You may have seen stories recently about 'the rise of drug resistant superbugs'.
There was even one expert yesterday saying that they could make the covid pandemic look minor.
Well.
Here's a little thread about the timings of these superbug waves in England.
There's quite a wide range of potential drug resistant superbugs - microbes that include bacteria, fungi, protozoans, and viruses.
Let's leave the others aside for a minute, and concentrate on the bacteria.
Primarily because the UK government have been publishing some data on the number of cases of drug-resistant bacteria for the last three years.
And the data is important.
I'll tell you what, let's have a quick glance at the raw case numbers they've published week on week.
Yeah. I know it's messy, but even when it's messy you can see there's a some bad trends in just three years.
Before we tidy that up, let me tell you what you're looking at.
These are 'carbapenemase-producing' bacteria.
*Carbapenem* is a powerful anti-microbial (an anti-microbial is an antibiotic, something that kills a lifeform or stops it reproducing).
And *Carbapenemases* are enzymes that bacteria have discovered can deal with *Carbapenem*.
There's two main things concerning about this:
Drugs that use carbapenem are kind of some of the last line of defence against these bugs.
But also, what's a little crazy is that one bacteria species that has figured out how to use carbapenemases can pass that ability to another different species of bacteria.
So the number of bacteria with the ability to use *carbapenemases* against *carbapenems* is growing.
And not only that, but they're also figuring out multiple ways of using them, and passing those different abilities to each other too.
So these are the carbapenemase producing bacteria in the raw data, week on week.
I guess if you're a UKHSA bod looking at that, you probably can't see anything apart from the growth, right?
Lump them all together, and you get this:
Messy.
Growing, but messy.
No obvious trends apart from 'up', maybe.
Except... when you look at the individual varieties things start to shake out.
And there are some *very* clear trends.
You want to see?
First of all, you need to remove some of the *noise* from the graph.
Instead of seeing the number of cases each week, you can change the data displayed to the number of cases of each one in the last four weeks.
So here's 4 week rolling totals of cases of Escherichia Coli, more commonly known as E Coli, that have been tested and been found to be producing a carbapenemase, smoothed to make it easier to see.
That's not a cumulative graph.
That's monthly Drug Resistant E Coli cases growing by a factor of FOUR in TWENTY MONTHS.
And I was being generous about which low point I chose.
So if you've been following me for a while, you may know what's coming.
There's a shape to this graph, isn't there?
This line has a shape.
It has a pattern.
Peaks and troughs, coming with a changing frequency.
So it's not seasonal, or annual.
Now, that line is steadily increasing, which makes it harder to see the peaks and troughs.
So I'm going to make it into a horizontal line so you can see it more easily.
If you want to know, the right hand side of the graph is five times higher than the data on the left, so I'll divide each week's data by an increasing amount... from 1 to 5... to make it...
...look like this.
Now that may look like cheating, but you can see that the two lines show the peaks and troughs at exactly the same moment in time.
It's just making the line horizontal.
And it's the TIMING of the waves that's important.
Why?
Because something else comes in waves, doesn't it.
Let's add in Covid.
So... there are the covid deaths on the same graph...
Now, again, I'm going to cheat a bit.
I can do this because I'm not a scientist, I'm a bird.
Please don't do this in your next phd:
There are five basic stages of this graph.
Something happens at the end of each box.
At the end of the first box, the red one, we enter the "most people have been vaccinated or infected phase".
Then at the end of the green box, we reduce testing.
Then at the end of the blue box, we reduce testing again.
Then at the end of the yellow box, we reduce recording of testing.
We're in the purple box.
So, I'm going to apply a rough rule of thumb to again **make that line flat so each part is comparable**.
I think it's ok to do this, because we know that registered deaths are not an accurate reflection of the number of cases, and neither is testing... but look all we're after here is the **shape**.
And here it is.
The E Coli cases are just an infintessimally tiny line on the bottom, but remember, they're growing, and we want to know why, so let's put the *flattened e coli cases* onto a different scale...
<PHEW> I hear you say, as you wipe the sweat off your brow, there's no link there at all!
Except... we know that some of the effects of covid come *after* the infection... what if there's some kind of lag between the covid wave cause and the E Coli effect?
So if you try and line up the first peak of deaths with the first peak of e coli, so the deaths are offset by a whole 18 months, nothing really fits at all.
But if you line up the two base troughs either side of the wide second wave with the two troughs either side of the wide first double peak of Coli cases... (red)... everything starts to correlate.
The width of the base in that first red box (I'll come back to the double peak in a moment).
The shape of the next climb in light blue.
The string of correlating peaks (with ever so slightly varying degrees of delay) through the light blue, green, and dark blue boxes.
1, 2, 3, 4, 5, 6, 7, 8...
And the corelation in the troughs too.
Or correlation even.
That graph is offset by 26 weeks.
And we know that there's generally a delay in registration of covid deaths after infections by about 3 weeks.
So you're looking at roughly 30 weeks - seven to eight months, between the peaks of covid infections and the peaks of e coli cases confirmed by lab.
But remember... they actually look like this:
And so if the cause is a wave of covid infections, and the effect is a wave of drug resistant E Coli cases, the effect is getting greater.
(While we're here, random side note, did you notice that during each of those green, blue, and orange boxes, while testing remained consistent the number of deaths in each wave increased?)
So, we just looked at E Coli, here are the rest:
They've all got wave features, and most of them correlate with each other and with the covid waves.
Here they are:
Oh, one note - Klebsiella, Enterobacter, and Escherichia Coli are on the left hand scale.
The rest are on the right hand scale.
There aren't as many of them.
And I lumped Leclercia, Morganella, Proteus, Providencia, Raoultella, Salmonella, and Serratia into 'Assorted', because they're aren't many of them.
But you know there will be, right?
Especially if we allow Covid to keep ripping through in huge waves.
Here they are.
Sow Covid.
Reap drug resistant bacterial infections.
Now, here we hit the big old question.
Why is Covid doing this?
And if you've got this far and you don't think Covid is doing it, good on you for sticking with it. I'm impressed.
Well, it's no secret that Covid harms the immune system.
And it's no secret that these drug resistant bacteria exploit people with immune dysfunction immunodeficiency and immune damage.
And it's no secret that Covid has been damaging the mucosa that normally acts as a barrier against these opportunistic bacteria in gut and lung and mouth and bladder and everywhere where these bugs normally hang around.
Normally your body can deal with them.
But it looks like a lot of people are having difficulty with them after their covid infections.
A crazily growing number of them:
So next time you see the UKHSA banging on about antibiotics in pigs, ask yourself why they haven't made this very obvious link too.
Note - I said I'd come back to the double peak in the first red box.
Here's the unadjusted graph.
I think there's a possibility that the massive peak of deaths took out some of the people who might have developed E Coli from that wave.
I don't know.
But with the unsmoothed data, the double peak is less pronounced, and you can see that the other drug resistant bacteria had just a single peak then, except the pseudomonas...
And the bacterial group that is showing the least sign of growth... the acetinobacters... the precision of those peaks... ouch.
And those 'assorteds'...
I think this is the group that might have the UKHSA pooping themselves.
Because right back at the beginning of this thread, I said that the problem is that **other bacteria** can learn this defence.
And the numbers of bacteria that are doing it... are increasing by the month.
It might only look like ones and twos...
But that's the way it always starts.
@Schall_abweiser Maybe spreadsheets don't always help.
I certainly feel intimately connected with that data.
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I've got some more data to add to this.
And it's a bad situation.
🚨🚨
I based the thread below on 'Lab Confirmed' Cases of Whooping Cough in England.
This evening I had the chance to look at the 'Statutory Notifications'.
It's rising much faster.
This will be a 5 tweet thread.
So this is Lab Confirmed cases of Whooping Cough in England over the last ten years.
On this chart, our current month has three times as many confirmations of cases as the previous highest point in the last ten years.
That's already bad because we haven't reached the height of the wave - that's not due for another four months. (see the thread below)
⚠️I would like to share a very very serious concern about whooping cough.
⚠️Professor Paul Hunter of the University of East has said that there was a surge "expected based on usual seasonal patterns" this year.
🧵About those usual seasonal patterns:
Look at the point at the right. That's the last week of January this year. That's when things went from normal to crazy in whooping cough world in England.
The last week of January is pretty much the start of the whooping cough season in most years up to now, in terms of lab confirmations.
The UKHSA added three more weeks of data today.
Guess what new diagnoses of Cryptosporidium Parvum did in the most recent week's data.
Yep. They dropped.
Parvum waves follow Covid waves *precisely*.
Maybe it's that Covid damages the immune system making people vulnerable to Cryptosporidiosis the way that another famous virus does.
Maybe it's that english hospitals are disgusting and dirty and when more people are admitted to hospital for covid they then develop a C Parvum infection.
Difficult conversation with a middle aged woman yesterday who probably has long covid, but won't consider that as a possibility.
Healthy, active until Nov 23.
First had Covid in late '21.
No obvious repercussions then, been 'ill' a couple of times in between...
#AnecdoteAlert
Then she had 'a nasty stomach bug' in November 2023, and quickly developed high blood pressure, breathlessness, fatigue, dizziness, hearing problems that have all persisted since then.
She's a bit of a wreck.
But she's stuck in the "that's life", "I'm just getting old", "it's the stress" way of thinking.
You've probably been waiting for an update on this for the last ten months.
I mean it was quite a bold claim to make, that cases of Klebsiella would continue to rise sharply if we allow Covid to keep damaging immune systems...
Guess what has happened to them...
🧵
Yep.
They continued to rise to the point where four times as many people are being diagnosed a month as just two years ago.
You're probably looking at that graph and thinking, hang on a moment, do those spikes coincide with anything?
Well.
Not only has Whooping Cough rocketed here, killing at least 5 babies along the way, possibly more, but something about it has changed.
Pre-pandemic?
Autumn Autumn Autumn Autumn.
Now?
SPRING.
That line hasn't peaked.
I think this is what happens when you reintroduce a pathogen into a population that has a combination of poor vaccination coverage and damaged immunity.