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A brief note: life continues to happen! Last week I noted that a solar upgrade was getting in the way. This week a veterinary emergency kept Health Rising off the air more than expected. Everything appears to be resolved but it was a tough couple of days. Find more about it on my Facebook page.  

Geoff’s Narration

The GIST

 

 Camille Birch PhD “I was completely blown away by what I saw”.

Six years ago, a startling Solve M.E. presentation from Liz Worthey and Camille Birch suggested that rare genetic variants – which are not uncovered by standard genetic testing – may be impacting energy production in significant numbers of people with ME/CFS.

 

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Rare Gene Mutations May Be Affecting Energy Levels in ME/CFS

Then, life happened: the COVID-19 pandemic occurred, there was a maternity leave, a lab move, long COVID popped up, and it took a while for Worthey and Birch to resume their studies. They’re back, though, with their first paper, “Uncovering the genetic architecture of ME/CFS: a precision approach reveals impact of rare monogenic variation“, using an expanded data set.

Liz Worthey has a PhD in Genetics from Imperial College, London and is the Director of the Center for Computational Genomics and Data Science at UAB School of Medicine. She is a pioneer in doing the kind of complex genetic analysis done in this paper. Camille Birch has a PhD in Biomedical Engineering and is a genetic data analyst.

I talked with them in what turned out to be a rather long discussion about their work.

Whole Genome Sequencing Project

First, a look at the whole genome sequencing (WGS) they did. As Liz explained, 6.4 billion nucleotides form the “letters” that make up our DNA. Most genetic studies examine about a million of the nucleotides that most often contain variants. Because of that, they will not pick up the rarer variants that may make the difference for individuals.

Studies like Decode ME can illuminate regions of our genome that are particularly notable in ME/CFS. WGS can identify the specific parts of the genes that may be driving it.

Not surprisingly, the study had personal roots. In 2009, at the University of Wisconsin, Liz Worthey PhD had worked in the first group to use whole genome sequencing to diagnose people with mysterious illnesses. The geneticists would come up with a diagnosis and the doctors would follow up with the appropriate tests. Over time she worked on thousands of cases and was able to find a diagnosis for approximately 40% of them.

Skip forward ten years or so, and both she and Camille Birch, PhD were working on a follow-up NIH-funded project called the Undiagnosed Disease Network (UDN) (“Solving medical mysteries through team science”), which also used extensive genetic testing to provide answers for people with mystery illnesses.

Undiagnosed Disease Network

Liz Worthey PhD pioneered using deep genetic analyses to explain mystery illnesses at the University of Wisconsin. Later, she and Camille Birch PhD worked at the Undiagnosed Disease Network to do the same.

Meanwhile, Camille Birch’s mother had been diagnosed with fibromyalgia in 1995. Her story was familiar. There were no answers and they kind of “limped along and hoped for the best”. When Camille began her PhD, she began experiencing the same symptoms as her mother. Only by moving to her parents house, and getting rides to and from school, was she able to complete her PhD.

THE GIST

DNA analysis

We all carry pathogenic genes. It takes trained genetic analysts to separate the wheat from the chaff.

“I was completely blown away by what I saw”. Camille Birch PhD

  • Six years ago, a startling Solve M.E .presentation from Liz Worthey and Camille Birch suggested that rare genetic variants – which are not uncovered by standard genetic testing – may be impacting energy production in significant numbers of people with ME/CFS.
  • Various things, including a pandemic, interfered with their follow-up work, but they’re back with their first paper, “Uncovering the genetic architecture of ME/CFS: a precision approach reveals impact of rare monogenic variation“, using an expanded data set.
  • Liz Worthey has a PhD in Genetics from Imperial College, London and is the Director of the Center for Computational Genomics and Data Science at UAB School of Medicine. She is a pioneer in doing the kind of complex genetic analyses done in this paper. Camille Birch has a PhD in Biomedical Engineering and is a genetic data analyst. I talked with them in what turned out to be a rather long discussion about their work. (See the blog for the zoom talk.)
  • They employed something called “whole genome sequencing” which, in contrast to the usual kind of genetic analysis which assesses a million or so genetic variants, assess the entire genome which includes billions of genetic sequences. This kind of analysis picks up rare pathogenetic genetic variants – usually very small shifts in our genetic makeup – which can affect how our cells function.
  • Our DNA, whether we are healthy or not, contains 2-300 pathogenic variants, most of which are not being expressed. A trained genetic analyst will go through each one see which ones fit the patient’s presentation, and that’s what Camille, whose mother has fibromyalgia, and Liz, who came down with long COVID, did.
  • Camille noted that while ME/CFS research has been good at illuminating problems with general biological pathways, it’s been less effective at identifying the mechanistic faults; i.e. the specific gene mutations that may, in some cases, be driving those broken pathways. That’s what they were looking for – and that’s what they found in roughly 40% of the 30 people in the study.
  • They used an extensive questionnaire to determine if the pathogenic variants found matched the patients’ symptoms.
  • Camille expected that they would mostly find very rare genetic variants which little was known about. Instead, they often found rare, but clearly pathogenic variants which had been associated with one disease or another. Note that the pathogenic variants had to meet strict criteria to be considered in the study.
  • One possible hitch was that the pathogenic variants found were usually heterogzygous – meaning that the individuals with them also carried a normal variant of the gene. The normal variant of the gene is usually the one that is expressed, but in many cases, illness, stress, toxins, or perhaps just time, can cause the pathogenic variant to be expressed – and this is what they think happened.
  • Interestingly, the gene variants – all of which varied from person to person – converged on three main themes: impaired energy production, reduced stress resilience, and vulnerability to metabolic failure.
  • Examples included people with pathogenic variants that affected ATP production, fatty acid metabolism, glycolysis, vit. B12 processing, ion transport, red blood cell formation and others. You can read about these case studies in the blog.
  • Their findings could be validated by gene expression analyses, metabolomics, proteomics and/or laboratory tests to see if the pathogenic variant was having the effect the authors believe it is having.
  • The authors believe that, given the variety of pathogenic gene variants found, personalized testing which does a deep dive into patients’ genome is going to be necessary to figuring out a substantial number of people with ME/CFS.
  • Liz and Camille have been able to slowly increase the number of genetic analyses that have been done (they’re up to about 50) and are looking for more funding to do large-scale analyses. In their analyses, they build reports, send them to doctors, and interact with them to help them do confirmatory tests and try the correct treatments at the right dose, etc.
  • While they don’t have the capacity right now to increase their rate of analyses, people who are interested in providing their whole genome sequence to them and have their analyses done can reach out to them. Plus, if they can get funding, and you’re interested in being in a study, you can reach out to them as well (eaworthey@uabmc.edu, clbirch@uabmc.edu).
  • Finally, when researchers come across outliers – people whose test results really stuck out – they’d be interested in analyzing their genome.

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Weird Pushback

As she began doing the genetics work, she began asking: why not sequence her mother? Why not look into fibromyalgia/ME/CFS? They’re mysterious diseases with no answers. She got the kind of weird pushback that just makes you shake your head: “We don’t do ME/CFS/FM because we don’t know what causes it”. (Huh???)

Walking into Liz Worthey’s office, she said, if I can get some money, can we study it? The answer was yes, and a Solve M.E. Ramsay award provided some money. A walk across the University of Alabama campus to Jarred Younger’s office got them patients. Meanwhile, Liz’s connection to these diseases got more personal when she came down with a nasty case of COVID-19 and ultimately, long COVID.

Camille’s first run through of the data revealed little. Not until she discarded all her prior conceptions about ME/CFS and literally went through the data chromosome by chromosome – and included an extensive questionnaire – did things start to pop. It was often the tiny details and weird symptoms that provided the most important clues. Liz Worthey talked about the “little tells” that their questionnaires revealed which turned out to be important clues, some of which showed up before patients actually came down with ME/CFS/FM.

DNA analysis

We all carry pathogenic genes. It takes trained genetic analysts to separate the wheat from the chaff.

Our DNA, whether we are healthy or not, contains 2-300 pathogenic variants, most of which are not being expressed. A trained genetic analyst will go through each one to see which ones fit the patient’s presentation.

Camille noted that while ME/CFS research has been good at illuminating problems with general biological pathways, it’s been less effective at identifying the mechanistic faults that are driving those broken pathways.

Take the mitochondria. Something clearly appears to be affecting the mitochondria in some people but we don’t know what. We have a bunch of possibilities but no clear answers. In our talk, Camille described her excitement at finding distinct genetic anomalies that could be affecting the mitochondria in different ways in different patients.

The Study

The study involved 38 people including 31 affected participants and 7 healthy first-degree relatives. Machine-learning and expert review identified pathogenic, or likely pathogenic, variants in 8 of 25 affected probands (the first person affected in a family) (32%) and 12 of 31 affected individuals (39%).

First, they took all the symptoms found in the Carruthers ME/CFS Canadian criteria and produced every symptom-combination that would still satisfy a diagnosis of ME/CFS. Each combination that could do that is called an avatar. They created these avatars in order to use machine learning.

Next they compared the “avatars” to symptom sets present in OMIM-curated Mendelian disorders. These are Mendelian (genetic) disorders caused by variants (mutations) in single genes, and thousands of them exist. They found a hundred and thirty-five genetic disorders which had similar symptoms to those found in the ME/CFS avatars.

The genetic diseases looked very familiar, as they impacted many areas of interest in ME/CFS, fibromyalgia and long COVID. They included disorders of thyroid hormone metabolism, mitochondrial DNA depletion and inhibited oxidative phosphorylation (energy production), fatty acid oxidation (energy production again), muscle excitation–contraction coupling and myopathies (muscle functioning); myasthenic syndromes (muscle weakness disease), kidney functioning, and autoinflammatory or immunodeficiency syndromes.

The close match between the ME/CFS symptom sets and the genetic disorders with pathologies similar to those that are showing up ME/CFS, FM and long-COVID studies was a good sign.

Clear Potential Genetic Causes…

It got better, though. They found what they considered to be a clear genetic cause to their illness in between 30-40% of individuals; i.e. they were confident that the specific gene variations mutations they found were causing the person’s illness.

Chromosomes

The gene variants had to pass two tests of pathogenicity to be assessed.

In five more people they identified heterozygous pathogenic variants in genes associated with recessive disorders which may have contributed to the disease. All in all, the whole genome analysis uncovered potentially significant genetic contributions in no less than 55% of the cohort.

Their confidence wasn’t simply based on intuition. In order to be considered possibly causal, the gene variants had to pass two tests. First, they had to meet strict international guidelines called the ACMG criteria, which are used by geneticists to decide if a mutation is actually harmful (pathogenic). Plus, they had to show up in a global database called ClinVar which contains genetic variants that are recognized by the scientific community to be linked to known diseases.

Next, they had to pass muster with expert genetic analysts. The patient questionnaires and narrative histories the authors had the participants take helped the analysts determine if a pathogenic variant was a match for each patient’s symptoms.

Possible Core Dysfunctions Pop Up

As with the avatar analysis, the genetic variants made sense with what we know about ME/CFS and with what patients experience.

Genetic variants that affected energy production and metabolism (ENO3, HADHA, ACADM, MMACHC) and disrupted mitochondrial function, glycolysis, and fatty acid oxidation were found. These variants have been shown to produce PEM, chronic fatigue, muscle pain, weakness, and cognitive dysfunction.

Symptom profiles plus molecular findings

Symptom profiles plus molecular findings. Note how core symptoms (fatigue, exercise intolerance, mental functioning, digestive problems, pain) showed up equally in the different molecular groups – hence the need to do more personalized testing. People in the red blood cell subset had more immune involvement; people in the solute and ion transport subset had more metabolic issues, and people in the energy production subset had more immune and less cardiovascular and headache findings.

Variants that impact solute transport and ion homeostasis (KCNJ18, SLC12A3) impair electrolyte balance, nerve signaling, and vascular tone have been shown to produce exercise-induced fatigue, muscle cramps and weakness, cognitive issues, and orthostatic intolerance.

Variants in red blood cell membrane genes (SPTA1, SLC4A1) have been shown to impair red blood cell functioning, blood perfusion into the tissues, microvascular blood flows and oxygen delivery. They have been associated with chronic and exertion-induced fatigue, muscle pain, cognitive dysfunction, anemia, and pain.

Note that these genetic variants appear to converge on three main themes: impaired energy production, reduced stress resilience, and vulnerability to metabolic failure. Many overt immune findings didn’t show up in this pilot study. Instead, a fundamental problem that could undermine the immune or any other system did.

Indeed, in illnesses that affect many different systems like ME/CFS and long COVID, we’re looking for fundamental problems that could explain all of it, and that’s what these findings seemed to uncover.

A Hitch (or Logical Explanation)? Heterozygous Genes Dominate

There is a potential hitch, though. The authors generally did not uncover pathogenic homozygous variants; i.e. variants which affected both “sides” or alleles of the chromosomes.

Each of our genes feature two branches or alleles. If both branches contain the same gene variant, the gene is homozygous – and we know what it will produce when activated. If both alleles contain different gene variants, the gene is considered heterozygous, and the answer is more complicated.

Heterozygous Alleles

Most of the pathogenic gene variants were heterozygous; i.e. one branch of the gene carries a normal gene while the other carried a pathogenic variant. (image from Ryan Kissinger, courtesy of NIAID, Public domain, via Wikimedia Commons)

Often one variant is considered dominant and the other recessive. In that case, the dominant gene variant will usually carry the day. Other times, there will not be a clearly dominant gene.

In general, though, the recessive gene variant is not expressed. In several of the gene variants, it was clear why some homozygous pathogenic genes were not found – people with both variants become ill or die very young. (Two of my gene variants were of this type.)

In most cases, it was a heterozygous, recessive (not usually expressed) gene variant that showed up in the ME/CFS patients. So, why would these authors argue that they are being expressed and are contributing to ME/CFS patients’ illnesses?

Because infections, illness, toxins, stress and other factors can sometimes result in these heterozygous recessive genes being expressed. Plus, the fact that the impact of these recessive genes can show up more and more over time could fit later stage illnesses.

Plus, while it’s easy to identify the effects of homozygous variants when a child with them is ill or dies young, it’s more difficult to identify heterozygous variants whose impacts show up decades later. In some people, ME/CFS may be a genetic disorder which takes: a) decades to show up; and/or b) requires a stressor to be manifested.

Camille pointed to a disease called Charcot-Marie-Tooth which contain hundreds of different genetic subtypes. In the more severe forms, children lose their myelin, their ability to walk, by the time they are ten, and can die. In other genetic subtypes, people can retain their ability to walk until their 70s or 80s.

The medical field has been very good at investigating catastrophic genetic variants but not so good at understanding the impact of less catastrophic variants. Despite the fact that the parents contribute the genes that cause these catastrophic illnesses in children, genetic studies often don’t examine the effect they might be having on the parents. Do they have fatigue or pain or other problem?

Case Studies

It’s important to note that Camille and Liz were constrained by our knowledge of pathogenic variants. Some of the variants that may be operating in ME/CFS patients simply haven’t been studied enough for us to know they’re pathogenic. (The authors provided a list of them in the paper.) Camille initially thought these rare, largely unstudied variants would make up the bulk of their findings, but said she was blown away by how many well-established pathogenic variants they could match to the symptoms the patients were reporting.

Check out some of the gene variants they found. Note that validating the authors’ findings would require doing gene expression/proteomics studies and/or lab tests to determine if the pathogenic variant is having the suspected effect. (Even then the lab tests may not be decisive if the gene variant is doing something a bit different in ME/CFS.)

This, in fact, is what the authors wish to ultimately accomplish. They want to generate genetic reports that patients can give to their doctors which then suggest tests that can be used to verify the findings, and, suggest treatments.

Cellular Engine Offline

Participant 5 carried a “pathogenic frameshift variant” in ENO3 (β-enolase). A pathogenic frameshift variant is a genetic variant which shifts the protein’s “reading frame” in such as a way as the cell produces an incomplete protein. In this case, a glycolytic enzyme that affects mainly the muscles was becoming shortened. This genetic mutation prevents the glycolytic cycle from producing a high-energy factor called PEP that’s needed to produce ATP.

ATP production

This pathogenic variant affected ATP production.

When this happens, ATP production falls and is particularly impacted during strenuous exertion. It’s like operating an engine with a cylinder that fails when its put under stress. The result is pain/cramps, early fatigue, muscle damage, weakness (especially with intense/anaerobic bursts).

The fact that this patient reported prolonged post-exertional fatigue, weakness, pain, cramps, spasms, and tenderness indicated that her symptoms were largely a match for this genetic variant. Notice that muscle cramps are not always found in ME/CFS.

The gene in this case was heterozygous and recessive; i.e. it carried two alleles, one of which was normal and is usually dominant. As we’ll see with some other variants, the authors noted that the recessive pathogenic gene can show up after illness or stress. Potentially, it could produce partial reductions in glycolytic reserve and set the stage for exertional intolerance and PEM.  Plus, this gene’s high CADD score (35) suggests that this genetic variant has the potential to be particularly dangerous.

A follow-up lab study would look for elevated creatine kinase (CK) and myoglobinuria and decreased ENO3 activity.

MCADD (Not MCAS) Shows Up in Mother and Son

Participants 7 and 8 (mother–son) shared a pathogenic ACADM missense variant called ACADM p.Leu84Phe. (A missense variant changes one amino acid in the resulting protein. In this case, the 84th amino acid in the protein is changed from Leucine → Phenylalanine.)

This variant affects a different part of the energy production process – fatty acid oxidation – and can produce something called medium-chain acyl-CoA dehydrogenase deficiency (MCADD). Fatty acid oxidation problems have shown up repeatedly in ME/CFS metabolomics studies.

fatty acid oxidation exercise.

Cells should switch to breaking down fatty acids for energy during exercise. This pathogenic variant inhibited that from happening.

In fatty acid oxidation, fats (triglycerides) are broken down into acetyl‑CoA which then feeds the TCA cycle. This cycle provides the electrons needed to run the electron transport chain and produce ATP. In MCADD, the body can’t reliably break down medium-chain fats for energy. When an MCADD deficiency is present, people have trouble switching to using fats as fuel, and so lose an important energy source.

Because fatty acids are the body’s most efficient long-term fuel source (they provide more ATP per gram than any other fuel), MCADD can produce episodes of fatigue, weakness and exercise intolerance. These episodes are often triggered by illness, prolonged exertion and fasting.

This variant was again heterozygous; i.e. it occupied one of the two alleles for the gene and is not usually deleterious. Illness and exertion later in life could conceivably trigger this variant to produce symptoms.

In order to tell if this variant was contributing to their illness, tests like plasma acylcarnitines and urine organic acids taken during/after a stressor would be taken, which brings up something else the authors pointed out – the need for strategic lab testing. They note that “biomarkers may be missed if samples are taken outside periods of active disease or relevant exposures”; i.e. some tests should be done when active disease (a crash) is present and/or after a relevant exposures (stress/exercise).

My acetylcarnitine tests, for instance, were done while I was at baseline. I had one abnormal result, a couple of low/high normal results, and mostly normal results. An AI search suggested, though, that exercising 2-6 hours prior to the test might have provided more revealing results.

Fatty Acid Metabolism Again

Fatty acid problems are showing up in spades in studies and in this cohort of patients. Given what we know thus far, it seems likely that a prominent fatty acid metabolic subset exists. The pathogenic HADHA variant found in one patient affects the final steps of long-chain fatty-acid β-oxidation, and therefore energy production. A homozygous deficiency typically results in fatigue, muscle weakness, PEM, muscle spasms, nausea, and exercise intolerance.

This variant is, again, heterozygous and does not usually cause problems, but once again, the literature states that stressors such as illness, fasting, or pregnancy can cause this variant to produce problems. The patient’s symptoms (fatigue, PEM, weakness, pain, muscle spasms, sensitivity, and nausea) seemed to fit this variant well. Plus, the authors pointed out that this person had other variants (NLRC4, SLC16A3, and SLC12A9 genes) that might be contributing to inflammatory, muscle, and metabolic problems.

Muscle Problems

Two siblings carried a “likely” pathogenic SLC12A3 frameshift variant. This gene linked to Gitelman syndrome, which produces metabolic alkalosis and muscle weakness, cramps, pain, fatigue, hypovolemia, polyuria, and exercise intolerance during illness, fasting, or exertion.

While the variant was recessive, once again reports have suggested that people with heterozygous forms of this gene can exhibit similar symptoms, and indeed, both of the siblings reported symptoms such as muscle weakness, joint pain, cramps, chronic fatigue, severe overactive bladder (suggestive of polyuria), and exercise intolerance.

One of the siblings contained a pathogenic COL6A3 variant, seen in something called Bethlem myopathy and Ullrich congenital muscular dystrophy, which could explain the greater levels of pain, fatigue, and musculoskeletal problems this person experienced.

Stiff Red Blood Cells 

A mother and two daughters carried a fascinating variant given what we know about ME/CFS. The pathogenic splice SPTA1 variant found produces a protein called a-spectin which is essential for red blood cell flexibility and deformability,

red blood cells

A mother and her daughters carried a pathogenic variant that could stiffen their red blood cells, potentially resulting in exercise intolerance, etc.

These variants can produce fatigue, PEM, shortness of breath, exercise intolerance, dizziness and pain that is often triggered by exertion or infections. Plus, these individuals also contained more pathogenic variants which may exacerbate the SPTA findings.

At least 3 studies have found problems with red blood cell stiffness/deformability. Red blood cells that are too stiff may have trouble getting into the capillaries and delivering oxygen and nutrients into the muscles.

Interestingly, red blood cell-driven PEM (occurs more quickly, peaks during or shortly after exercise, clears up more quickly) may be different from mitochondrial produced PEM (shows up later, takes longer to resolve).

B12 Gene Mutation

Participant 18 carried a pathogenic frameshift variant in gene called MMACHC (p.Arg91LysfsTer14), which disrupts vitamin B12 processing and mitochondrial functioning. Jarred Younger explained that because this gene disrupts B12 processing, people with normal or even high B12 blood results might not be getting enough B12 in their cells.

My Results

I was in the 40% or so of people whom Liz believe may have a genetic basis for my illness. (I was not in the paper. I have a healthy identical twin, but while identical twins are genetically very similar, they are not genetically identical. He is being tested to see if we differ in important ways.)

I had 7 pathogenic variants that could be hyperactivating the immune system, impairing energy production, affecting the muscles, and contributing to or producing ME/CFS.

 mitochondria

My results included genes that might be activating the immune system and impairing mitochondrial production.

One (FLG NM) results in an incomplete gene, which can produce a hyperactivated immune state that requires a lot of energy. That gene paired nicely with a mitochondrial gene (GLDC NM) which could reduce energy production, and can produce a later onset of fatigue, PEM and liver issues.

A small change in one gene which produces an enzyme called GDP‑mannose pyrophosphorylase B, particularly affects proteins in the muscles. Recent research suggests that a single copy of this gene can give rise to later disease states that result in muscle weakness, later onset fatigue, pain and post-exertional malaise. A large variant in one gene (CLCKNKB) could result in low blood volume; producing fatigue and muscle weakness.

If two of my variants were found on both branches of my genes, I likely would have died as a child. Interestingly, given my northern European background, two of my gene variants occur mostly in northern Europeans.  

Validating the Findings

Validating the authors’ conclusions would involve doing gene expression, proteomic, metabolomic and/or clinical laboratory testing. Gene expression tests would determine if genes associated with the putative problems were affected. For instance, problems with red blood cells might result in a compensatory reaction that involved an increased expression of gene involved in maintaining red blood cells – and this was found. Similarly, the expression of glycolytic and mitochondrial genes was altered in some people carrying pathogenic variants involving the mitochondria. Ditto with some patients who had variants affecting the innate immune system and regulatory T-cell networks.

Next Steps

Talk about precision medicine. While the authors acknowledged that studies with large samples are important, they believe that in illnesses like ME/CFS where many roads can lead to Rome, taking a deep dive into symptoms and family history and pairing that with a deep dive into the entire genome may be critical. Indeed, the fact that the authors were able to present plausible explanations for about 40% of the participants (note that some families were included, which drove up the percentage) suggests that these precision-guided approaches may be a necessary component for a substantial subset of patients.

Jarred Younger Talks About This Study

The authors believe ME/CFS exists on a kind of gradient. The common genetic variants uncovered by studies like the Decode ME study will help explain some types of ME/CFS. Others will be explained by rare genetic variants that can only be uncovered by analyses of the entire genome.

DNA

The authors hope to expand their testing and provide doctor reports that can help inform treatments.

The fact that whole genome studies are so rare in ME/CFS in the history of ME/CFS makes one wonder if the medical field is ready for a genetic explanation of ME/CFS. Note, after all, the bizarre reaction that Camille Birch received when she first proposed that the rare illness program study fibromyalgia. (We don’t know anything about it, so why study it????) (Note also, how important a patient organization – Solve M.E’.s Ramsay award – was in getting this research started.)

This paper is just the beginning, one hopes, of more deep dives in the genetic maze that makes up ME/CFS. One piece of good news is that the price of whole genome sequencing has gone down dramatically over time. I paid $369 for a whole genome sequence from sequencing.com and then gave it to Liz and Camille to analyze. The Decode ME group has announced that a whole genome study is in the works.

Liz and Camille have been able to slowly increase the number of genetic analyses that have been done (they’re up to about 50) and are looking for more funding to do large-scale analyses. Ultimately, they would like to build reports, send them to doctors, and interact with them to help them do confirmatory tests and try the correct treatments at the right dose, etc.

While they don’t have the capacity right now to increase their rate of analyses, people who are interested in providing their whole genome sequence to them and have their analyses done can reach out to them. Plus, if they can get funding, and you’re interested in being in a study, you can reach out to them as well (eaworthey@uabmc.edu, clbirch@uabmc.edu).

Finally, when researchers come across outliers – people whose test results really stuck out – they’d be interested in analyzing their genome.

 

  • *Coming up next – “The Study We’ve All Been Waiting For?”

Support Health Rising and Keep the Information Flowing!

Health Rising is not a 501 c (3) non-profit

 

Health Rising’s Quickie Summer Donation Drive is On!

Keeping up with the latest research in ME/CFS, long COVID, fibromyalgia, and allied diseases. Exploring new treatment possibilities. Learning how others have recovered. All in as thoroughly and comprehensively as we can. 

Please support Health Rising during our quickie summer donation drive. Our goal is to raise $15,000. 

 Find out more here.

Please support Health Rising in our Quickie Summer Donation Drive! Our goal is $15,000.Click here for more.

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