what keeps this idea getting more support.

In order for this hypothesis to work, we need to find out how the melt water pulse would intensify and sustain the cooling from the aerosols. As previously mentioned the pulse would slow down the Atlantic meridional overturning circulation and we already have current data on what that would look like because the AMOC is weakening quickly now. Whether one believes in apocalyptic anthropogenic climate change (I am pretty skeptical myself) doesn’t change the fact that the AMOC is weakening pretty quickly now and in fact, this is the weakest it’s been in 1600 years. (The data goes to 450; it was stable from that time to the 19h century.) I believe this could be what has been driving the recent active Atlantic hurricane seasons and some of the recent powerful European windstorms as well. We can see clearly the results of this change in the ocean, as a growing blob of cold water exists in the northern Atlantic. This slowdown would lead to a decrease in salinity as well as temperature.

The first thing that would enhance the volcanic winter is the fact that freshwater freezes quicker than saltwater, with a sudden influx of cold freshwater with the reduced transport of warm saltwater. A significant amount of sea ice could develop, how much though, would depend on the scale of the cooling. Due to the nature of volcanic winter, the most intense cooling would take place during the summer, and as such for a year or 2, sea ice melt would be weak and could actually build. Once the aerosols are removed, this sea ice would melt and would disrupt the circulation even more so.

If enough sea ice develops, then the ice could increase the Earth albedo, and give the volcanic winter a decent boost as well. With the weakening of the AMOC, there would be an increase in baroclinicity, which would lead to more powerful extra-tropical cyclones. Which means there would be more significant snowfall which could also give the winter a boost.

It has been said that large volcanic eruptions are perfectly capable of decreasing heat flow to the arctic all on their own after all the AMOC isn’t the only circulation on this Planet! The AMOC is connected to other major currents across the world, including the Kurishio and East Australian currents, they all make up the global thermohaline circulation so if you mess with one then you mess with it all. So the volcanic eruption and meltwater pulse would mess with the other circulations as well, likely to a lesser extent.

Just simply with the nature of large scale volcanic winter already messing this circulation, we have some issues, with a meltwater pulse, that makes it even more nasty! However, even though the current disruption to the AMOC is related to the warming of the Planet, global cooling is perfectly capable of disrupting the circulation as well. In fact I just explained how that would work earlier! So with the sudden disruptions to climate through the aerosols the weakening of the circulation would actually begin to intensify and get worse.

This wouldn’t be a quick event, with the cooling lasting for decades and the circulation on life support, smaller volcanic eruptions would make things worse and could sustain the trend for a longer time. This wouldn’t last forever though as other variables to the climate exist and if we are to assume that the water vapor in the stratosphere has a big role on the scale of volcanic winter then it would be safe to assume that after a while there wouldn’t be enough to sustain any more large scale volcanic winter but the question is…was the Laacher see eruption big enough to affect the circulation like this? At a glance, it may seem a little outlandish. The eruption was only the size of the 1912 Novarupta eruption and the SO2 load was similar to the Tambora eruption, this eruption produced around 120 megatons of SO2.

But let’s investigate this proposition a little further, was there any eruption like this historic times? Any eruption with real and well studied effects? Yes! In fact, it has around the same SO2 load and took place firmly in the same hemisphere. Her name was Laki.

Starting June 8 1783, this massive fissure would release 14.7 cubic km3 of liquid magma with 0.8 km DRE of tephra as well over 9 months but mostly within the first 6 months covering the Europe haze laced with volcanic gases that killed tens of thousands and produced one of the most severe volcanic winter known in history. While it is unknown, it is possible that the volcanic winter killed or helped kill millions worldwide. This eruption also produced around 120-150 megatons of SO2, however the plume dynamics of this eruption ensured that not all of that gas would make a lasting residence in the stratosphere. Looking at this table we can see the total drop in solar irradiance from this eruption is around 15.5 W m-2. It is important to note that all of that only goes for the northern hemisphere and once you factor that in Laki can stand with top 3 eruptions on this list.

The eruption of Laki caused a drop of temperatures of around 1.3 C for the northern hemisphere, a very bad volcanic winter to say the least. I think this gives us a picture on the potential climate impacts of the Laacher see eruption. I am sure the climate impacts would be far more significant then the Laki eruption due to the fact that most of the SO2 would make it to the stratosphere and be converted to longer lasting aerosols. An abrupt drop of 1.3+ C should be enough to produce some significant sea ice and snow. Whether the Laacher see eruption caused Younger Dryas or not, an eruption could enhance the effects of a meltwater pulse and slowdown of thermohaline circulation and vice versa. (Once the eruption is large enough!)

The worst case scenario, would be a large eruption with this hypothetical perfect SO2 mass taking place with a meltwater pulse with a neutral or negative ENSO. I am not qualified to give any specific numbers but I am sure this would drop global temperatures by at least 9 C Once again, I can’t actually prove my hypothesis but someone else can! If there are any climatologists and volcanologists reading this, please give the idea a whirl!

It wouldn’t be one of my articles if I don’t somehow try to connect this to the present! So are the conditions currently suitable for a Younger Dryas scenario? That’s a resounding NO but I do believe current conditions are suitable for good volcanic winter. We already have the issues with the AMOC but are there any other supportive variables? Currently in the southern hemisphere we have significant icebergs breaking off and the West Antarctic ice shelf is unstable, if we can get more ice to break off we might be able to see some disruptions to the circulations in the south.

Another issue is that the Beaufort Gyre, an Arctic sea current, has been accumulating fresh water for years and it will ultimately release this water back into the Atlantic. This isn’t anything compared to the Freshwater released during Younger Dryas but it is still significant. This wouldn’t be enough to take the volcanic winter to Super Saiyan but it could be enough for Kaio-ken. We have seen the stratospheric water vapor increase over the past years as well. This has been a problem for the Ozone layer, as water vapor helps in the destruction of the ozone. Now I couldn’t find the exact number but we can find out with the information we have. Currently there are 4-10 ppmv of water vapor in the stratosphere, now the stratosphere contains around 20% of the atmosphere’s mass and the total amount of particles in the atmosphere is 1.09×1044 so let’s divide that by 20%, Um I mean 5! Which leads to 2.18×1043 let’s kill 6 zeros and multiply value by 4 which gives us 8.72×1037 . The molar mass for H2O is 18.01528(33) g/mol so let’s divide again by 6.02214076×1023 which gives us 61,772,053,298,867 lets multiply that 18 and divide that by a million, which gives us 1,111,896,959 tonnes. On the lower end, on the other end we get 2,779,742,398 tonnes.

With this we find that even if the Toba eruption took place now, there still wouldn’t be enough water vapor for all of that SO2 and this is after the current climate trends supporting excess H20 within the stratosphere! Still it’s enough to support a large eruption to say the least, so if we get a nice billion ton SO2 emitting eruption, we have enough water to turn all that to aerosols. Not accounting for potential water vapor from the eruption. Ultimately, the aerosol microphysics will decide the strength of the volcanic winter in the absence of external variables and as smart as I am, that is something I couldn’t possibly figure. The dynamics of the aerosols from larger eruptions need some more research and with an open mind, this can’t be approached with the wrong deposition. I do believe the current conditions are suitable for a large-scale volcanic winter but before I conclude, I must address the elephant in the room.

The Pinatubo eruption took place recently and produced a volcanic winter, however it didn’t seem enhanced in any way despite taking place during a pretty favorable period according to my hypothesis. I know it was a pretty small eruption in terms of SO2 load compared to historic events and it doesn’t even show up in the top 25 eruptions in the past 2500 years. So that could be the answer but I believe since there was an El Nino that took place shortly before and continued a few years after the eruption, the cooling wasn’t as intense. Depending on how much El ninos reduce the cooling from volcanoes, the mere fact that there was a substantial cooling event could mean the Pinatubo eruption was enhanced.

Whatever, the reality is, I am sure we can figure it out. This cold war between skeptics and supporters must come to an end and we must find the facts concerning volcanic winter. I could be dead wrong in everything I have put forth here, but on the journey to truth we have to expect some falls. We might be able to test this idea out in real life so let’s keep an eye on the actual volcanoes too!

The Die has been cast, the trumpet has been blown

The warm light is dead, Blue skies gone,

Night is now eternal and it will never falter

The Sun has fallen and the heavens quiver,

Stars have fled, and the moon weeps

God’s wrath has come and hell awaits

The babes cry no more, they are hushed

The children look to their parents, confused

The men and women cannot answer they cannot speak.

Every beast knows what is coming, The truth is bleak

Death smiles. It will feast this hour

The angels frown. They will protect no more

Gone is the sustaining rain, the skies bring only fear and pain

Gone is the nurturing earth, the ground brings only famine

There is no love, there is no happiness, there will be no reprieve

There will only be hate, despair and tears on this eternal eve

484 thoughts on “Apocalypse

  1. At 7:50+ a nice splash in the middle of the lava field shows how deep and how liquid is the layer….

      • Cam 2 view was best.
        It looks like the lava field has drained out somewhat recently, the level has dropped, off camera it possibly broke out somewhere within the valley. Not out of the valley yet, we would here about that pretty quick when it does!
        The lava field is perched within the valley so there is still plenty of scope for these “contained” breakouts I presume.

  2. A separate lava channel has developed, draining from big to smaller?

  3. Is there a small tube from up above vent leaking in the lover one?? I’am I wrighrt? cam2 got it

  4. Speaking of camera locations on the previous page, we were lucky in this last zooming around episode, the sun was reflecting off of the setup of the mbl cam.

    • Good catch! I have been wondering where all the lava has been going from what I call the SW backwater channel. Ans why theres no visible surface lava, but the field keeps thickening and expanding in that direction.

  5. There seems to be some big cracks in the smaller cone. I wonder if it is being under mined by an
    expanding lava lake?

    • It could be a hidden lava passage, or possibly just the response to lava degassing and shrinkage as it cools.

  6. Last night I saw a tiny Obi Wan and Anakin… duelling on the islands in the lava lakes…
    “its over Anakin!! I haves the high ground!” Darth Vader ends up.. near the lava river at “Gollum” vent

    • Most likely due to lack of support from the surrounding flow, this causes overhanging pieces to break off.

        • That’s a good description. It looks like somebody forgot to tidy up last night.

  7. At 08:10 am I noticed that the south cone developed a small leak into the north cone so apparently the two will merge. The lava flow for both cones seems small however

  8. Looking thru cam 1 the whole lava area has subsided…were did it goes? or made some spontan remelt and level downward just due to compacting?

  9. The lake is going down, dropping now at least a foot or more the last hour, both vents are lethargic so has the eruption stopped?

    End of the line for the fissure eruption?

  10. I think we watching the slow decline of the fissure eruption, it might be ending, the lava has turned orange now in the center of the cones and is very lethargic. This might be the end.

  11. The middle section has been slipping into the lake (yet again). If activity does pick up again, we might see a merge. But I think Randall might be right…

    • Coud be stopping… looks like just how fountain vents dies off…
      But if it keeps going at lower rates… it will then form lava tubes…
      But yes… it does indeed look like.. its dying

      • I think it may just be drowning in its own lava. Here’s the change over the weekend: frames from last Wednesday and Thursday, and today:

        See how a field of lava has built up to the right of the vent and the closer vent is being swallowed up. It’s still discharging, but much of the output is flowing into the field without having a chance to spatter. There are lots of breakouts along the edge of the field. This is how a tube system can start, if one breakout forms at the valley rim and becomes the dominant exit.

  12. Him…should be down to feel up…should sleep to get reinforced…..anyway…seismic movements reborn a little. Maybe after all this lava from down deep we see just dyke lava which as I undesrstood from here is in a lower temperature….the mother nature doesnt winck, she likes to go slow mo…

  13. Surge of lava from Nordri, it looks reasonably healthy. Perhaps something broke and the lava is going to be recycled back into the system, or possibly pop up somewhere else… I think I may go fetch some popcorn, some more tea, and a heart defibrillator…

    • Coud form a tube system with that setup too… with a bit slower eruptive rates

    • Gollum vent is a completely open conduit now.. so it does not need to fountain
      What you see is Gas Bubbles rising through the conduit the bubble bursts

    • Fimmvörðuháls stopped and Eyjafjallajökull started, perhaps if the pressure from below is still there it is following new routes.
      I think EQ’s should increase if it is going elsewhere unless a route of less resistance has been found. If it is slowing down it will be reduced EQ’s.
      Iceland authority’s will soon let us know of any changes, it certainly looks different at the eruption site.

  14. Lava pond of the left vent got a higher amplitude in bloping pulses, meaning that goes up on each blop from deep down althought is not so explosive (degassing?!?) Same high level inflation could be seen in the morning thru a crack for the vent above

  15. Relatively big drop in tremor this morning. Activity of the right vent went down a lot, flow rate descreased significantly and all the lava channnels drained/levels dropped a few meters.

    • They drop in south but take a look for north station, they all go up in the same abrupt way (bre especially)

      • Bre is on the other side of iceland and has nothing to do with the eruption. The increase there is at a totally different time compared to the decrease at faf and is most likely wind related. Also faf was/is the only station that showed any significant tremor when the eruption started and the drop happened at the same time as activity visibly declined

    • There was a huge collapse at the north vent a 7:44. Could it have plugged the vent enough to trigger this?

      • The reason I ask is, the timings appear to roughly match and unless previous falls it didn’t seem to immediately digest it.

        • *unlike* I mean. I’d blame autocorrect but I’m typing this on a keyboard so its my brain that’s faulty :-/

  16. Has anyone noticed that the north cone has a steam cloud hugging it? Quite noticeable and the steam modulates a bit with the lava bubbles surging. A thought hit me, is this another vent, remember the steaming vent just south of the south cone when things got started? Just odd that we have low level steam which is quite noticeable today

    • It doesn’t appear to be any more significant than previous days; and have seen 90% of the webcam footage since they started broadcasting… 😃
      Yes, I am a sleep-deprived, obsessed, self-confessed volcano nerd. 😊

  17. Just a tiny bit of what I have been working on 🙂

    All the calderas in Iceland that are on active volcanoes.

    imgur.com/a/kiT1nOU

  18. I’m digging away, trying to find the leak. No surface sign, and no one except us seem to be publicly talking about the morning’s events.Even the humans at the eruption site aren’t exhibiting any unusual behaviour…

    Watch this space.

  19. Check the ruv-cam!! The dissure opened somewhere else!
    Behind mbl cam somewhere

      • I think chad, ian and richard where fast too. Although Luis manage to type the entire link and more… so Luis I think you win!

      • Whoops, apologies all, I posted and only saw one post above mine, too excited to think to refresh the page. *brain is bouncing around skull gibbering like a lunatic*

  20. A new fissure opened! RUV cam is now zoomed in to it!

  21. The new fissure is on top of the mountain. Far above the valley. Some blockage must have occurred for it to break rhroug new fissures in higher ground.

  22. And it’s still on the move. New small fountains popping up along the line.

  23. hahaha d..I’am good! toldya! got a nap to be back ON TRACK!!!!

  24. Opened the ruv camera at just the right time? Was thinking the cone activity looked a little lower than previous days, and then it pans left and voila, new family members!

    Surely there must have been some indicator of this fissure extension? Graben or at least some hydrothermal venting? There would be people in that area given the wind direction, someone may have some footage of its genesis?

    Would be interesting to see if it lies on the same line as the gully that may or may not have been venting at the start of the eruption?

    It also looks to be an elevated plateau, where the lava goes could be random and quick!

      • Nice.

        Just thinking about the tourists. There you are, happily snapping away and eating your picnic, and then some one taps you on the shoulder and says behind you….. First thought is, was that the route in, and how do I get out?

    • I read on icelandgeology.net that in the past day theres been two areas of a bit increased seismic activity on the dike, the first was in the area of the eruption and that is where this fissure has appeared. The second is just south of Keilir, that is a long way from here at the other end of the dike, obviously you cant see that on the live but I wonder if something has started there too or is about to, it might take until nightfall to see it. Its hardly the most intense eruption but its looking like the pressure finally gave in, one vent isnt enough anymore.

      I saw a drone and a helicopter flying on the livestream so we are sure to get a lot of video soon 🙂

      • Link to a pan’able 360 drone shot from early in the eruption. Does not look to be on the line of the gully with all the steam/peat smoke, looks a lot further south. The 360 does give some perspective of the lie of the land on the plateau. Lava at the mo would run to the depression that was the likely southeast escape route for the mature lava field?

        https://www.iceland360vr.com/panorama/geldingadalur-volcano/?src=hp

  25. The new vents are more energetic and more numerous. The original eruption is still going strong, does this mean we have increased pressure from below?

  26. Is that the existing lava field on the far right of the new fissure?

  27. That’s a remarkable development. I’m shivering. And worse: I spilled my coffee… A fiery Easter egg.

  28. I finished some work for someone this morning, go to the web cam and Iceland’s cracked open!
    Has anyone a map showing where this extending fissure is happening, please?

    • Oh, the panning camera gives an idea. Well, I did speculate the disappearing lava north of the north cone was dropping into an opening fissure… Perhaps I was right?!!! 🙂

  29. Fissure is still expanding North and new spurts are appearing along the line all the time.

    • And now lava can be seen in the right hand side of the video stream as well. I guess the lava flows in what looks like a grove going right. It’s a shortcut to meradalur. The lava waterfall must be epic!
      New cameras please!

  30. On twitter IMO says: “IMO has received reports from pilots and control tower in Keflavík at noon that a new crack has opened about 500m NA [north east? quinabueron] of #eruption sites in Geldingadalur. According to information from pilots, the crack is about 500m long. Eruption has been confirmed on the RÚV webcam.”

    • Drone, drone, ‘copter, come to play, we want you to stay and stay!

      • Could some wonderful friendly dragon remove the repeated ‘drone and shorten the helicopter to ‘copter’, to make the rhyme scan? Only if you’re not too busy…

        Thank you.

        *Still screaming and doing happy Snoopy dance*

    • I think that is a pleateau nearer from the twins not so far but that’s the alignament

  31. It still opening up towards the right and already seems its already a much longer rift than before.
    I would not be surprised if this became the main vent.

  32. I was going to cry at how quiet the eruption had become today, my birthday, instead I am being given an explosive new present. Yay! 🙂

    Can someone tell me – I am really bad at visualising – looking straight on at the original vents, where has the new fissure opened up. Right left or behind or in front of the two cones as you look into them? Please and thanks.

    • Happy Birthday for yesterday! I have a feeling that you may remember this one…

      They are northwest of the mbl camera, right behind it up the hill…

      Please let them be moving the camera and the S&R tent, it’s not safe out there!

  33. Interesting new development. 500 meters is still relatively close. Shield volcanoes sometimes have more than a vent. So this is not unusual. The eruption might become focused in a single new vent again.

    However, I am finding interesting that there are two focal earthquake swarm points along the dyke. And one is just southwest of Keillir. This might mean that the dyke might try to erupt on its extent rather than as a shield single vent. We might eventually see new eruptions popping along the dyke at different times.

    This shows it is dangerous to hike to the eruption site. If you do, try to not locate your feet on the imaginary line that runs above the dyke SW to NE all the way to Keillir. This is where new vents are most likely to erupt.

    But one should also be mindful that other intrusions have taken place outside the dyke, to the west and maybe also eastwards towards Krisuvik. All care is needed.

    • The area is riddled with faults. Magma is going to find the easiest route to the surface, which may not be directly above the dyke.

  34. More unzipping! That SHR tent needs to move, stat.

    OMG OMG 😲 😱 😲 😱 😲 😱 😲 😱

Comments are closed.