Category Archives: Immunology

Ishares Genomics Immunology And Healthcare Etf ($IDNA) Proactive Strategies – Stock Traders Daily

December 13, 2023, 23:00 pm ET, BY David D.- Contributor| Editor: Thomas H. Kee Jr. (Follow on LinkedIn)

The technical summary data tells us to buy IDNA near 21.45, but there is no current upside target from the summary table. In this case we should wait until either an update to the summary table has been made (which usually happens at the beginning of every trading day), or until the position has been stopped. The data does tell us to set a stop loss 21.39 to protect against excessive loss in case the stock begins to move against the trade. 21.45 is the first level of support below 22, and by rule, any test of support is a buy signal. In this case, if support 21.45 is being tested, a buy signal would exist.

NONE . There are no current resistance levels from the summary table, and therefore there are no Short resistance Plans which tell us to short upon tests of resistance. Resistance levels have broken higher and unless the stock reverses lower and below support levels again short positions look risky.

If n/a begins to break higher, the technical summary data tells us to buy IDNA just slightly over n/a, with an upside target of n/a. The data also tells us to set a stop loss @ 0 in case the stock turns against the trade. n/a is the first level of resistance above 22, and by rule, any break above resistance is a buy signal. In this case, n/a, initial resistance, would be breaking higher, so a buy signal would exist. Because this plan is based on a break of resistance, it is referred to as a Long Resistance Plan.

The technical summary data is suggesting a short of IDNA if it tests n/a with a downside target of 21.49. We should have a stop loss in place at 0 though in case the stock begins to move against the trade. By rule, any test of resistance is a short signal. In this case, if resistance, n/a, is being tested a short signal would exist. Because this plan is a short plan based on a test of resistance it is referred to as a Short Resistance Plan.

If n/a begins to break higher, the technical summary data tells us to buy IDNA just slightly over n/a, with an upside target of n/a. The data also tells us to set a stop loss @ 0 in case the stock turns against the trade. n/a is the first level of resistance above 22, and by rule, any break above resistance is a buy signal. In this case, n/a, initial resistance, would be breaking higher, so a buy signal would exist. Because this plan is based on a break of resistance, it is referred to as a Long Resistance Plan.

The technical summary data is suggesting a short of IDNA if it tests n/a with a downside target of 21.49. We should have a stop loss in place at 0 though in case the stock begins to move against the trade. By rule, any test of resistance is a short signal. In this case, if resistance, n/a, is being tested a short signal would exist. Because this plan is a short plan based on a test of resistance it is referred to as a Short Resistance Plan.

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Medical Breakthroughs Fueling Infection Prevention Market: Immunology and Modern Medicine Advancements to … – PR Newswire

A new report from FMI highlights key factors propelling the growth of the infection prevention market. The report identifies rising surgical procedures, environmental sustainability trends, the development of biodegradable solutions, and growing awareness of health and hygiene as major drivers of market expansion.

NEWARK, Del., Dec. 12, 2023 /PRNewswire/ -- The global infection prevention market is estimated to be over US$ 40,845.2 million in 2024. Between 2024 and 2034, the market is predicted to grow at 3.1%, reaching a valuation of US$ 55,379.1 million by that year. The infection prevention and control market is expanding globally due to rising outsourcing efforts, healthcare spending, impressive healthcare standards, and infrastructural advances.

Request Exclusive Sample Report: Infection Prevention Market Strategic Insights: https://www.futuremarketinsights.com/reports/sample/rep-gb-13950

The number of surgical operations performed globally has increased. This is due to a rise in the frequency of lifestyle illnesses, increased obesity, and other factors. Aside from that, numerous athletes suffer from severe injuries, including spinal injuries and elbow injuries. As a result, many operations have increased the need for infection prevention kits.

Growing public consciousness of environmental sustainability opens up lucrative growth opportunities for the industry. Biodegradable gloves, eco-friendly packaging, and environmentally friendly production methods are just a few of the environmentally friendly and recyclable infection control items that are becoming increasingly popular. Manufacturers are trying to reduce the amount of garbage they produce and their carbon footprints.

Biodegradable infection control solutions from plant-based polymers derived from sustainable resources such as cornstarch, sugarcane, or cellulose are becoming increasingly popular. These polymers can create gloves, aprons, packing materials, and disposable gowns. Eco-friendly and biodegradable infection control solutions have propelled market expansion.

The growth in infection incidence indicates an increasing global need for efforts to address the underlying cause of sickness and reduce the risk of transmission. Revenues from reimbursement are expected because of the growing demand for consumables, disinfectants, and sterilizing equipment in the healthcare sector.

Customers are expected to demand infection-prevention products as they become more conscious of their hygiene and health. The aging population's growing desire for better healthcare is predicted to result in increasing sales potential.

Infection Prevention Industry Overview, 2024-2034:

Attributes

Infection Prevention Market

CAGR (2024 to 2034)

3.1%

Expected Base Year Value (2024)

US$ 40,845.2 million

Anticipated Forecast Value (2034)

US$ 55,379.1 million

Growth Factors

Growing prevalence of chronic disorders all over the world.

Future Opportunities

Key Companies profiled

Understand global, regional, and country-level parameters with growth opportunities, historical data (2019-2023), and forecasts (2024-2034).Buy this report today!

Sabyasachi Ghosh(Associate Vice President at Future Market Insights, Inc.), States, "The main factor driving the market is the growing demands for efficient cleaning and awareness of the need to clean and disinfect the environment. Furthermore, the market for infection prevention is poised for significant expansion because of the coronavirus outbreak."

Key Takeaways from the Infection Prevention Market:

Key Strategies:

The global infection control market is highly competitive, with several companies participating. Market rivalry is fierce, with businesses contending for customers' attention by introducing new, high-quality products. Infection control is a highly competitive sector with many small and medium-sized establishments.

These businesses often focus on specific service or product categories within a given market. Many industry participants focus on organic market expansion through product debuts, approvals, and other variables such as patents and events. The inorganic growth tactics were partnerships, acquisitions, and collaborations.

Recent Developments:

About Healthcare Division at Future Market Insights (FMI)

Future Market Insights (FMI) facilitates corporates, government, investors, and associated audiences in the healthcare sector to identify and accentuate vital aspects applicable to product strategy, regulatory landscape, technology evolution, and other crucial issues to achieve sustainable success. Our unique approach to gathering market intelligence equips you to devise innovation-driven trajectories for your business. Know more about our sector coverage here.

About the Author:

Sabyasachi Ghosh(Associate Vice President at Future Market Insights, Inc.) holds over 12 years of experience in the Healthcare, Medical Devices, and Pharmaceutical industries. His curious and analytical nature helped him shape his career as a researcher.

Identifying key challenges clients faces and devising robust, hypothesis-based solutions to empower them with strategic decision-making capabilities come naturally to him. His primary expertise lies in areas such as Market Entry and Expansion Strategy, Feasibility Studies, Competitive Intelligence, and Strategic Transformation.

Holding a degree in Microbiology, Sabyasachi has authored numerous publications and has been cited in journals, including The Journal of mHealth, ITN Online, and Spinal Surgery News.

Explore FMI's Extensive Coverage in the Healthcare Domain:

About Future Market Insights (FMI)

Future Market Insights (FMI) is a leading market intelligence and consulting service provider, serving clients in over 150 countries. FMI is headquartered inDubaiand has delivery centers in theUnited Kingdom,the United States, andIndia. FMI's latest market research reports, and industry analysis helps businesses navigate challenges and make critical decisions with confidence and clarity amidst breakneck competition.

Our customized and syndicated market research reports deliver actionable insights that drive sustainable growth. A team of expert-led analysts at FMI continuously tracks emerging trends and events in a broad range of industries to ensure that our clients prepare for the evolving needs of their consumers.

Contact Us

Nandini Singh Sawlani Future Market Insights Inc. Christiana Corporate, 200 Continental Drive, Suite 401,Newark, Delaware- 19713,USA T: +1-845-579-5705 For Sales Enquiries:[emailprotected] Website:https://www.futuremarketinsights.com LinkedIn|Twitter|Blogs|YouTube

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Medical Breakthroughs Fueling Infection Prevention Market: Immunology and Modern Medicine Advancements to ... - PR Newswire

Testing Cancer Immunotherapies on Mice with Human Immune Systems – Mirage News

Mice with human immune cells are a new way of testing anti-cancer drugs targeting the immune system in pre-clinical studies. Using their new model, the Kobe University research team successfully tested a new therapeutic approach that blindfolds immune cells to the body's self-recognition system and so makes them attack tumor cells.

Cancer cells display structures on their surface that identify them as part of the self and thus prevent them from being ingested by macrophages, a type of immune cell. Cancer immunotherapy aims at disrupting these recognition systems. Previous studies showed that a substance that blinds macrophages to one of these identifiers, called "CD47," by disabling their CD47-scanning structure, "SIRP," can activate the cells to fight the tumor when given in combination with therapeutic cancer-targeting antibodies such as Rituximab. However, because this approach is so specific to the self-identification of human cells, until now it could only be tested in humans or monkeys, making pre-clinical studies in mice impossible.

To overcome this, Kobe University immuno-oncologist SAITO Yasuyuki and his team built on their experience with creating mouse immunological models and transplanted parts of the human immune system into mice. Saito says, "Studies using mouse models with humanized immune systems have focused on lymphocytes, a type of immune cell relevant to infectious diseases.

The special aspect of our approach is that our new mouse model focuses on macrophages because we want to target them for the development of new cancer immunotherapies." This enabled the researchers to both create a more fully functioning mouse model of human cancer and test the effectiveness of the blindfolding approach for the first time in this environment.

Their results, published in the journal Frontiers in Immunology, showed that the macrophage-targeted therapy indeed induced an effective cancer response. However, Saito explains, "The most exciting aspect of this result is that this approach not only promotes the engulfment (ingestion) of tumor cells by macrophages but also reprograms tumor-associated macrophages, one of the current topics of cancer immunotherapy."

The immune system has an ambiguous role in the development of and fight against cancer. On the one hand, it can recognize cancer cells and fight them. On the other hand, macrophages also associate with tumors, both supporting their growth and suppressing other anti-tumor immune responses. To turn these cells against cancer is the novel approach that the Kobe University researchers could now help propel forward with their new humanized mouse model.

But the result has a broader relevance, too. Saito says, "There were no suitable preclinical in vivo models to develop therapeutics targeting human macrophages surrounding tumors, so new approaches had to be tested directly on patients. I believe our model perfectly fills the gap and may help in the selection of the most effective treatment from several candidates for therapeutics targeting human immune cells. The long-term goal of my project is to develop a humanized immune system mouse model that faithfully represents the immune response against the tumor."

This study was supported by the Ministry of Education, Culture, Sports, Science, and Technology of Japan Grant-in-Aids 20K21547, 21H04807 and 20K16358; by Japan Agency for Medical Research and Development (AMED) grants 21cm0106308h0006 and 22674074; by Japan Science and Technology Agency (JST) grant JPMJPF2018; by the Bristol-Myers Squibb Foundation, the Takeda Science Foundation, and by the Japanese Society of Hematology. It was conducted in collaboration with researchers from the University and University Hospital Zurich and the Comprehensive Cancer Center Zurich.

Kobe University is a national university with roots dating back to the Kobe Commercial School founded in 1902. It is now one of Japan's leading comprehensive research universities with nearly 16,000 students and nearly 1,700 faculty in 10 faculties and schools and 15 graduate schools. Combining the social and natural sciences to cultivate leaders with an interdisciplinary perspective, Kobe University creates knowledge and fosters innovation to address society's challenges.

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Testing Cancer Immunotherapies on Mice with Human Immune Systems - Mirage News

Cancer therapy bexmarilimab awakens immune cells to attack tumors that have avoided the detection of the immune … – EurekAlert

image:

The image shows cancer cells and macrophage immune cells. The macrophages are depicted in red whereas the cancer cells are the white-grey spots. The nuclei are shown in blue.

Credit: Jenna Rannikko

Researchers at the University of Turku, Finland, have uncovered how the new bexmarilimab therapy alters the function of immune cells so that they can infiltrate the tumor in cancer patients who do not respond to any other current therapies.

Cancer immunotherapy utilizes the bodys own defense machinery, the immune system, to fight against cancer. Novel immunotherapies are being developed to help patients whose immune cells fail to attack cancer even with the aid of currently available therapies.

One potential future cancer therapy, bexmarilimab, changes macrophage behavior to promote anti-tumor immune defense. Macrophages are highly plastic immune cells that cancer can utilize to avoid detection by the immune system. Principal Investigator Maija Hollmns research group at the InFLAMES Research Flagship at the University of Turku in Finland has investigated how bexmarilimab therapy alters immune cell function within patient tumors.

In a clinical trial for advanced-stage cancer, bexmarilimab therapy was well tolerated and stabilized disease progression in subsets of patients. In patients benefitting from the therapy, we observed tumor-associated macrophage and lymphocyte activation as well as induction of interferons, which are all important signs of anti-tumoral immune defense, says Dr Hollmn.

The study utilized a novel spatial transcriptomics method that allowed the researchers to investigate changes in immune cell gene expression in a spatial context of patient tissue samples.

Efficacy in tumors resistant to current immunotherapies

Individual cancer patients differ greatly in their sensitivity to immunotherapies, as tumors can resist immune attacks to varying degrees. Therefore, its important to identify tumor types where a novel immunotherapy has highest efficacy.

By treating patient-derived cancer cells and immune cells with bexmarilimab in cell cultures, Hollmns group could study in detail how individual immune cells react to bexmarilimab.

We observed similar immune system activation in patient-derived cell cultures as we saw within patient tumors: bexmarilimab stimulates the macrophages, which can then activate T lymphocytes that are proficient in killing cancer cells. Successful treatment therefore depends on the co-operation of several immune cell types, describes Jenna Rannikko, who is the first author of the related research articles.

The similarities between the clinical study and patient-derived cell cultures encouraged the group to investigate why bexmarilimab lacks efficacy in some patients. They discovered that macrophage exposure to interferons prevents bexmarilimab from activating them.

This is highly significant, as it means that bexmarilimab would be most efficacious in tumors where currently available immunotherapies work poorly. Those tumors have lower levels of interferons. After bexmarilimab-induced anti-tumoral immunity, these tumors could become sensitive to currently available immunotherapies as well, concludes Rannikko.

Bexmarilimab is a new cancer drug developed by Faron Pharmaceuticals in Turku, Finland. The research was published in the esteemed peer-reviewed journals Cell Reports Medicine and Cancer Immunology Research in November and December 2023.

Cell Reports Medicine

Bexmarilimab-induced macrophage activation leads to treatment benefit in solid tumors: The phase I/II first-in-human MATINS trial

5-Dec-2023

Disclaimer: AAAS and EurekAlert! are not responsible for the accuracy of news releases posted to EurekAlert! by contributing institutions or for the use of any information through the EurekAlert system.

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Cancer therapy bexmarilimab awakens immune cells to attack tumors that have avoided the detection of the immune ... - EurekAlert

Long COVID Research Is a Bit of a Mess – Technology Networks

Back in March 2020, as the COVID-19 pandemic descended over the world, Naima was a busy tech worker, zipping around London, speaking to clients and jogging on the weekends.

I was very, very busy, she says. I did triathlons and [was] running 10Ks all the time. I was living a normal life, a full life.

Then, like every other person in the UK, her life came to a standstill as the countrys first lockdown began. Only, Naima was even more sedentary than most; she was ill with COVID-19.

I had quite a few symptoms: headache, fever, full-body soreness, sore throat, a bit of a cough and I felt very weak, she explains. That lasted a couple of weeks.

It would have been easy to panic, contracting the very virus that had just shut down the world, but Naima was relatively calm. Because I was so fit, I wasnt too worried, she says. The only real story that was happening was the hospitalizations. The line was: Unless you have underlying conditions or youre much older, youll be fine.

And for a while she was, mostly.

I had this niggling sensation in my chest that would pop up every couple of days, just for a few seconds. And in those few seconds, I couldnt breathe properly. But that didnt develop into anything else for several months.

When it did, Naima wasnt just troubled with a tight chest; she was debilitated with palpitations and crippling fatigue. She could barely walk. My world was turned upside down from that point in October, when those severe symptoms kicked in. I spoke to general practitioners; I said, I cant move at all. It feels like there are bricks on my chest and shooting pains that come whenever I get up. They said, You know, youre so young and fit, but this sounds like a heart attack.

It wasnt. It was long COVID. Naima was part of the first batch of people in the world to develop ongoing, disabling complications following an un-hospitalized COVID-19 infection. And shes still ill, more than three years later.

How could a fit and healthy 26-year-old go from running triathlons to being bed-bound for months, just from a passing viral infection? Why were she and people like her left with life-altering symptoms, while others could move on from their infections, seemingly unchanged? Back in 2020, no one had answers to these questions. No one really knew how to help those struggling with the illness. Research was desperately needed.

And, as 2021 dawned, research arrived. The UK government awarded 18.5 million to four studies that set out to define long COVID. The European Union gave 27.9 million to a larger research initiative, known as ORCHESTRA, to study how COVID-19 was impacting peoples health. And in February 2021, the US National Institutes of Health (NIH) raised the bar and allocated $1.15 billion to research the causes of long COVID and its possible treatments.

So, nearly three years later, what has been learned? Perhaps more importantly, have any treatments been produced?

The short answers: a lot. And not quite.

To begin with, researchers set about defining long COVID as a starting point. Many understood the condition to involve persisting symptoms after a SARS-CoV-2 infection, but that was about it. They didnt know exactly what these symptoms were or who they were affecting. To gather insights, they began profiling patients.

A lot of these patients were actually young and healthy, in their 20s and 30s, says Dr. Ziyad Al-Aly, a clinical epidemiologist at Washington University. And everybody at the time [in March 2020] was telling them that, If youre young and healthy, then SARS-CoV-2, its not a big deal; youll recover. But weeks later, these people were not recovering. So we decided to research long COVID to try to understand what it is.

Al-Aly and his colleagues began by looking at patient medical records. They recently published two years worth of observations in Nature, comparing the medical data of 138,818 individuals who had had a SARS-CoV-2 infection and 5,985,227 who hadnt. There were some stark differences.

Among the non-hospitalized, long COVID took away 80.4 disability-adjusted life years (DALYs), a standard measure of disease burden, per 1,000 people. For comparison, others studies have estimated that chronic obstructive pulmonary disease, for instance, costs between 3.6 and 6.7 DALYs per 1,000 people.

Disability-adjusted life years (DALYs) summarizes the burden of healthy years of life lost due to premature mortality and disability.

Long COVIDs high disease burden is partly explained by its sheer number of possible symptoms; Al-Aly and his colleagues observed more than 80 within the medical records. These included atrial fibrillation, cardiac arrest, anemia, diabetes, fatigue, acute gastritis, myalgia, memory problems and peripheral neuropathy. Just over 30% of these sequalae remained significant in non-hospitalized patients for two years.

Long COVID is literally the long-lasting legacy of this pandemic, Al-Aly says.

Al-Alys study documented, in unprecedented detail, just how wide-ranging the effects of long COVID-19 can be. But what exactly is causing these symptoms? Parallel research has shed some light.

One study found that long COVID patients had 100 times the levels of SARS-CoV-2-specific T cells normally seen in people who recovered from the virus a finding that suggests the virus is still active in the bodies of people with long COVID, surviving in reservoirs, plaguing sufferers for months. Tiny blood clots have been found in patients clots that could be blocking oxygen from reaching cells, starving patients of their energy. The brains of people with long COVID are also more active in certain areas than the brains of those without the post-viral illness an observation that could explain the memory loss and confusion experienced by many with the condition.

Theres a lot going on under the skin of long COVID patients, multiple etiologies affecting multiple organ systems.

And this is where the field of long COVID research gets sticky, because highly variable diseases are difficult to study further. What kind of clinical researcher is best suited to the job? A cardiologist? A neurologist? An infectious disease specialist? Based off the mounting data, it seems like long COVID is a job for all three.

This issue is partly why, more than three years on from when the illness was identified, long COVID research is still stuck in its characterization phase. Have a Google of long COVID research these days and one will still come across new papers decrying how blurry the definition of the disease is and arguing for more thorough studies to detail it better.

But people with this condition cant wait any longer for such preliminary studies. Theyre desperate for interventional clinical trials now. People are hanging their hopes on these trials, says Al-Aly. They want them to be done yesterday. And yet were moving forward at a turtles pace.

Ironically, its the same kind of characterization research that demonstrates this desperation best. Almost one in five UK doctors responding to a recent BMJ survey said that they had lost their ability to work due to their post-COVID ill-health. A US study, published last year, estimated that long COVID potentially accounted for 15% of the countrys whole labor shortage.

Even those who have managed to keep working through their illness report life-altering levels of fatigue (the most common symptom of long COVID), enough to rob them of their prior quality of life. One survey of patients at a long COVID clinic, published in BMJ Open this year, found that, on average, the patients fatigue scores were worse or similar to those of people with severe kidney disease. The respondents quality of life scores were also lower than those of people with stage four lung cancer.

Most concerning of all, due to the toll of the illness, people with long COVID seem to be at a higher risk of suicide. One US patient-led survey found that 45% of respondents had experienced recent suicidal thoughts more than 11 times the national average (4%). Sadly, these data are supported by a growing number of anecdotal reports within the long COVID patient community from grieving loved ones.

So, with no approved treatments for the illness or standardized care plan and a disease duration that can span over three years in certain cases its perhaps no wonder people with long COVID are crying out for trials. Fortunately, a few have been greenlit.

In August 2023, there were 386 trials underway around the world relating to long COVID, according to the ClinicalTrials.govdatabase. A promising figure, one might think. Only 94 of those studies, however, were classed as interventional and were recruiting, and only 12 trials were testing pharmacological interventions; the rest were testing the effects of food supplements, psychological support, acupuncture and other non-drugs.

What are the 12 drug trials testing, though? Well, one led by Yale University is studying whether Paxlovid (a COVID-19 antiviral made by Pfizer) could benefit people with long COVID, perhaps by eliminating any rogue remnants of SARS-CoV-2 that may still be lingering in their bodies. Another led by a private US company is seeing whether a novel drug designed to remove pro-inflammatory nucleic acids could reduce the levels of vascular inflammation observed in long COVID patients, thereby reducing their fatigue.

But perhaps the most highly anticipated trial within the long COVID community is that undertaken by the relatively small biotech company Berlin Cures. The German start-up made headlines back in 2021 when it announced that it had effectively treated four people with long COVID with just a single infusion (per person) of its proprietary drug, BC007. Encouraged by these initial results, the company has since launched a Phase 2 clinical trial of its neutralizing functional auto-antibody formula, which recently completed a Phase 2 open study for heart failure.

We know, and others have shown, that these functional auto-antibodies play a key role in the pathogenesis of various debilitating diseases, says Oliver von Stein, Berlin Cures CEO. Long COVID, we believe, is one of them, heart failure is potentially another.

To be included as a participant in the companys trial, potential patients have to test positive for these pernicious auto-antibodies, so the Berlin Cures team can later test if a reduction in auto-antibody levels correlates with a reduction in fatigue (the prime symptom assessed by the study).

Thanks to this level of rigor built into the trial, and the early results of BC 007, von Stein and his colleagues are expecting promising results by the second half of next year results that they hope will attract a new wave of investment for a Phase 3 trial and, beyond that, other trials for other maladies.

We are optimistic and expect good data from our ongoing Phase 2 study, von Stein says. And, if this is the case, this will provide a lot of momentum to tackle other diseases, similar conditions for example, chronic fatigue syndrome.

Chronic fatigue syndrome or myalgic encephalomyelitis (ME) is the elephant in the long COVID room. For the past three years, much of the media and discussion around long COVID has treated the post-viral condition as an entirely new illness, a view that has been reflected in its research; scientists from around the world have scrambled to study the disease from scratch.

But if ME had been studied more thoroughly or even just believed years ago, much of the foundational work of long COVID research may already have been achieved. Thats certainly the belief of many of those suffering from ME, who often live exceptionally stationary lives due to their condition. Some are bed-bound, quite literally, for decades.

Half of long COVID symptoms are basically equivalent to ME symptoms, says Chris Ponting, a professor at the University of Edinburghs Medical Research Council Human Genetics Unit and lead investigator of its Decode ME project.

If anyone is compensating for these lost years of ME research, its Ponting; he and his colleagues are currently conducting the largest study of ME ever undertaken. By analyzing the DNA samples of 25,000 patients, they hope to identify genetic markers that could underpin a persons susceptibility to the disease. With that information in hand, they could then both validate the existence of the malady and identify targets for future drugs to treat it.

We anticipate that well be able to find a bunch of places in our genomes that scream at us: immunology, or mitochondria or some neurological phenotype in the genome, says Ponting. Then, through joining up the dots, we can make an evidence-based, cogent explanation for what is going wrong.

It all sounds quite promising. But theres an obstacle to follow-up studies, the same one that prevented ME research for decades: funding. Our study was funded prior to the COVID-19 pandemic, Ponting says. There has not been further funding since then.

Contrary to the hopes of many in the ME community, the relative surge of interest in long COVID has not translated into a research boon for other fatigue-inducing, likely post-viral conditions, according to Ponting. There has been a shift in the dial in acceptance of ME, he notes, which has not translated to substantial research funding that this disease deserves.

And unfortunately, at the tail end of 2023, its not just ME thats being starved of vital research. The funding well for long COVID is drying up, too.

All of these scientists, theyre back in the usual hurdles that scientists go through to try and get research up and running in this country. There is no sense of urgency at all, says Margaret OHara, founder trustee of Long Covid Support, a UK-based charity supporting people with long COVID.

OHara liaises with researchers on behalf of the charity. Two years ago, many of the scientists she spoke to were getting their funding from the UKs National Institute for Health and Care Research (NIHR), which launched rounds of commissioned calls that were worth millions in 2021. Now those funding rounds are a distant memory.

Then NIHR said, Right, no more commission calls, says OHara. Long COVIDs not special anymore, and if you want money to research it, you [must] go through the usual channels for example, RFPB [Research for Patient Benefit] and you compete with all the other diseases.' So, what we find now is that [research grant applications] are just getting knocked back.

The situation seems much the same across the Atlantic. Remember that $1.15 billion the US NIH allocated to long COVID research? Well, its pretty much all been spent, largely on observational, characterization research, according to an analysis by STAT, and theres been no announcement of any follow-up funding, despite calls from US researchers. Some long COVID studies in the country have since relied on charitable donations to keep going.

Why has the money dried up? Fittingly, one could blame fatigue. There is a bitter feeling within the long COVID community that the rest of the world has grown tired of all things COVID and no longer wants to hear from or fund studies affecting those damaged by the virus.

We think theres a bit of a message coming from the top to say, Yeah, lets downplay long COVID because, you know, COVIDs over, says OHara.

Whether accurate or not, this sentiment that the top has lost interest in long COVID is a doubly frustrating one for those researching the disease because, right now, the field could really do with some leadership.

[There is] no coherent approach to studying long COVID. No coherent strategy, says Al-Aly. I liken it to if you have a bunch of musicians, and everybody is singing their own tune, and theres no conductor harmonizing all of this.

Al-Alys exasperation is shared by many of his fellow researchers. At a time of disappearing grants, many say the field needs a conductor some governing body with a comprehensive, coordinated plan of action.

We think there should be a coordinated effort by UKRI [UK Research and Innovation] to say, OK, long COVID is a disease of great interest and we need to coordinate responses, says OHara.

We need to put these scientists together so that theyre not all repeating the same thing.

OHara and her colleagues at Long Covid Support have been calling for this kind of managed response since 2020. The charity recently wrote to the UK government, recommending that it declare long COVID a public health emergency and prioritize research into treatments. These pleas have so far gone unheeded, which may be unsurprising given recent political revelations. In October 2020, when presented with the health departments first guidance on long COVID, the then prime minister Boris Johnson scrawled bo***cks, in capitals, on the document.

But this offensive dismissiveness from the top doesnt mean a top-down research strategy, if coordinated by health departments and research funders, is an impractical suggestion, researchers insist.

The funders will say thats up to the scientists to coordinate, says Ponting. And they would have a point; it has to be from the ground-up mostly rather than from the top-down. But top-down does work.

The response to mad cow disease did come from the top, he adds. There have been international efforts on many different diseases going back decades, including polio. So, the answer that it is up to the scientists to organize ourselves in a competitive world, where we compete for funding because theres so little of it, is missing part of what should happen, which is that we need coordination.

While all this disarray between researchers, funders and governments plays out, long COVID patients watch on, many despondent. Some are relatively new to the illness. Some have been coping with it for over three years with little improvement. Others have improved over time, gaining back enough physical capability to return to work. But this remission is fragile. According to a Long Covid Support survey of people who had recovered from the illness, 60% got long COVID again following a reinfection of COVID-19. This happened to Naima, twice.

To protect herself from worsening symptoms, Naima still practices strict infection protocols. She restricts her socializing. She wears a mask on public transport. She routinely tests for COVID-19 and asks others she sees to do the same. Shes still behaving like many people did in 2020. Without long COVID treatments, she cant afford to change her habits.

Ive been lucky in terms of my life beforehand, she says. I no longer feel that way. I live with fear every day of reinfection.

What does she make of the state of long COVID research, then? Does it give her hope for a return to a normal, fear-free future? Not quite. While she is part of a characterization study being conducted at Imperial College London, and is optimistic that such research will one day bear useful results, she says those who have been struggling with their long COVID for years need better outcomes now.

A lot of studies are moving on to: who is getting this? Im part of a study now with Imperial taking blood samples. Its just [about] understanding: why are we so greatly impacted by this? Is there a specific gene that we have? I think that [answer] would really go a long way to understanding this. And then, of course, treatments for people who have been suffering now for years

She pauses.

I think, because Ive had improvement, she adds. I have more hope because I know that I do have better points and worse points. But some people have not had any good moments; theyve been around for three years and had no improvement. I think we really need to be able to offer something to those people, to all of us.

Those interested in following Naimas journey of long COVID recovery can subscribe to her Substack journal.

For those living with long COVID, links to support groups and symptom management guides can be found at Long Covid Support.

Those with ME can find similar support resources at ME Association.

For those struggling with suicidal ideation in the UK, Papyrus and Samaritans offer 24/7 support. Those living in the US can call the 988 Suicide & Crisis Lifeline.

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Long COVID Research Is a Bit of a Mess - Technology Networks

Research Assistant/Research Associate in Immunology job with … – Times Higher Education

Job description

We are looking for a dynamic and motivated Research Assistant/Research Associate to join a team working on the links between the Immune System, Clonal Haematopoiesis and Ageing.

ARCH is an age-related phenomenon where individuals acquire mutations in their bone marrow and blood cells. In most cases, these mutations are not associated with clinically apparent haematological disease, but their presence correlates with an increased risk of developing chronic inflammatory diseases and blood cancers such as Myeloid Dysplastic Syndrome and Acute Myeloid Leukemia.

The post-holder will be based in the Immunohaematology-oncology Lab led by Dr. Giorgio Napolitani, and will apply Mass Cytometry and state-of-the-art immunological techniques to define the immune landscape in the Bone Marrow and the Peripheral Blood of individuals with or without ARCH. The aim of this project will to characterize abnormalities in immune cell populations which might underlie the increased risk of developing chronic inflammatory diseases and blood cancers in individual with ARCH. The successful applicant will be embedded in a team including immunologists, haematologists and bioinformaticians working at the interface between basic and translational immune-haematology.

The applicant will be expected to be a keen Immunologist with hands-on experience in immunological techniques (i.e. Flow Cytometry, isolation and culture of immune cells from patients samples) and will receive training in Mass Cytometry and single-cell RNA sequencing.

Both postgraduate (pre-doctoral) and post-doctoral candidates are welcome to apply. A successful postdoctoral candidate can expect to be paid at Grade 6.

Dr Napolitani is committed to helping promising researchers in developing their careers, and potential applicants are encouraged to contact him (giorgio.napolitani@kcl.ac.uk).

This post will be offered on a fixed-term contract initially until 30th June 2024, with the possibility of extension until 30th June 2025.

Relevant publications:

This post will be offered on an a fixed-term contract until 30th June 2024 with possibility of extension.

This is a full-time post 100% full time equivalent

Key responsibilities

The above list of responsibilities may not be exhaustive, and the post holder will be required to undertake such tasks and responsibilities as may reasonably be expected within the scope and grading of the post.

Skills, knowledge, and experience

Research Assistant (Grade 5)

Essential criteria

1.BSc/MSc in relevant biomedical or biological sciences.

2. At least 3 years of experience in immunology-focussed laboratory research

3. Experience in analysis of immune cells isolated from patients samples (e.g. flow cytometry, RNA-sequencing, imaging)

4. Ability to use initiative to efficiently plan, optimise and progress project and communicate findings

5. Extensive IT skills (including experience with flow cytometry analysis software and general data analysis software such as GraphPad Prism or Excel)

6. Excellent interpersonal and communication skills and ability to work with colleagues at all levels

7. Good written and spoken English

8. A willingness to contribute to the work of others by offering practical and intellectual help

Desirable criteria

1. Experience in multidimensional analysisof cytometry data

2. Experience in bioinformatics, good programming skills, including in R and python.

Research Associate (Grade 6)

Essential Criteria

1. PhD/Dphil (for Grade 6) in relevant biomedical or biological sciences.

2. At least 3 years of experience in immunology-focussed laboratory research

3. Experience in analysis of immune cells isolated from patients samples (e.g. flow cytometry, RNA-sequencing, imaging)

4. Ability to use initiative to efficiently plan, optimise and progress project and communicate findings

5. Extensive IT skills (including experience with flow cytometry analysis software and general data analysis software such as GraphPad Prism or Excel)

6. Excellent interpersonal and communication skills and ability to work with colleagues at all levels

7. Good written and spoken English

8. A willingness to contribute to the work of others by offering practical and intellectual help

Desirable criteria

1. Experience in multidimensional analysisof cytometry data

2. Experience in bioinformatics, good programming skills, including in R and python.

Further information

We would like the successful candidate to start as soon as possible after the job offer (latest 1/8/2023).

Planned interview dates: early June.

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Research Assistant/Research Associate in Immunology job with ... - Times Higher Education

Pioneering learning resource helps academic win top teaching award – Swansea University

Academic Tom Wilkinson has been honoured for helping to develop inspirational ways of teaching immunology to students during Covid.

Besides introducing immunology across all years and programmes, he was also part of the team which created a special set of resources for remote learning. This led to him being recognised at the British Society for Immunology (BSI) inaugural awards and named one of the two joint winners of the Teaching Excellence Award.

Dr Wilkinson, from Swansea University Medical School, played a key role in the development of the Wales Immunology Teaching Toolkit, a suite of resources designed to ensure students could learn the key immunology techniques and experimental procedures even when they were unable to be in the lab due to Covid.

One of these resources, a virtual flow cytometer, was so successful that it became a permanent feature of the course and is now available to be adopted across the UK and Ireland at other institutions.

Dr Wilkinson, who also leads the Universitys microbiology and infectious disease group, described his award as a great honour.

He said: I am really glad that the BSI recognised the importance of developing new simulation materials for improved immunology teaching at undergraduate level.

As with any award I am part of a team and would like to acknowledge the support of Dr Nigel Francis, from Cardiff University, and our gifted learning technologist Dave Ruckley at Swansea. Going forward we hope to further refine our teaching simulations whichwe published last year.

This would involve the use of the simulations at other universities in the UK, so that we can further learn about their role in undergraduate teaching.

While I enjoy the live interaction in lectures and practicals with the students, the pandemic meant we needed to find other ways to engage and encourage learning and these laboratory research-inspired simulations and resources will be useful aids to support students before they enter wet labs for the first time.

The BSI Immunology Awards celebrated the remarkable achievements of individuals and teams currently shaping the future of immunology with eleven winners revealed at a special ceremony.

BSI Chief Executive Doug Brown said: We are thrilled to recognise the achievements of these extraordinary individuals. Each of them dedicates their time and expertise to shaping the future of immunology, in many cases away from the limelight. Their efforts will ensure a brighter future for our field.

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Pioneering learning resource helps academic win top teaching award - Swansea University

12 Months of Treatment with EPIT Superior to Placebo in … – UNC Health and UNC School of Medicine

The study, called EPITOPE, led by senior author A. Wesley Burks, MD, CEO of UNC Health and dean of the UNC School of Medicine, and contributing author Edwin Kim, MD, MS, associate professor of pediatrics in the Division of Pediatric Allergy and Immunology at the UNC School of Medicine, shows superior results in desensitizing children to peanuts. Results were recently published in the New England Journal of Medicine.

Peanut allergy affects approximately two percent of children in the United States, Canada, and other westernized countries, with a rapidly rising prevalence over the past 20 years. Currently there are no FDA approved treatment options for peanut-allergic children under the age of 4 years, but further research into the safety, efficacy, and tolerability of epicutaneous immunotherapy (EPIT) could play a significant role in novel options for immunotherapy. The EPITOPE trial, led by senior author A. Wesley Burks, MD, CEO of UNC Health and dean of the UNC School of Medicine, evaluating the safety profile of Viaskin, a novel form of EPIT, among peanut-allergic toddlers shows that after 12 months of treatment in children aged 1-3 years, the treatment was found to be statistically superior to placebo in desensitizing participants to peanuts, increasing the peanut dose triggering allergic symptoms. Edwin Kim, MD, MS, associate professor of pediatrics in the Division of Pediatric Allergy and Immunology at the UNC School of Medicine is also a contributing author to the paper.

These are very encouraging results and move us closer to a treatment option for this increasingly prevalent and serious allergic condition, said Burks. We hope this will be available to patients in the not too distant future.

With feeding guidelines now recommending the introduction of peanut in the first year of life, we are diagnosing peanut allergy earlier and earlier, said Kim. The EPITOPE trial shows that the Viaskin peanut patch may not only be an effective treatment option but importantly a simple and safe option in this very young age group.

Published in the New England Journal of Medicine, results showed that more than one-third (37-percent) of Viaskin Peanut-treated participants in the EPITOPE trial, sponsored by DBV Technologies, a clinical-stage biopharmaceutical company, reached a cumulative reactive dose 3444 mg. Viaskin, a patch-based non-oral immunotherapy, is a potential new class of treatment that harnesses the immune properties of the skin. It has the potential to help modify individuals underlying food allergy by desensitizing the immune system to an allergen.Viaskin Peanut is currently under clinical investigation and is not yet approved by the U.S. Food and Drug Administration or any other regulatory agencies. If approved, Viaskin Peanut would provide an additional treatment option to offer patients and families for whom the standard of care aloneallergen avoidance and use of rescue medicationmay not be enough.

EPITOPE was a Phase 3, randomized, double-blind, placebo-controlled trial designed to allow participants to go about their normal daily activities without restrictions. After one year of treatment, Viaskin Peanut resulted in statistically superior desensitization compared with placebo, with treatment responder rates of 67.0% and 33.5%, respectively. Additionally, a shift towards less severe food challenge reactions was seen following 12 months of treatment. Similar to previous studies of Viaskin Peanut in children, the most common adverse events (AEs) were local application site reactions, which decreased in frequency and severity over time. Low rates of treatment-related anaphylaxis and epinephrine use were observed. This study demonstrated that 12 months of daily EPIT with a patch containing 250 g peanut protein (1/1000th of one peanut) was sufficient to decrease the likelihood of experiencing an allergic reaction following accidental peanut exposure. Viaskin Peanut was well-tolerated by a majority of participants and had low discontinuations due to AEs and high compliance rates.

UNC School of Medicine contact: Brittany Phillips

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12 Months of Treatment with EPIT Superior to Placebo in ... - UNC Health and UNC School of Medicine