MIT scientists discover how the brain spins back into focus-Click HereSunflowers may be the future of “vegan meat”-Click HereAlzheimer’s might be powered by a broken sleep-wake cycle-Click HereBreakthrough blood test finally confirms Chronic Fatigue Syndrome-Click HereGum disease may quietly damage the brain, scientists warn-Click HereScientists reverse Alzheimer’s in mice with groundbreaking nanotech-Click HereIt sounds creepy, but these scientific breakthroughs could save lives-Click HereYour pumpkin might be hiding a toxic secret-Click HereA revolutionary DNA search engine is speeding up genetic discovery-Click HereWhy women live longer than men, explained by evolution-Click HereSports concussions increase injury risk-Click HereUncovering a cellular process that leads to inflammation-Click HereNew study links contraceptive pills and depression-Click HereA short snout predisposes dogs to sleep apnea-Click HereBuilding a new vaccine arsenal to eradicate polio-Click HereThe Viking disease can be due to gene variants inherited from Neanderthals-Click HereQatar Omicron-wave study shows slow decline of natural immunity, rapid decline of vaccine immunity-Click HereMore than a quarter of people with asthma still over-using rescue inhalers, putting them at increased risk of severe attacks-Click hereProgress on early detection of Alzheimer’s disease-Click HereDried samples of saliva and fingertip blood are useful in monitoring responses to coronavirus vaccines-Click HereDietary fiber in the gut may help with skin allergies-Click HereResearchers discover mechanism linking mutations in the ‘dark matter’ of the genome to cancer-Click HereDespite dire warnings, monarch butterfly numbers are solid-Click HereImmunotherapy may get a boost-Click HereArtificial intelligence reveals a never-before described 3D structure in rotavirus spike protein-Click HereRecurring brain tumors shaped by genetic evolution and microenvironment-Click HereCompound shows promise for minimizing erratic movements in Parkinson’s patients-Click HereConsuming fruit and vegetables and exercising can make you happier-Click HereCOVID-19 slows birth rate in US, Europe-Click HereLink between ADHD and dementia across generations-Click HerePreventing the long-term effects of traumatic brain injury-Click HereStudy details robust T-cell response to mRNA COVID-19 vaccines — a more durable source of protection-Click HereArtificial color-changing material that mimics chameleon skin can detect seafood freshness-Click HereNeural implant monitors multiple brain areas at once, provides new neuroscience insights-Click HereB cell activating factor possible key to hemophilia immune tolerance-Click HereMasks not enough to stop COVID-19’s spread without distancing, study finds-Click HereAI can detect COVID-19 in the lungs like a virtual physician, new study shows-Click HerePhase 1 human trials suggest breast cancer drug is safe, effective-Click HereRe-engineered enzyme could help reverse damage from spinal cord injury and stroke-Click HereWeight between young adulthood and midlife linked to early mortality-Click HereIncreased fertility for women with Neanderthal gene, study suggests-Click HereCoronavirus testing kits to be developed using RNA imaging technology-Click HereFacial expressions don’t tell the whole story of emotion-Click HereAcid reflux drug is a surprising candidate to curb preterm birth-Click HereTreating Gulf War Illness With FDA-Approved Antiviral Drugs-Click HereHeart patch could limit muscle damage in heart attack aftermath-Click HereA nap a day keeps high blood pressure at bay-Click HereIn small groups, people follow high-performing leaders-Click HereTick tock: Commitment readiness predicts relationship success-Click HereA comprehensive ‘parts list’ of the brain built from its components, the cells-Click HereResearchers confine mature cells to turn them into stem cells-Click HereNew tissue-imaging technology could enable real-time diagnostics, map cancer progression-Click HereEverything big data claims to know about you could be wrong-Click HerePsychedelic drugs promote neural plasticity in rats and flies-Click HereEducation linked to higher risk of short-sightedness-Click HereNew 3D printer can create complex biological tissues-Click HereThe creative brain is wired differently-Click HereWomen survive crises better than men-Click HerePrecise DNA editing made easy: New enzyme to rewrite the genome-Click HereFirst Time-Lapse Footage of Cell Activity During Limb RegenerationStudy Suggests Approach to Waking Patients After Surgery

Superbugs: Antibiotic Resistance

0

SAN ANTONIO, Texas. (Ivanhoe Newswire)— The COVID-19 virus has infected four million people in the U.S. and killed more than 150,000. But even as corona weakens patients’ immune systems, secondary illnesses like pneumonia are forcing doctors to increase the use of antibiotics for these bacterial infections. Commonly called, ‘superbugs’, these antibiotic-resistant germs, aided by overuse and certain ingredients in hand sanitizers, have become a huge area of concern in the medical community.

“Most of those really strong antibiotic-resistant bugs are opportunistic and what that means is they’re looking for some kind of opportunity to cause disease when the host is in some kind of weakened state,” Karl Klose, PhD, professor of microbiology at University of Texas San Antonio explained to Ivanhoe.

(Read Full Interview)

The host being the thousands of hospital patients fighting coronavirus. Now, it’s combining with antibiotic-resistant bacteria to make people even sicker.

“You pick up these bugs because you’re in the hospital. You end up getting a secondary infection because you’re in a weakened state and can’t fight off disease anymore and then there is no antibiotic that can treat you,” Klose elaborated.

That powerful one-two punch of virus and bacteria sometimes cannot be stopped because many antibiotics simply don’t work anymore, rendering them useless in knocking out secondary infections. After years of doctors overprescribing antibiotics, and studies warning against overusing hand sanitizers, the drugs no longer work as well against superbugs, or secondary infections in corona patients. Meanwhile, doctors are working on this super-tolerance to superbugs. Rice University, for example, is researching something called nano drills that pierce the outside shell of bacteria and deliver drugs right to the source

“They’re very selective and they die by exploding. You punch holes in them and then the cells just bleb … boom,” illustrated Jim Tour, PhD, synthetic organic chemist at Rice University

And there are other methods to kill bacteria, such as ultraviolet, or UV light. Scientists have some cautionary advice.

“Use them in a better way, so that we don’t induce antibiotic resistance to all bacteria that we come into contact with,” Klose concluded.

So, what can you do?  Do not take antibiotics unless absolutely necessary, so that when you do really need them, they are effective. And check your hand sanitizer, an ingredient called triclosan, which can increase superbugs, should not be included. It’s banned in the U.S. but has recently turned up in sanitizers and hand soap sold online.

Contributors to this news report include: Cyndy McGrath, Executive Producer; Donna Parker, Field Producer; Bruce Maniscalco, Videographer; Roque Correa, Editor.

To receive a free weekly e-mail on Medical Breakthroughs from Ivanhoe, sign up at: http://www.ivanhoe.com/ftk

MEDICAL BREAKTHROUGHS

RESEARCH SUMMARY

 

TOPIC:            SUPERBUGS: ANTIBIOTIC RESISTANCE A GROWING PROBLEM DURING THE PANDEMIC

REPORT:       MB #4780

BACKGROUND: When germs like bacteria and fungi develop the ability to beat the drugs designed to kill them, that is known as antibiotic resistance. There are some infections caused by antibiotic-resistant germs; however, they are difficult and sometimes impossible to treat. In most cases, antibiotic-resistant infections require long hospital stays, additional follow-up doctor visits, and costly alternatives. Antibiotic resistance does not mean the body is becoming resistant to antibiotics, it is that bacteria have become resistant to the antibiotics designed to kill them. Antibiotic resistance can affect anyone at any stage of life. At least 2.8 million people in the U.S each year are infected with antibiotic-resistant bacteria or fungi, and more than 35,000 people die from it.

(Source: https://www.cdc.gov/drugresistance/about.html)

SUPERBUGS AND SECONDARY INFECTIONS: The hidden threat from antibiotic resistance, or bacteria that are not killed by standard antibiotics, is an even larger threat that is lurking behind the current COVID outbreak. The superbugs that cause these infections thrive in hospitals and medical facilities, and are putting all patients, whether they have a minor illness or major surgery, at risk. Studies have found that 1 in 7 patients hospitalized with COVID have acquired a dangerous secondary bacterial infection, and 50% of patients who have died had such infections. The patients at greatest risk from superbugs are the ones who are already more vulnerable to illness from viral lung infections like influenza, severe acute respiratory syndrome (SARS), and COVID. According to the Centers for Disease Control and Prevention, the 2009 influenza pandemic, for example, claimed nearly 300,000 lives around the world. And, between 29% and 55% of those deaths were actually caused by secondary bacterial pneumonia.

(Source: https://www.statnews.com/2020/03/23/antibiotic-resistance-hidden-threat-lurking-behind-covid-19/)

NEW NANO STRATEGY: Researchers at Rice University’s Brown School of Engineering have developed a strategy for “trapping and zapping” antibiotic resistant genes. The team used molecular-imprinted graphitic carbon nitride nanosheets to absorb and degrade these genetic remnants in sewage system wastewater before they have the chance to invade and infect other bacteria. “This study addresses a growing concern, the emergence of multidrug resistant bacteria known as superbugs,” said Pedro Alvarez, director of the Nanosystems Engineering Research Center for Nanotechnology-Enabled Water Treatment (NEWT) Center. “They are projected to cause 10 million annual deaths by 2050.” Their strategy is to use molecularly imprinted coatings that enhance selectivity and minimize interference by background organic compounds. Molecular imprinting is like making a lock that attracts a key. For this project, graphitic carbon nitride molecules are the lock, or photocatalyst, customized to absorb and then destroy NDM1, which is known to resist multiple drugs.

(Source: https://news.rice.edu/2020/03/12/new-nano-strategy-fights-superbugs-2/)

FOR MORE INFORMATION ON THIS REPORT, PLEASE CONTACT:

COURTNEY CLEVENGER

UNIVERSITY OF TEXAS SAN ANTONIO

COURTNEY.CLEVENGER@UTSA.EDU

If this story or any other Ivanhoe story has impacted your life or prompted you or someone you know to seek or change treatments, please let us know by contacting Marjorie Bekaert Thomas at mthomas@ivanhoe.com

Doctor Q and A

Read the entire Doctor Q&A for Karl Klose, Professor of Microbiology

Read the entire Q&A