home.social

#antimicrobialresistance — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #antimicrobialresistance, aggregated by home.social.

  1. 🧫 Over-prescription of antibiotics is a major contributor to the rise in #AMR. IMI project VALUE-Dx investigated whether point-of-care (POC) testing could reduce antibiotic prescription.
    💊The result? Having POC tests available did not lead to a reduction in prescriptions, and both clinician and patient perspectives play an important role in antibiotic prescriptions.
    👉 link.europa.eu/DDgnw7

    #IHITransformingHealth #HorizonEU #health #research #AntimicrobialResistance

  2. 🧫 Over-prescription of antibiotics is a major contributor to the rise in #AMR. IMI project VALUE-Dx investigated whether point-of-care (POC) testing could reduce antibiotic prescription.
    💊The result? Having POC tests available did not lead to a reduction in prescriptions, and both clinician and patient perspectives play an important role in antibiotic prescriptions.
    👉 link.europa.eu/DDgnw7

    #IHITransformingHealth #HorizonEU #health #research #AntimicrobialResistance

  3. 🧫 Over-prescription of antibiotics is a major contributor to the rise in #AMR. IMI project VALUE-Dx investigated whether point-of-care (POC) testing could reduce antibiotic prescription.
    💊The result? Having POC tests available did not lead to a reduction in prescriptions, and both clinician and patient perspectives play an important role in antibiotic prescriptions.
    👉 link.europa.eu/DDgnw7

    #IHITransformingHealth #HorizonEU #health #research #AntimicrobialResistance

  4. 🧫 Over-prescription of antibiotics is a major contributor to the rise in #AMR. IMI project VALUE-Dx investigated whether point-of-care (POC) testing could reduce antibiotic prescription.
    💊The result? Having POC tests available did not lead to a reduction in prescriptions, and both clinician and patient perspectives play an important role in antibiotic prescriptions.
    👉 link.europa.eu/DDgnw7

    #IHITransformingHealth #HorizonEU #health #research #AntimicrobialResistance

  5. 🧫 Over-prescription of antibiotics is a major contributor to the rise in #AMR. IMI project VALUE-Dx investigated whether point-of-care (POC) testing could reduce antibiotic prescription.
    💊The result? Having POC tests available did not lead to a reduction in prescriptions, and both clinician and patient perspectives play an important role in antibiotic prescriptions.
    👉 link.europa.eu/DDgnw7

    #IHITransformingHealth #HorizonEU #health #research #AntimicrobialResistance

  6. 🦠 Could we outsmart antibiotic resistance by turning bacteria against themselves?

    🔗 Rational Targeting and gRNA Design for Enhancing Quorum Quenching in Pseudomonas aeruginosa PAO1. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0089

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #AntimicrobialResistance #AMR #CRISPR #GeneEditing #SyntheticBiology #SystemsBiology #Microbiology #Biotechnology #DrugResistance #QuorumSensing #Biofilms #Genomics

  7. 🦠 Could we outsmart antibiotic resistance by turning bacteria against themselves?

    🔗 Rational Targeting and gRNA Design for Enhancing Quorum Quenching in Pseudomonas aeruginosa PAO1. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0089

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #AntimicrobialResistance #AMR #CRISPR #GeneEditing #SyntheticBiology #SystemsBiology #Microbiology #Biotechnology #DrugResistance #QuorumSensing #Biofilms #Genomics

  8. 🦠 Could we outsmart antibiotic resistance by turning bacteria against themselves?

    🔗 Rational Targeting and gRNA Design for Enhancing Quorum Quenching in Pseudomonas aeruginosa PAO1. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0089

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #AntimicrobialResistance #AMR #CRISPR #GeneEditing #SyntheticBiology #SystemsBiology #Microbiology #Biotechnology #DrugResistance #QuorumSensing #Biofilms #Genomics

  9. 🦠 Could we outsmart antibiotic resistance by turning bacteria against themselves?

    🔗 Rational Targeting and gRNA Design for Enhancing Quorum Quenching in Pseudomonas aeruginosa PAO1. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0089

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #AntimicrobialResistance #AMR #CRISPR #GeneEditing #SyntheticBiology #SystemsBiology #Microbiology #Biotechnology #DrugResistance #QuorumSensing #Biofilms #Genomics

  10. 🦠 Could we outsmart antibiotic resistance by turning bacteria against themselves?

    🔗 Rational Targeting and gRNA Design for Enhancing Quorum Quenching in Pseudomonas aeruginosa PAO1. Computational and Structural Biotechnology Journal (CSBJ). DOI: doi.org/10.34133/csbj.0089

    📚 CSBJ - A Science Partner Journal: spj.science.org/journal/csbj

    #AntimicrobialResistance #AMR #CRISPR #GeneEditing #SyntheticBiology #SystemsBiology #Microbiology #Biotechnology #DrugResistance #QuorumSensing #Biofilms #Genomics

  11. Great to see AI4Health researchers Anisia Talianu, Oskar Fraser-Krauss and Ollie Pitts at the “AI for Antibiotic Resistance” symposium in Uppsala, Sweden. Invited by DDLS (Sweden) with support from the UK Science and Technology Network, the event highlighted how we are building new collaborations across the Centre’s AI4Health work, connecting expertise across disciplines and borders to drive real-world impact and better patient outcomes.
    #AI4Health #UKRI #AntimicrobialResistance #AMR

  12. Is antibacterial or regular hand soap best for killing germs?

    Cleaning up our disinfectants: usage of antimicrobial biocides in direct-to-consumer products in Australia Open Access

    "In supermarkets and chemists worldwide, consumers are faced with an array of antimicrobial domestic cleaning and personal hygiene products purporting to kill germs and keep people safe. Many of these proven active ingredients (biocides) encourage the development of antimicrobial resistance (AMR) in microbes and microbial populations, in turn increasing the likelihood of AMR infections. In order to understand and address the selective pressure towards AMR posed by the unrestricted use of biocides, it is necessary to understand which biocides are most frequently found in consumer products and the current regulatory framework that governs their use. In this research we survey the biocidal active ingredients in the major categories of cleaning and personal care products available from supermarkets and pharmacies in Australia, and comment on the regulations that dictate how these products are tested and marketed. Benzalkonium chloride and ethanol were the two most prevalent antimicrobial biocides in this study, while triclosan, which is banned in several jurisdictions, was found in a small number of products. In Australia, many antimicrobial consumer products are regulated for efficacy and safety under the Therapeutic Goods Act, but the potential to drive microbial adaptation and AMR is not considered. Overall this survey underscores the broad use and light regulation of antimicrobial biocides in products available to the general public in Australia, and provides an information resource to inform further research and stewardship efforts." >>
    microbiologyresearch.org/conte

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

  13. Is antibacterial or regular hand soap best for killing germs?

    Cleaning up our disinfectants: usage of antimicrobial biocides in direct-to-consumer products in Australia Open Access

    "In supermarkets and chemists worldwide, consumers are faced with an array of antimicrobial domestic cleaning and personal hygiene products purporting to kill germs and keep people safe. Many of these proven active ingredients (biocides) encourage the development of antimicrobial resistance (AMR) in microbes and microbial populations, in turn increasing the likelihood of AMR infections. In order to understand and address the selective pressure towards AMR posed by the unrestricted use of biocides, it is necessary to understand which biocides are most frequently found in consumer products and the current regulatory framework that governs their use. In this research we survey the biocidal active ingredients in the major categories of cleaning and personal care products available from supermarkets and pharmacies in Australia, and comment on the regulations that dictate how these products are tested and marketed. Benzalkonium chloride and ethanol were the two most prevalent antimicrobial biocides in this study, while triclosan, which is banned in several jurisdictions, was found in a small number of products. In Australia, many antimicrobial consumer products are regulated for efficacy and safety under the Therapeutic Goods Act, but the potential to drive microbial adaptation and AMR is not considered. Overall this survey underscores the broad use and light regulation of antimicrobial biocides in products available to the general public in Australia, and provides an information resource to inform further research and stewardship efforts." >>
    microbiologyresearch.org/conte

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

  14. Is antibacterial or regular hand soap best for killing germs?

    Cleaning up our disinfectants: usage of antimicrobial biocides in direct-to-consumer products in Australia Open Access

    "In supermarkets and chemists worldwide, consumers are faced with an array of antimicrobial domestic cleaning and personal hygiene products purporting to kill germs and keep people safe. Many of these proven active ingredients (biocides) encourage the development of antimicrobial resistance (AMR) in microbes and microbial populations, in turn increasing the likelihood of AMR infections. In order to understand and address the selective pressure towards AMR posed by the unrestricted use of biocides, it is necessary to understand which biocides are most frequently found in consumer products and the current regulatory framework that governs their use. In this research we survey the biocidal active ingredients in the major categories of cleaning and personal care products available from supermarkets and pharmacies in Australia, and comment on the regulations that dictate how these products are tested and marketed. Benzalkonium chloride and ethanol were the two most prevalent antimicrobial biocides in this study, while triclosan, which is banned in several jurisdictions, was found in a small number of products. In Australia, many antimicrobial consumer products are regulated for efficacy and safety under the Therapeutic Goods Act, but the potential to drive microbial adaptation and AMR is not considered. Overall this survey underscores the broad use and light regulation of antimicrobial biocides in products available to the general public in Australia, and provides an information resource to inform further research and stewardship efforts." >>
    microbiologyresearch.org/conte

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

  15. Is antibacterial or regular hand soap best for killing germs?

    Cleaning up our disinfectants: usage of antimicrobial biocides in direct-to-consumer products in Australia Open Access

    "In supermarkets and chemists worldwide, consumers are faced with an array of antimicrobial domestic cleaning and personal hygiene products purporting to kill germs and keep people safe. Many of these proven active ingredients (biocides) encourage the development of antimicrobial resistance (AMR) in microbes and microbial populations, in turn increasing the likelihood of AMR infections. In order to understand and address the selective pressure towards AMR posed by the unrestricted use of biocides, it is necessary to understand which biocides are most frequently found in consumer products and the current regulatory framework that governs their use. In this research we survey the biocidal active ingredients in the major categories of cleaning and personal care products available from supermarkets and pharmacies in Australia, and comment on the regulations that dictate how these products are tested and marketed. Benzalkonium chloride and ethanol were the two most prevalent antimicrobial biocides in this study, while triclosan, which is banned in several jurisdictions, was found in a small number of products. In Australia, many antimicrobial consumer products are regulated for efficacy and safety under the Therapeutic Goods Act, but the potential to drive microbial adaptation and AMR is not considered. Overall this survey underscores the broad use and light regulation of antimicrobial biocides in products available to the general public in Australia, and provides an information resource to inform further research and stewardship efforts." >>
    microbiologyresearch.org/conte

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

  16. Is antibacterial or regular hand soap best for killing germs?

    Cleaning up our disinfectants: usage of antimicrobial biocides in direct-to-consumer products in Australia Open Access

    "In supermarkets and chemists worldwide, consumers are faced with an array of antimicrobial domestic cleaning and personal hygiene products purporting to kill germs and keep people safe. Many of these proven active ingredients (biocides) encourage the development of antimicrobial resistance (AMR) in microbes and microbial populations, in turn increasing the likelihood of AMR infections. In order to understand and address the selective pressure towards AMR posed by the unrestricted use of biocides, it is necessary to understand which biocides are most frequently found in consumer products and the current regulatory framework that governs their use. In this research we survey the biocidal active ingredients in the major categories of cleaning and personal care products available from supermarkets and pharmacies in Australia, and comment on the regulations that dictate how these products are tested and marketed. Benzalkonium chloride and ethanol were the two most prevalent antimicrobial biocides in this study, while triclosan, which is banned in several jurisdictions, was found in a small number of products. In Australia, many antimicrobial consumer products are regulated for efficacy and safety under the Therapeutic Goods Act, but the potential to drive microbial adaptation and AMR is not considered. Overall this survey underscores the broad use and light regulation of antimicrobial biocides in products available to the general public in Australia, and provides an information resource to inform further research and stewardship efforts." >>
    microbiologyresearch.org/conte

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

  17. Is antibacterial or regular hand soap best for killing germs?

    Washing hands after using the toilet or patting a dog before a meal is crucial to remove feces-borne bacteria and germs. After COVID the message got through to most people. When one is in town looking for a public amenity or a cafe toilet, it is rare to find hot water, hand soap and a clean (paper) towel. But there is always a toilet spray in 1001 fragrance varieties.

    In the absence of the ingredients for basic hand hygiene there is always a free plastic bottle of hand sanitizer since the last pandemic. Staff at grocers, bakers and cafes copiously cover their hands in the "antibacterial" and "antiseptic" products. Every product or packaging absorbs the persistent fragrance of the bought items and travels back into the home. The cost-effective chemical 'solution' does not substitute for hot water, soap and a towel.

    "Professor Griffin says products claiming to kill bacteria are "not necessarily substantiated as being any better than just usual soap and water would be...These additives can be harsh and lead to dryness and cracked skin, which can create a pathway for germs to enter the body."

    'Regular hand soap is very effective in removing potentially harmful pathogens (bacteria, viruses, fungi, and parasites), according to our experts. So, using that water, soap and that pneumatic action to get all of the dirt and grime from your hands and then rinsing is going to be more than adequate to keep you healthy."

    "Our experts say there have also been studies suggesting that the use of soaps with antimicrobial additives can contribute to antibiotic resistance, which is problematic." >>
    abc.net.au/news/2026-03-18/ant

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

    Image: Fumbling dogs before lunch, Bellingen

  18. Is antibacterial or regular hand soap best for killing germs?

    Washing hands after using the toilet or patting a dog before a meal is crucial to remove feces-borne bacteria and germs. After COVID the message got through to most people. When one is in town looking for a public amenity or a cafe toilet, it is rare to find hot water, hand soap and a clean (paper) towel. But there is always a toilet spray in 1001 fragrance varieties.

    In the absence of the ingredients for basic hand hygiene there is always a free plastic bottle of hand sanitizer since the last pandemic. Staff at grocers, bakers and cafes copiously cover their hands in the "antibacterial" and "antiseptic" products. Every product or packaging absorbs the persistent fragrance of the bought items and travels back into the home. The cost-effective chemical 'solution' does not substitute for hot water, soap and a towel.

    "Professor Griffin says products claiming to kill bacteria are "not necessarily substantiated as being any better than just usual soap and water would be...These additives can be harsh and lead to dryness and cracked skin, which can create a pathway for germs to enter the body."

    'Regular hand soap is very effective in removing potentially harmful pathogens (bacteria, viruses, fungi, and parasites), according to our experts. So, using that water, soap and that pneumatic action to get all of the dirt and grime from your hands and then rinsing is going to be more than adequate to keep you healthy."

    "Our experts say there have also been studies suggesting that the use of soaps with antimicrobial additives can contribute to antibiotic resistance, which is problematic." >>
    abc.net.au/news/2026-03-18/ant

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

    Image: Fumbling dogs before lunch, Bellingen

  19. Is antibacterial or regular hand soap best for killing germs?

    Washing hands after using the toilet or patting a dog before a meal is crucial to remove feces-borne bacteria and germs. After COVID the message got through to most people. When one is in town looking for a public amenity or a cafe toilet, it is rare to find hot water, hand soap and a clean (paper) towel. But there is always a toilet spray in 1001 fragrance varieties.

    In the absence of the ingredients for basic hand hygiene there is always a free plastic bottle of hand sanitizer since the last pandemic. Staff at grocers, bakers and cafes copiously cover their hands in the "antibacterial" and "antiseptic" products. Every product or packaging absorbs the persistent fragrance of the bought items and travels back into the home. The cost-effective chemical 'solution' does not substitute for hot water, soap and a towel.

    "Professor Griffin says products claiming to kill bacteria are "not necessarily substantiated as being any better than just usual soap and water would be...These additives can be harsh and lead to dryness and cracked skin, which can create a pathway for germs to enter the body."

    'Regular hand soap is very effective in removing potentially harmful pathogens (bacteria, viruses, fungi, and parasites), according to our experts. So, using that water, soap and that pneumatic action to get all of the dirt and grime from your hands and then rinsing is going to be more than adequate to keep you healthy."

    "Our experts say there have also been studies suggesting that the use of soaps with antimicrobial additives can contribute to antibiotic resistance, which is problematic." >>
    abc.net.au/news/2026-03-18/ant

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

    Image: Fumbling dogs before lunch, Bellingen

  20. Is antibacterial or regular hand soap best for killing germs?

    Washing hands after using the toilet or patting a dog before a meal is crucial to remove feces-borne bacteria and germs. After COVID the message got through to most people. When one is in town looking for a public amenity or a cafe toilet, it is rare to find hot water, hand soap and a clean (paper) towel. But there is always a toilet spray in 1001 fragrance varieties.

    In the absence of the ingredients for basic hand hygiene there is always a free plastic bottle of hand sanitizer since the last pandemic. Staff at grocers, bakers and cafes copiously cover their hands in the "antibacterial" and "antiseptic" products. Every product or packaging absorbs the persistent fragrance of the bought items and travels back into the home. The cost-effective chemical 'solution' does not substitute for hot water, soap and a towel.

    "Professor Griffin says products claiming to kill bacteria are "not necessarily substantiated as being any better than just usual soap and water would be...These additives can be harsh and lead to dryness and cracked skin, which can create a pathway for germs to enter the body."

    'Regular hand soap is very effective in removing potentially harmful pathogens (bacteria, viruses, fungi, and parasites), according to our experts. So, using that water, soap and that pneumatic action to get all of the dirt and grime from your hands and then rinsing is going to be more than adequate to keep you healthy."

    "Our experts say there have also been studies suggesting that the use of soaps with antimicrobial additives can contribute to antibiotic resistance, which is problematic." >>
    abc.net.au/news/2026-03-18/ant

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

    Image: Fumbling dogs before lunch, Bellingen

  21. Is antibacterial or regular hand soap best for killing germs?

    Washing hands after using the toilet or patting a dog before a meal is crucial to remove feces-borne bacteria and germs. After COVID the message got through to most people. When one is in town looking for a public amenity or a cafe toilet, it is rare to find hot water, hand soap and a clean (paper) towel. But there is always a toilet spray in 1001 fragrance varieties.

    In the absence of the ingredients for basic hand hygiene there is always a free plastic bottle of hand sanitizer since the last pandemic. Staff at grocers, bakers and cafes copiously cover their hands in the "antibacterial" and "antiseptic" products. Every product or packaging absorbs the persistent fragrance of the bought items and travels back into the home. The cost-effective chemical 'solution' does not substitute for hot water, soap and a towel.

    "Professor Griffin says products claiming to kill bacteria are "not necessarily substantiated as being any better than just usual soap and water would be...These additives can be harsh and lead to dryness and cracked skin, which can create a pathway for germs to enter the body."

    'Regular hand soap is very effective in removing potentially harmful pathogens (bacteria, viruses, fungi, and parasites), according to our experts. So, using that water, soap and that pneumatic action to get all of the dirt and grime from your hands and then rinsing is going to be more than adequate to keep you healthy."

    "Our experts say there have also been studies suggesting that the use of soaps with antimicrobial additives can contribute to antibiotic resistance, which is problematic." >>
    abc.net.au/news/2026-03-18/ant

    #pathogens #handwashing #culture #HygieneProducts #biocide #disinfectant #antiseptic #AntimicrobialResistance #AntibioticResistance #fragrance #allergy #FragranceFree #perfume

    Image: Fumbling dogs before lunch, Bellingen

  22. Remember: only take #antibiotics 💊 a health professional has prescribed to YOU. We can stop the spread of #AntimicrobialResistance.

  23. Effective policy is our best protection against #AntimicrobialResistance (#AMR). From fully funding National Action Plans to investing in surveillance, #OneHealth systems, and innovation, every policy decision counts. Share with us the priority your government should act on! 🔗bit.ly/AMRweek2025

  24. #AntimicrobialResistance (AMR) is rising, making common infections harder to treat & threatening decades of medical progress. Health workers are essential to protecting antimicrobials: - Diagnose first - Prescribe smart - Optimize treatment - Educate and document Learn more! 🔗bit.ly/4r1bUK

  25. 🚨 Misusing antibiotics can affect everyone. #AntimicrobialResistance (#AMR) occurs when bacteria, viruses, fungi and parasites no longer respond to medicines. Drug-resistant bacteria can spread and make infections harder to treat. Let’s handle antibiotics with care. Learn more 👉bit.ly/AMRweek2025

  26. Antibiotics don’t treat colds or flu. These illnesses are usually caused by viruses and are mostly self-limiting, whereas antibiotics only work on bacteria. ✅ Let’s handle antibiotics with care and keep these life-saving medicines effective. Learn more 👉bit.ly/AMRweek2025 #AntimicrobialResistance

  27. It’s World #AMR Awareness Week. Did you know misusing antibiotics leads to drug resistance and side effects? Learn about #AntimicrobialResistance (AMR) 👉bit.ly/AMRweek2025

  28. How #NatureBased Solutions Can Help Tackle #AntimicrobialResistance

    by Paula Pérez González-Anguiano Europe Mar 17th 20254 mins

    "In many European countries, antimicrobial resistance genes are present in #wastewater treatment plants, particularly in water coming from hospitals. In most cases, these plants are not designed to eliminate these genes, allowing them to pollute rivers and eventually reach homes. Antibiotics and resistance genes used to fertilize fields also make their way into aquatic ecosystems via livestock manure.

    "A global survey published in Nature in 2024 revealed that drug-resistant infections killed more individuals than Human Immunodeficiency Virus (HIV) or malaria. It is estimated that by 2050, antimicrobial resistance (#AMR) – which occurs when bacteria and fungi evolve to withstand the drugs meant to eliminate them, allowing infections to persist and become difficult or even impossible to treat – could cause up to 10 million deaths. This is comparable to the number of deaths caused by cancer in 2020.

    "Nature-based solutions are strategies that involve working with nature to address societal challenges, providing benefits for both human well-being and biodiversity. Examples include reforestation to absorb carbon and prevent erosion, wetland restoration for water filtration and flood control, green roofs to cool cities and reduce pollution, mangrove protection to protect coasts, and agroforestry to enhance soil health and crop yields. These solutions improve biodiversity, water quality, and disaster risk while also boosting human well-being through cleaner air and greener spaces.

    "Wastewater from urban treatment plants contains #biofilm – mainly bacteria and microalgae – as well as planktonic communities that absorb antibiotic-resistance genes and mobile genetic elements. Biofilm naturally forms on stones in the water and helps purify it by breaking down these contaminants.

    "Inspired by this natural process, researchers from BETA Technological Centre in Catalonia, Spain, have developed a lab-based pilot-scale system as a nature-based solution. In the plant, wastewater is recirculated in a bioreactor, allowing biofilm and planktonic communities to grow. Within a few days, the water is purified. This low-cost approach is particularly suitable for small-town treatment plants. The bioreactor would be placed at the plant’s outlet, where nutrient levels support biofilm growth, serving as a tertiary water treatment step.

    "The European Union-funded SURE-AMR project is also looking at ways to tackle AMR with nature-based solutions in regions like Ukraine. The Eastern European country is facing a growing AMR problem exacerbated by war. Now, The European Union is confronting a growing challenge with Antimicrobial Resistance (AMR), which is being further exacerbated by the war in neighboring Ukraine.

    "The project started in October 2024 with Ukraine as leader and other partner institutions in Germany, Italy, Poland and Spain. Among the solutions assessed in the initiative are duckweed bioreactors in the outlet of a water treatment plant. Duckweed is an aquatic plant capable of removing nutrients like nitrogen and phosphorus, bacteria, and antibiotic residues from water.

    "The second solution assessed, as a second stage of water purification, mimics a river ecosystem with biofilm channels and snails. Biofilms feed on contaminants like AMR genes, reducing their presence in water. Snails contribute by feeding on excess biofilm, preventing overgrowth, and consuming organic debris and algae, further refining the purification process. The process finishes with constructed wetlands for final purification.

    "This approach reduces operational costs, making water treatment more accessible in resource-limited areas. It also enhances climate resilience and strengthens ecosystems by developing natural infrastructures (duckweed bioreactors and biofilm channels) that protect water sources, while addressing AMR to protect public health and prevent transmission."

    Read more:
    earth.org/how-nature-based-sol

    #SolarPunkSunday #WaterTreatment #AntimicrobialResistance #NatureBasedSolutions

  29. How #NatureBased Solutions Can Help Tackle #AntimicrobialResistance

    by Paula Pérez González-Anguiano Europe Mar 17th 20254 mins

    "In many European countries, antimicrobial resistance genes are present in #wastewater treatment plants, particularly in water coming from hospitals. In most cases, these plants are not designed to eliminate these genes, allowing them to pollute rivers and eventually reach homes. Antibiotics and resistance genes used to fertilize fields also make their way into aquatic ecosystems via livestock manure.

    "A global survey published in Nature in 2024 revealed that drug-resistant infections killed more individuals than Human Immunodeficiency Virus (HIV) or malaria. It is estimated that by 2050, antimicrobial resistance (#AMR) – which occurs when bacteria and fungi evolve to withstand the drugs meant to eliminate them, allowing infections to persist and become difficult or even impossible to treat – could cause up to 10 million deaths. This is comparable to the number of deaths caused by cancer in 2020.

    "Nature-based solutions are strategies that involve working with nature to address societal challenges, providing benefits for both human well-being and biodiversity. Examples include reforestation to absorb carbon and prevent erosion, wetland restoration for water filtration and flood control, green roofs to cool cities and reduce pollution, mangrove protection to protect coasts, and agroforestry to enhance soil health and crop yields. These solutions improve biodiversity, water quality, and disaster risk while also boosting human well-being through cleaner air and greener spaces.

    "Wastewater from urban treatment plants contains #biofilm – mainly bacteria and microalgae – as well as planktonic communities that absorb antibiotic-resistance genes and mobile genetic elements. Biofilm naturally forms on stones in the water and helps purify it by breaking down these contaminants.

    "Inspired by this natural process, researchers from BETA Technological Centre in Catalonia, Spain, have developed a lab-based pilot-scale system as a nature-based solution. In the plant, wastewater is recirculated in a bioreactor, allowing biofilm and planktonic communities to grow. Within a few days, the water is purified. This low-cost approach is particularly suitable for small-town treatment plants. The bioreactor would be placed at the plant’s outlet, where nutrient levels support biofilm growth, serving as a tertiary water treatment step.

    "The European Union-funded SURE-AMR project is also looking at ways to tackle AMR with nature-based solutions in regions like Ukraine. The Eastern European country is facing a growing AMR problem exacerbated by war. Now, The European Union is confronting a growing challenge with Antimicrobial Resistance (AMR), which is being further exacerbated by the war in neighboring Ukraine.

    "The project started in October 2024 with Ukraine as leader and other partner institutions in Germany, Italy, Poland and Spain. Among the solutions assessed in the initiative are duckweed bioreactors in the outlet of a water treatment plant. Duckweed is an aquatic plant capable of removing nutrients like nitrogen and phosphorus, bacteria, and antibiotic residues from water.

    "The second solution assessed, as a second stage of water purification, mimics a river ecosystem with biofilm channels and snails. Biofilms feed on contaminants like AMR genes, reducing their presence in water. Snails contribute by feeding on excess biofilm, preventing overgrowth, and consuming organic debris and algae, further refining the purification process. The process finishes with constructed wetlands for final purification.

    "This approach reduces operational costs, making water treatment more accessible in resource-limited areas. It also enhances climate resilience and strengthens ecosystems by developing natural infrastructures (duckweed bioreactors and biofilm channels) that protect water sources, while addressing AMR to protect public health and prevent transmission."

    Read more:
    earth.org/how-nature-based-sol

    #SolarPunkSunday #WaterTreatment #AntimicrobialResistance #NatureBasedSolutions

  30. How #NatureBased Solutions Can Help Tackle #AntimicrobialResistance

    by Paula Pérez González-Anguiano Europe Mar 17th 20254 mins

    "In many European countries, antimicrobial resistance genes are present in #wastewater treatment plants, particularly in water coming from hospitals. In most cases, these plants are not designed to eliminate these genes, allowing them to pollute rivers and eventually reach homes. Antibiotics and resistance genes used to fertilize fields also make their way into aquatic ecosystems via livestock manure.

    "A global survey published in Nature in 2024 revealed that drug-resistant infections killed more individuals than Human Immunodeficiency Virus (HIV) or malaria. It is estimated that by 2050, antimicrobial resistance (#AMR) – which occurs when bacteria and fungi evolve to withstand the drugs meant to eliminate them, allowing infections to persist and become difficult or even impossible to treat – could cause up to 10 million deaths. This is comparable to the number of deaths caused by cancer in 2020.

    "Nature-based solutions are strategies that involve working with nature to address societal challenges, providing benefits for both human well-being and biodiversity. Examples include reforestation to absorb carbon and prevent erosion, wetland restoration for water filtration and flood control, green roofs to cool cities and reduce pollution, mangrove protection to protect coasts, and agroforestry to enhance soil health and crop yields. These solutions improve biodiversity, water quality, and disaster risk while also boosting human well-being through cleaner air and greener spaces.

    "Wastewater from urban treatment plants contains #biofilm – mainly bacteria and microalgae – as well as planktonic communities that absorb antibiotic-resistance genes and mobile genetic elements. Biofilm naturally forms on stones in the water and helps purify it by breaking down these contaminants.

    "Inspired by this natural process, researchers from BETA Technological Centre in Catalonia, Spain, have developed a lab-based pilot-scale system as a nature-based solution. In the plant, wastewater is recirculated in a bioreactor, allowing biofilm and planktonic communities to grow. Within a few days, the water is purified. This low-cost approach is particularly suitable for small-town treatment plants. The bioreactor would be placed at the plant’s outlet, where nutrient levels support biofilm growth, serving as a tertiary water treatment step.

    "The European Union-funded SURE-AMR project is also looking at ways to tackle AMR with nature-based solutions in regions like Ukraine. The Eastern European country is facing a growing AMR problem exacerbated by war. Now, The European Union is confronting a growing challenge with Antimicrobial Resistance (AMR), which is being further exacerbated by the war in neighboring Ukraine.

    "The project started in October 2024 with Ukraine as leader and other partner institutions in Germany, Italy, Poland and Spain. Among the solutions assessed in the initiative are duckweed bioreactors in the outlet of a water treatment plant. Duckweed is an aquatic plant capable of removing nutrients like nitrogen and phosphorus, bacteria, and antibiotic residues from water.

    "The second solution assessed, as a second stage of water purification, mimics a river ecosystem with biofilm channels and snails. Biofilms feed on contaminants like AMR genes, reducing their presence in water. Snails contribute by feeding on excess biofilm, preventing overgrowth, and consuming organic debris and algae, further refining the purification process. The process finishes with constructed wetlands for final purification.

    "This approach reduces operational costs, making water treatment more accessible in resource-limited areas. It also enhances climate resilience and strengthens ecosystems by developing natural infrastructures (duckweed bioreactors and biofilm channels) that protect water sources, while addressing AMR to protect public health and prevent transmission."

    Read more:
    earth.org/how-nature-based-sol

    #SolarPunkSunday #WaterTreatment #AntimicrobialResistance #NatureBasedSolutions

  31. How #NatureBased Solutions Can Help Tackle #AntimicrobialResistance

    by Paula Pérez González-Anguiano Europe Mar 17th 20254 mins

    "In many European countries, antimicrobial resistance genes are present in #wastewater treatment plants, particularly in water coming from hospitals. In most cases, these plants are not designed to eliminate these genes, allowing them to pollute rivers and eventually reach homes. Antibiotics and resistance genes used to fertilize fields also make their way into aquatic ecosystems via livestock manure.

    "A global survey published in Nature in 2024 revealed that drug-resistant infections killed more individuals than Human Immunodeficiency Virus (HIV) or malaria. It is estimated that by 2050, antimicrobial resistance (#AMR) – which occurs when bacteria and fungi evolve to withstand the drugs meant to eliminate them, allowing infections to persist and become difficult or even impossible to treat – could cause up to 10 million deaths. This is comparable to the number of deaths caused by cancer in 2020.

    "Nature-based solutions are strategies that involve working with nature to address societal challenges, providing benefits for both human well-being and biodiversity. Examples include reforestation to absorb carbon and prevent erosion, wetland restoration for water filtration and flood control, green roofs to cool cities and reduce pollution, mangrove protection to protect coasts, and agroforestry to enhance soil health and crop yields. These solutions improve biodiversity, water quality, and disaster risk while also boosting human well-being through cleaner air and greener spaces.

    "Wastewater from urban treatment plants contains #biofilm – mainly bacteria and microalgae – as well as planktonic communities that absorb antibiotic-resistance genes and mobile genetic elements. Biofilm naturally forms on stones in the water and helps purify it by breaking down these contaminants.

    "Inspired by this natural process, researchers from BETA Technological Centre in Catalonia, Spain, have developed a lab-based pilot-scale system as a nature-based solution. In the plant, wastewater is recirculated in a bioreactor, allowing biofilm and planktonic communities to grow. Within a few days, the water is purified. This low-cost approach is particularly suitable for small-town treatment plants. The bioreactor would be placed at the plant’s outlet, where nutrient levels support biofilm growth, serving as a tertiary water treatment step.

    "The European Union-funded SURE-AMR project is also looking at ways to tackle AMR with nature-based solutions in regions like Ukraine. The Eastern European country is facing a growing AMR problem exacerbated by war. Now, The European Union is confronting a growing challenge with Antimicrobial Resistance (AMR), which is being further exacerbated by the war in neighboring Ukraine.

    "The project started in October 2024 with Ukraine as leader and other partner institutions in Germany, Italy, Poland and Spain. Among the solutions assessed in the initiative are duckweed bioreactors in the outlet of a water treatment plant. Duckweed is an aquatic plant capable of removing nutrients like nitrogen and phosphorus, bacteria, and antibiotic residues from water.

    "The second solution assessed, as a second stage of water purification, mimics a river ecosystem with biofilm channels and snails. Biofilms feed on contaminants like AMR genes, reducing their presence in water. Snails contribute by feeding on excess biofilm, preventing overgrowth, and consuming organic debris and algae, further refining the purification process. The process finishes with constructed wetlands for final purification.

    "This approach reduces operational costs, making water treatment more accessible in resource-limited areas. It also enhances climate resilience and strengthens ecosystems by developing natural infrastructures (duckweed bioreactors and biofilm channels) that protect water sources, while addressing AMR to protect public health and prevent transmission."

    Read more:
    earth.org/how-nature-based-sol

    #SolarPunkSunday #WaterTreatment #AntimicrobialResistance #NatureBasedSolutions

  32. How #NatureBased Solutions Can Help Tackle #AntimicrobialResistance

    by Paula Pérez González-Anguiano Europe Mar 17th 20254 mins

    "In many European countries, antimicrobial resistance genes are present in #wastewater treatment plants, particularly in water coming from hospitals. In most cases, these plants are not designed to eliminate these genes, allowing them to pollute rivers and eventually reach homes. Antibiotics and resistance genes used to fertilize fields also make their way into aquatic ecosystems via livestock manure.

    "A global survey published in Nature in 2024 revealed that drug-resistant infections killed more individuals than Human Immunodeficiency Virus (HIV) or malaria. It is estimated that by 2050, antimicrobial resistance (#AMR) – which occurs when bacteria and fungi evolve to withstand the drugs meant to eliminate them, allowing infections to persist and become difficult or even impossible to treat – could cause up to 10 million deaths. This is comparable to the number of deaths caused by cancer in 2020.

    "Nature-based solutions are strategies that involve working with nature to address societal challenges, providing benefits for both human well-being and biodiversity. Examples include reforestation to absorb carbon and prevent erosion, wetland restoration for water filtration and flood control, green roofs to cool cities and reduce pollution, mangrove protection to protect coasts, and agroforestry to enhance soil health and crop yields. These solutions improve biodiversity, water quality, and disaster risk while also boosting human well-being through cleaner air and greener spaces.

    "Wastewater from urban treatment plants contains #biofilm – mainly bacteria and microalgae – as well as planktonic communities that absorb antibiotic-resistance genes and mobile genetic elements. Biofilm naturally forms on stones in the water and helps purify it by breaking down these contaminants.

    "Inspired by this natural process, researchers from BETA Technological Centre in Catalonia, Spain, have developed a lab-based pilot-scale system as a nature-based solution. In the plant, wastewater is recirculated in a bioreactor, allowing biofilm and planktonic communities to grow. Within a few days, the water is purified. This low-cost approach is particularly suitable for small-town treatment plants. The bioreactor would be placed at the plant’s outlet, where nutrient levels support biofilm growth, serving as a tertiary water treatment step.

    "The European Union-funded SURE-AMR project is also looking at ways to tackle AMR with nature-based solutions in regions like Ukraine. The Eastern European country is facing a growing AMR problem exacerbated by war. Now, The European Union is confronting a growing challenge with Antimicrobial Resistance (AMR), which is being further exacerbated by the war in neighboring Ukraine.

    "The project started in October 2024 with Ukraine as leader and other partner institutions in Germany, Italy, Poland and Spain. Among the solutions assessed in the initiative are duckweed bioreactors in the outlet of a water treatment plant. Duckweed is an aquatic plant capable of removing nutrients like nitrogen and phosphorus, bacteria, and antibiotic residues from water.

    "The second solution assessed, as a second stage of water purification, mimics a river ecosystem with biofilm channels and snails. Biofilms feed on contaminants like AMR genes, reducing their presence in water. Snails contribute by feeding on excess biofilm, preventing overgrowth, and consuming organic debris and algae, further refining the purification process. The process finishes with constructed wetlands for final purification.

    "This approach reduces operational costs, making water treatment more accessible in resource-limited areas. It also enhances climate resilience and strengthens ecosystems by developing natural infrastructures (duckweed bioreactors and biofilm channels) that protect water sources, while addressing AMR to protect public health and prevent transmission."

    Read more:
    earth.org/how-nature-based-sol

    #SolarPunkSunday #WaterTreatment #AntimicrobialResistance #NatureBasedSolutions

  33. Postdoctoral Research Associate
    University of Liverpool

    We are looking for a highly motivated postdoctoral researcher to mechanistically characterise pathogenic kinase signalling by Legionella pneumophila

    See the full job description on jobRxiv: jobrxiv.org/job/university-of-

    #antimicrobialresistance #BasicdrugDiscovery #cellsignal...
    jobrxiv.org/job/university-of-

  34. 🦠 Antimicrobial resistance is outpacing advances in modern medicine, threatening the health of families worldwide, says the @WHO

    @Swinburne @MCRI_for_kids @UniversitySA @ANUmedia @UniMelb @PeterMacCC @UQ_News @Uni_Newcastle @TheKids_AU experts respond

    ✨Follow the link in our bio for more information and to read the commentary✨
    scimex.org/newsfeed/widespread

    #science #research #stem #facts #knowledge #sciencefacts #antimicrobialresistance

  35. We often hear about overprescribing and misuse of antibiotics. But what about the antibiotics that make their way into other places of the body beyond infection sites?

    In my new article for #TheMicrobialMenagerie, I dive into a recently published paper about how eliminating these "off target" antibiotics can help reduce #AntimicrobialResistance.

    microbialmenagerie.com/curbing