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A study found that daily drinking of  tea (either black tea/oolong or green tea) is associated with a lower risk of "neurocognitive disorders" - in cognitive impairment in women, and in a lower risk of Alzheimer's disease in both men and women who are genetically predisposed to the disease (apolipoprotein E (APOE) genotype) - when compared to those who never or rarely drank tea. The researchers called long-term daily tea drinking as "neuroprotective".

The study followed 957 residents of Singapore for several years. All were "cognitively normal" when the study started (average age 64 1/2 years), but 72 people or 7.5% had developed neurocognitive disorders by the second follow-up (after 4 years). The study found that there was a dose-dependent relationship - the more tea that was drunk daily, the more protective it appeared to be. And it was most protective in those who consistently drank tea at both time points - when the study started and till the end. However, there was a gender difference - it seemed to protect women from neurocognitive disorders, but not men. But in those who were genetically predisposed to Alzheimer's - tea drinking was protective for both males and females. Further studies will follow up to see if the gender difference holds - they couldn't explain it.

The researchers also point out that tea drinking has a long history in Chinese culture as an natural "attention enhancer" and strong tea is drunk as to maintain alertness and concentration. Sounds a lot like why people drink coffee. From Medical Xpress:

Daily consumption of tea protects the elderly from cognitive decline

Tea drinking reduces the risk of cognitive impairment in older persons by 50 per cent and as much as 86 per cent for those who are genetically at risk of Alzheimer's. A cup of tea a day can keep dementia away, and this is especially so for those who are genetically predisposed to the debilitating disease, according to a recent study led by Assistant Professor Feng Lei from the Department of Psychological Medicine at National University of Singapore's (NUS) Yong Loo Lin School of Medicine. The longitudinal study involving 957 Chinese seniors aged 55 years or older has found that regular consumption of tea lowers the risk of cognitive decline in the elderly by 50 per cent, while APOE e4 gene carriers who are genetically at risk of developing Alzheimer's disease may experience a reduction in cognitive impairment risk by as much as 86 per cent.

He added, "Based on current knowledge, this long term benefit of tea consumption is due to the bioactive compounds in tea leaves, such as catechins, theaflavins, thearubigins and L-theanine. These compounds exhibit anti-inflammatory and antioxidant potential and other bioactive properties that may protect the brain from vascular damage and neurodegeneration. Our understanding of the detailed biological mechanisms is still very limited so we do need more research to find out definitive answers.

Image result for wheat bread wikipedia Low gluten or gluten-free diets are a necessity for those suffering from Celiac disease or who are gluten intolerant. But low gluten diets are also followed by many people who do not have these diseases simply because they think it may be healthier for them. But is it healthier? Two recent studies raise health concerns about low gluten or gluten-free dietsGluten is a protein found in wheat, rye and barley.

The first study found that people who eat a low gluten or gluten-free diet are at risk for increased exposure to arsenic and mercury (which are toxic metals that can lead to cardiovascular disease, cancer and neurological effects). This is because gluten-free products often contain rice flour, which is used as a substitute for wheat. Rice is known to bioaccumulate certain toxic metals, including arsenic and mercury from fertilizers, soil, or water. People who reported eating gluten-free had higher concentrations of arsenic in their urine, and mercury in their blood, than those who did not. The arsenic levels were almost twice as high for people eating a gluten-free diet, and mercury levels were 70 percent higher. Unfortunately the U.S. does not have regulations for arsenic exposure in foods (but Europe does).

The second study found that a low-gluten diet may  raise the risk of type 2 diabetes. Diets higher in gluten were associated with a lower risk of developing type 2 diabetes. In the study, those who ate less gluten also tended to eat less cereal fiber which is known to be protective against developing type 2 diabetes.

From Science Daily: Gluten-free diet may increase risk of arsenic, mercury exposure

People who eat a gluten-free diet may be at risk for increased exposure to arsenic and mercury -- toxic metals that can lead to cardiovascular disease, cancer and neurological effects, according to a report in the journal Epidemiology. Gluten-free diets have become popular in the U.S., although less than 1 percent of Americans have been diagnosed with celiac disease -- an out-of-control immune response to gluten, a protein found in wheat, rye and barley. A gluten-free diet is recommended for people with celiac disease, but others often say they prefer eating gluten-free because it reduces inflammation -- a claim that has not been scientifically proven. In 2015, one-quarter of Americans reported eating gluten-free, a 67 percent increase from 2013.

They found 73 participants who reported eating a gluten-free diet among the 7,471 who completed the survey, between 2009 and 2014. Participants ranged in age from 6 to 80 years old. People who reported eating gluten-free had higher concentrations of arsenic in their urine, and mercury in their blood, than those who did not. The arsenic levels were almost twice as high for people eating a gluten-free diet, and mercury levels were 70 percent higher.

For Science Daily: Low gluten diets linked to higher risk of type 2 diabetes

Eating more gluten may be associated with a lower risk of developing Type 2 diabetes, according to research presented at the American Heart Association's Epidemiology and Prevention / Lifestyle and Cardiometabolic Health 2017 Scientific Sessions....In this long-term observational study, researchers found that most participants had gluten intake below 12 grams/day, and within this range, those who ate the most gluten had lower Type 2 diabetes risk during thirty years of follow-up. Study participants who ate less gluten also tended to eat less cereal fiber, a known protective factor for Type 2 diabetes development.

After further accounting for the potential effect of cereal fiber, individuals in the highest 20 percent of gluten consumption had a 13 percent lower risk of developing Type 2 diabetes in comparison to those with the lowest daily gluten consumption (approximately fewer than 4 grams).

Image result for volunteers working wikipedia Is volunteering good for you? People volunteer to benefit others, but there has been some debate over whether volunteer activities also benefit the volunteers. A multi-country European study found that volunteering is associated with better self-rated health and also household income when compared to people who don't volunteer. The volunteers had a health score which was equivalent to being 5 years younger than those who did not volunteer.

People were interviewed and asked “How is your health in general?” The participants could choose from five categories ranging from “very bad” to “very good” - so the people themselves rated their health. This way how people rated their own health might include “physical, mental and social well-being", thus including health indicators that are hard to measure - such as pain, suffering, or depression. The researchers found that volunteer activities are also associated with a higher household income, but note that other studies find that a higher household income is associated with better health. All these are associations in this study - can't say that one causes the other (causal). The researchers themselves say that after analyzing the data, the results show that the association between volunteering and self-rated health is stronger (a "direct association") than the "indirect" association with household income.

The overall rate of people participating in volunteer activities was 24.1%., while 75.9% did not participate in volunteer activities, but this varied from country to country. For example, in Germany, the Netherlands and Norway more than 40% of people volunteered, but in Bulgaria, Hungary and Lithuania fewer than 10% engaged in volunteering activities. From Science Daily:

Volunteers are in better health than non-volunteers

Researchers of Ghent University analysed data on volunteering, employment and health of more than 40,000 European citizens. Their results, just published in PLOS ONE, show that volunteering is associated with better employment and health outcomes. Even after controlling for other determinants of health (gender, age, education level, migrant status, religiosity and country of origin), volunteers are substantially in better health than non-volunteers. Doctoral researcher Jens Detollenaere: “This association is comparable in size to the health gains of being a man, being five years younger or being a native (compared to being a migrant).”....Volunteers have, after controlling for the aforementioned personal characteristics, a higher income and this higher income is associated with better health.

The researchers put forward three other explanations for an association between volunteering and health. Professor Sara Willems: “Firstly, volunteering may improve access to psychological resources (such as self-esteem and self-efficacy) and social resources (such as social integration and access to support and information), both of which are found to have an overall positive effect on health. Secondly, volunteering increases physical and cognitive activity, which protects against functional decline and dementia in old age. Finally, neuroscience research has related volunteering to the release of the caregiving-related hormones oxytocin and progesterone, which have the capacity to regulate stress and inflammation.”

The research results are based on data from the sixth round of the European Social Survey (conducted in 2012 and 2013). This survey measures the beliefs, preferences and behaviour of more than 40000 citizens of 29 European countries....[Original study.]

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Last week a person told an amazing story in the comments section after a post on this site. After suffering from a "constant runny nose and a bad smell" in the nose for 2 years - which was diagnosed as "fungi and staph" in the sinuses - the person started doing "kimchi treatments" (as discussed in the Sinusitis Treatment Summary page). After 2 weeks a fungal ball was loosened, which came out of the sinuses and into the mouth, and was then spit out. About an inch in size - a smelly, grey/green, round fungal ball. Wow. Which leads to the question: Are any of the microbes in live kimchi anti-fungal?

Kimchi is an amazing live fermented food, typically made with cabbage and other vegetables and a variety of seasonings. Kimchi is the national dish of Korea and so there is tremendous interest in Korea in studying kimchi to learn about the many different microbial species in kimchi, including how they change over the course of fermentation.

It turns out that kimchi contains many species of bacteria, including various species of Lactobacillus - which are considered beneficial. Of course one of the species found in kimchi over the course of fermentation is Lactobacillus sakei - the bacteria that successfully treats sinusitis, and which I have written about extensively. L. sakei predominates over pathogenic bacteria (antibacterial) - which is why it is also used as a sausage starter culture (to kill off bacteria such as Listeria). One study found that the garlic, ginger, and leek used in making kimchi were the sources of L. sakei bacteria found in fermented kimchi.

Studies show that a number of the Lactobacillus species found in kimchi are antifungal against a number of different kinds of fungi.  Some of these antifungal bacteria are: Lactobacillus plantarum, L. cruvatus, L. lactis, L. casei, L. pentosus, L. acidophilus, and L. sakei (here, here).

A study from 2005 found that some Lactobacillus species found in kimchi are predominant over a fungi known to cause health problems in humans - Aspergillus fumigatus, a mold (fungi) which is the most common cause of Aspergillus infections. Aspergillus (of which there are many species) is very common both indoors and outdoors (on plants, soil, rotting plants, household dust, etc.), so people typically breathe in these fungal spores daily and without any negative effects. However, sometimes Aspergillus can cause allergic reactions, infections in the lungs and sinuses (including fungal balls), and other infections. (more information at CDC site).

The study found that 5 bacterial species in kimchi were also antifungal against other species of fungi (Aspergillus flavus, Fusarium moniliforme, Penicillium commune, and Rhizopus oryzae). The 5 bacterial species in kimchi that they found to be antifungal were: Lactobacillus cruvatus, L. lactis subsp. lactis, L. casei, L. pentosus, and L. sakei.

Just keep in mind that fungi are everywhere around us, and even part of the microbes that live in and on us - this is our mycobiome. We also breathe in a variety of fungi (mold spores) every day. In healthy individuals (even babies) all the microbes (bacteria, viruses, fungi, etc) live in balanced microbial communities, but the communities can become "out of whack" (dysbiosis) for various reasons, and microbes that formerly co-existed peacefully can multiply and become problematic.

If the populations get too unbalanced (e.g., antibiotics can kill off bacteria, and then an increase in fungi populations take their place) then ordinarily non-harmful fungi can become pathogenic. Or other pathogenic microbes can enter the community (e.g., through infection), and the person becomes ill.

IN SUMMARY: Kimchi has beneficial bacteria in it that are effective not just against bacteria (antibacterial), but also against some kinds of fungi (antifungal). One 2016 review study went so far as to say: "Kimchi possesses anti-inflammatory, antibacterial, antioxidant, anticancer, antiobesity, probiotic properties, cholesterol reduction, and antiaging properties."

Experiences of my family and people writing suggest that the L. sakei in kimchi (and other products) is also antibiofilm. Hopefully, there will be some research on this in the future. But in the meantime, please keep writing to me about fungal complications of sinusitis, and especially if kimchi, L. sakei products, or other probiotics helped.

Once again the Mediterranean diet is linked to health benefits - this time a 40% lower incidence of certain types of breast cancer in postmenopausal women. Following a Mediterranean style diet has been linked in earlier studies to various health benefits, such as lower rates of heart disease, lower rates of early death, and certain cancers.

A strength of this study is that so many (62,573) Dutch postmenopausal women were followed for a long time (about 20 years). Their diet was analyzed, especially how closely it matched the Mediterranean diet or not. Since alcohol is a risk factor for breast cancer, and dose-related - it was not included as part of the Mediterranean diet in this study. The study found that following a Mediterranean diet with higher consumption of nuts, fruits, vegetables, and whole grains, appeared to be protective against certain breast cancers - it was associated with a reduced risk of estrogen receptor–negative (ER-) breast cancers. Unfortunately the researchers did not look at olive oil use in this study, because when it started in 1986, it was not typically used in the Netherlands. However, another good study found extra virgin olive oil to be a protective part (against breast cancer) of the Mediterranean diet. From Medscape:

Mediterranean Diet Cuts Some Breast Cancer Risk by 40%

Closely following a Mediterranean diet in everyday life may significantly reduce the risk for types of breast cancer that are associated with poorer prognoses in postmenopausal women, new research indicates. The traditional Mediterranean diet is characterized by a high intake of plant proteins, whole grains, fish, and monounsaturated fat, as well as moderate alcohol intake and low intake of refined grains, red meat, and sweets, say the study authors, led by Piet A. van den Brandt, PhD, an epidemiologist at the Maastricht University Medical Center in the Netherlands.

The new findings come from 62,573 Dutch women aged 55 to 69 years who provided information on dietary and lifestyle habits in 1986 and have since been followed for more than 20 years....The investigators found that women who most closely adhered to a Mediterranean diet had a 40% reduced risk for estrogen receptor–negative (ER-) breast cancer compared to women who adhered to the diet the least. They found a 39% reduced risk for progesterone receptor–negative (PR-)/ER- disease when comparing these same high- and low-adherence groups. Notably, in these results, the definition of the diet excluded alcohol intake, because the consumption of alcohol is a known risk factor for breast cancer....The authors also report that there were no significant associations with the diet and the risk of ER+ disease or total breast cancer.

Dr van den Brandt also explained that older women, who were the subjects of the new study, are more likely to derive benefit than younger women. "Generally speaking, postmenopausal breast cancer seems somewhat more influenced by environmental factors, such as lifestyle and diet, than premenopausal breast cancer, where genetic factors seem to play a more prominent role," he told Medscape Medical News.

Dr Toledo was the senior author of the only large, randomized trial to date in which postmenopausal women were assigned to a dietary intervention to promote their adherence to the traditional Mediterranean diet (JAMA Intern Med. 2015;175:1752–60). The study found that women with a higher adherence to the diet (supplemented with extra-virgin olive oil) showed a substantial reduction of their risk for breast cancer compared to a control group, as reported by Medscape Medical News.

A new study was published that supports eating lots of blueberries (or drinking blueberry juice) for health - this time better brain functioning in people aged 65 to 77 who drank concentrated blueberry juice daily for 12 weeks. The people randomly assigned to the group drinking blueberry juice daily showed improvements in cognitive function, blood flow to the brain, and activation of the brain while carrying out cognitive tests. The people received MRIs (magnetic resonance imaging), as well as various blood tests and cognitive tests.

And how much did they drink of the juice daily? Thirty ml or 1 ounce of blueberry concentrate (which provided 387 mg anthocyanins) which was diluted with tap water. Anthocyanins are anti-oxidants that belong to a class of compounds called flavonoids, and are found in high concentrations in blueberries, cherries, and plums. The blueberry concentrate amount was equivalent to about 230 grams of blueberries - about 1 1/3 cups blueberries.

What was good about the study was that to eliminate bias people were both randomly assigned to the blueberry juice group or a placebo group (they drank a synthetic fruit cordial) - and it was "double-blind" so that no one knew who was in which group. Interestingly, people who were already eating more than 5 portions of fruits daily were excluded from the study - because so many other studies have already found all sorts of brain benefits from a diet with lots of fruits and berries. But the main conclusion from this and other related research is: eating lots of berries is good for you and has health benefits. From Medical Xpress:

Blueberry concentrate improves brain function in older people

Drinking concentrated blueberry juice improves brain function in older people, according to research by the University of Exeter. In the study, healthy people aged 65-77 who drank concentrated blueberry juice every day showed improvements in cognitive function, blood flow to the brain and activation of the brain while carrying out cognitive tests. There was also evidence suggesting improvement in working memory. Blueberries are rich in flavonoids, which possess antioxidant and anti-inflammatory properties.

Of the 26 healthy adults in the study, 12 were given concentrated blueberry juice - providing the equivalent of 230 g of blueberries - once a day, while 14 received a placebo. Before and after the 12-week period, participants took a range of cognitive tests while an MRI scanner monitored their brain function and resting brain blood flow was measured. Compared to the placebo group, those who took the blueberry supplement showed significant increases in brain activity in brain areas related to the tests. The study excluded anyone who said they consumed more than five portions of fruit and vegetables per day, and all participants were told to stick to their normal diet throughout. [Original study.]

Image result for apple tree wikipedia This post continues the discussion of antibiotics and their overuse. Antibiotic resistance is increasing due to misuse of antibiotics (or antimicrobials), and this is occurring throughout the world (post with video of how superbugs evolve). This is because bacteria are constantly evolving against the antibiotics they're exposed to. We may reach a point where simple cuts or infections could lead to death because no antibiotics will work. The World Health Organization (WHO) in 2016 said that bacterial resistance to antibiotics is “one of the biggest threats to global health." Especially scary are the bacteria resistant to numerous antibiotics - the superbugs

According to the CDC: "Each year in the United States, at least 2 million people become infected with bacteria that are resistant to antibiotics and at least 23,000 people die each year as a direct result of these infections."

Part of the problem is that farmers are still giving antibiotics (antimicrobials) to farm animals unnecessarily, typically as "growth promoters" or to try to prevent disease. Currently about 80% of all antibiotics used in the US are given to livestock animals (of which nearly 70 percent of those used are considered “medically important” for humans). But what is typically ignored is that farmers also use antibiotics, or antimicrobials, on crops (plant agriculture). In both instances - conventional farming uses antibiotics, but NOT organic farming. Another reason to support organic farming and to eat organic foods.

The nonprofit organization Beyond Pesticides has just released a report discussing antibiotic use in conventional farming (both crops and animals), and how this is contributing to "bacterial resistance to critical life-saving human medicines", and also how organic farming does not use antibiotics. The report discusses that while antibiotic use in animal agriculture is widely acknowledged as harmful, the use of antibiotics in conventional crop production is also harmful. Antibiotics are used because plants can get bacterial diseases (e.g.,bacterial canker, soft rot, and bacterial wilt) The report even discusses fish farming, how antibiotics are used routinely in seafood imported from other countries, and also how some fungicides are used as antibiotics (to "manage" or kill bacteria).

What antibiotics are used in agriculture? For starters - glyphosate (in the pesticide Roundup), which is the most widely used pesticide in the world. Glyphosate is patented by its manufacturer (Monsanto) for its antibacterial properties - thus an antibiotic. As a result, glyphosate is the most widely used antibiotic in agriculture and around homes, gardens, schools, and communities in the U.S. Other antibiotics used widely in farming (especially for fruit trees) are oxytetracycline and streptomycin - which are used in the production of apples, pears, peaches, beans, celery, peppers, tomatoes, and potatoes. The government allows antibiotic residues to remain on the foods ("tolerances for residues on foods") when we buy them in grocery stores.

The report also points out that: The main health impacts of antibiotic residues in food are the promotion of antibiotic resistance and disruption of the microbiota in the human gut. Which means that the microbial communities in our gut can be affected in a negative way. It's well worth reading the 7 page easy to read report - with lots of photos, graphs, and good explanations. Beyond Pesticides: Agricultural Uses of Antibiotics Escalate Bacterial Resistance

Could this be true? Probiotics for seasonal allergies? A study by Univ. of Florida researchers reported that taking a combination probiotic of Lactobacillus gasseri, Bifidobacterium bifidum, and Bifidobacterium longum (sold as Kyo-Dophilus) for 8 weeks during spring allergy season resulted in an improvement in seasonal allergy symptoms. It must be noted that the people participating had mild seasonal allergies, not severe allergies. While they reported overall allergy symptom improvement, there was no significant improvement with eye symptoms. Too bad, because for those suffering from itchy eyes, it is a symptom that causes anguish during allergy season.

All participants had their stool (fecal) samples tested (with modern genetic sequencing) and it was found that the group taking the probiotic supplements had a beneficial shift in their overall microorganisms in the gut - with some bacteria such as Escherichia coli decreasing and the very beneficial and anti-inflammatory bacteria Faecalibacterium prausnitzii increasing. (See posts here and here on F. prausnitzii.) What was really good about the study was that it was a "double-blind, randomized clinical trial", meaning that people were randomly  assigned to the probiotic treatment or placebo group, and no one knew who was getting a placebo or the probiotic until the end of the study. The researchers say that why the probiotics improved allergy symptoms is s till not clear, but they have some theories. From Science Daily:

Allergies? Probiotic combination may curb your symptoms, new study finds

As we head into allergy season, you may feel less likely to grab a hanky and sneeze. That's because new University of Florida research shows a probiotic combination might help reduce hay fever symptoms, if it's taken during allergy season. Many published studies have shown a probiotic's ability to regulate the body's immune response to allergies, but not all of the probiotics show a benefit, UF researchers say. Scientists already know that the probiotic combination of lactobacilli and bifidobacteria, sold as Kyo-Dophilus in stores, helps maintain digestive health and parts of the immune system. They suspect that probiotics might work by increasing the human body's percentage of regulatory T-cells, which in turn might increase tolerance to hay fever symptoms.

UF researchers wanted to know if the components in this combination probiotic would help alleviate allergy symptoms. To do that, they enrolled 173 healthy adults who said they suffered seasonal allergies and randomly split them into two groups: Some took the combination probiotic; others took a placebo. Each week during the eight-week experiment, participants responded to an online survey to convey their discomfort level. Scientists also analyzed DNA from participants' stool samples to determine how their bacteria changed, because probiotics aim to deliver good bacteria to the human's intestinal system.

Participants who took the probiotic reported improvements in quality of life, compared to those taking the placebo, the study showed. For example, participants suffered fewer allergy-related nose symptoms, which meant that they were less troubled during daily activities. Researchers note that this study did not include severe allergy sufferers. But the combination of probiotics showed clinical benefit for those with more mild seasonal allergies, Langkamp-Henken said. [Original study.]

It's now 4 years being free of chronic sinusitis and off all antibiotics! Four amazing years since I (and then the rest of my family) started using easy do-it-yourself sinusitis treatments containing the probiotic (beneficial bacteria) Lactobacillus sakei. My sinuses feel great! And yes, it still feels miraculous.

After reading the original ground-breaking research on sinusitis done by Abreu et al (2012), it led to finding and trying L. sakei as a sinusitis treatment. Of course, there is an entire community of microbes (bacteria, fungi, viruses) that live in healthy sinuses - the sinus microbiome - but L. sakei seems to be a key one for sinus health.

I just updated the post The One Probiotic That Treats Sinusitis (originally posted January 2015) using my family's experiences (lots of self-experimentation!) and all the information that people have sent me. The post has a list of brands and products with L. sakei, treatment results, as well as information about some other promising probiotics (beneficial bacteria). Thank you so much!

Thank you all who have written to me  - whether publicly or privately. Please keep writing and tell me what has worked or hasn't worked for you as a sinusitis treatment. If you find another bacteria or microbe or product that works for you - please let me know. It all adds to the sinusitis treatment knowledge base. I will keep posting updates. 

(NOTE: I wrote our background story - Sinusitis Treatment Story back in December 2013, there is also an updated  Sinusitis Treatment Summary page with the various treatment methods quickly discussed, and latest information on everything: The Best Probiotic For Sinus Infections. One can also click on SINUSITIS under CATEGORIES to see more posts about what is going on in the world of sinusitis research.)

Image result for Acinetobacter baumannii Many posts on this blog are about beneficial microbes, and the many species of microbes (bacteria, fungi, viruses) living within and on us. But there are also bacteria in the world that pose a serious threat to human health, and the list of these are growing due to antibiotic resistance. This week the World Health Organization (WHO) officials came out with a list of a dozen antibiotic-resistant "priority pathogens" that pose the greatest threats to human health. These are bacteria resistant to multiple antibiotics - thus superbugs.

Antibiotic resistance is increasing due to misuse of antibiotics (or antimicrobials), and this is occurring throughout the world (post with video of how superbugs evolve). This is because bacteria are constantly evolving against the antibiotics they're exposed to. We may reach a point where simple cuts or infections could lead to death because no antibiotics will work. The World Health Organization said in a 2014 report that: "The problem is so serious that it threatens the achievements of modern medicine. A post-antibiotic era—in which common infections and minor injuries can kill—far from being an apocalyptic fantasy, is instead a very real possibility for the twenty-first century."

Part of the problem is that farmers are still giving antibiotics (antimicrobials) to farm animals unnecessarily, typically as "growth promoters" or to try to prevent disease. Currently about 80% of all antibiotics used in the US are given to livestock animals (of which nearly 70 percent of those used are considered “medically important” for humans).

New antibiotic development is not keeping pace with the emergence of new antibiotic resistant bacteria. According to the CDC: "Each year in the United States, at least 2 million people become infected with bacteria that are resistant to antibiotics and at least 23,000 people die each year as a direct result of these infections."

According to WHO officials "The bacteria on the list are responsible for severe infections and high mortality rates mostly in hospitalized patients, transplant recipients, those receiving chemotherapy or patients in intensive care units." They have also been seen in our hospitalized and returning military service people. The WHO list is meant to steer public and private research dollars toward developing new antibiotics for these particular families of bacteria. Pharmaceutical companies currently lack financial incentives to develop new drugs aimed at these superbugs. Currently too few new antibiotics are under development. From World Health Organization:

WHO publishes list of bacteria for which new antibiotics are urgently needed

WHO today published its first ever list of antibiotic-resistant "priority pathogens" – a catalogue of 12 families of bacteria that pose the greatest threat to human health. The list was drawn up in a bid to guide and promote research and development (R&D) of new antibiotics, as part of WHO’s efforts to address growing global resistance to antimicrobial medicines. The list highlights in particular the threat of gram-negative bacteria that are resistant to multiple antibiotics. These bacteria have built-in abilities to find new ways to resist treatment and can pass along genetic material that allows other bacteria to become drug-resistant as well.....The WHO list is divided into three categories according to the urgency of need for new antibiotics: critical, high and medium priority.

The most critical group of all includes multidrug resistant bacteria that pose a particular threat in hospitals, nursing homes, and among patients whose care requires devices such as ventilators and blood catheters. They include Acinetobacter, Pseudomonas and various Enterobacteriaceae (including Klebsiella, E. coli, Serratia, and Proteus). They can cause severe and often deadly infections such as bloodstream infections and pneumonia. These bacteria have become resistant to a large number of antibiotics, including carbapenems and third generation cephalosporins – the best available antibiotics for treating multi-drug resistant bacteria. The second and third tiers in the list – the high and medium priority categories – contain other increasingly drug-resistant bacteria that cause more common diseases such as gonorrhoea and food poisoning caused by salmonella.

WHO priority pathogens list for R&D of new antibiotics: Priority 1: CRITICALAcinetobacter baumannii, carbapenem-resistant, Pseudomonas aeruginosa, carbapenem resistant, Enterobacteriaceae, carbapenem-resistant, ESBL-producing. Priority 2: HIGHEnterococcus faecium, vancomycin-resistant, Staphylococcus aureus, methicillin-resistant, vancomycin-intermediate and resistant, Helicobacter pylori, clarithromycin-resistant, Campylobacter spp., fluoroquinolone-resistant, Salmonellae, fluoroquinolone-resistant, Neisseria gonorrhoeae, cephalosporin-resistant, fluoroquinolone-resistant. Priority 3: MEDIUM Streptococcus pneumoniae, penicillin-non-susceptible, Haemophilus influenzae, ampicillin-resistant, Shigella spp., fluoroquinolone-resistant.

Image result for Acinetobacter baumannii Acinetobacter baumannii  Credit: Centers for Disease Control and Prevention (CDC)