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QUOTE FOR THURSDAY:

“Anemia is a condition in which you don’t have enough healthy red blood cells to carry adequate oxygen to the body’s tissues. Having anemia may make you feel tired and weak”

MAYO CLINIC

QUOTE FOR WEDNESDAY:

“Several years ago, it was all about West Nile and now Zika virus.  All kinds of celebrities are engaged in solutions to Malaria for third world countries.  Obviously, we’re familiar with all of them. But which disease are you most likely to get and which are you most likely to recuperate from?

A little bit of background on mosquitoes.  They must have water to lay eggs.  It doesn’t need to be much water at all – just enough to fill the palm of your hand.  The mosquitoes lay eggs that hatch into water-loving larva.  The larval stage is brief – only 3 days or so – and water is the essential ingredient.”

Greenbugallnatural

 

 

NYC taking action in all 5 Burroughs to prevent Zika & West Nile Viruses. Infection Control!

zika2  zika1zikavirus3   westnilevirus

West Nile Virus  west-nile-virus-5

The Department of Health in New York is taking action against mosquitoes who spread the Zika virus with the West Nile Virus.  Zika Virus is an epidemic already in Florida but NYC is trying to stop this.  How?  Well AM radio station  1010Wins stated yesterday that Tonight at 10pm till the am and now Fox news states tomottow at 6am the action will start; which is pesticides in the air will be dropped in the sky for hours to prevent amid growing concern of these mosquitoes spreading Zika or West Nile Virus to New York City areas.   Hopefully other areas of NY and the NE will be prevented long before a cases show up before the other cities/towns take action.

While assuring residents that the virus is not spreading in New York City, it says local mosquitoes are spreading other diseases like the West Nile Virus.

With mosquito season upon us, the city is going to begin a three day aerial bombardment of marsh and other non-residential areas at some two dozen sites in the Bronx, Queens, Staten Island and Brooklyn Fox News states but all 5 buroughs covered 1010 wins states also.

Officials say they will use “environmentally friendly” larvicide to kill the infant mosquito larvae.

With projected hot and damp weather the mosquito population is expected to have huge growth this season.

Residents Fox News spoke to in Marine Park, Brooklyn said they were concerned and relieved that the city is taking action.

Mike Nagar said he’s skeptical about how safe the chemicals are that will be sprayed but would you rather be diseased with Zika or West Nile Virus or God knows what if no action is taken place.

Standing beside his pregnant wife, Daniel Cicolello said he’s concerned because the mosquito-borne Zika virus impacts pregnant women.

Those so terribly concerned should ease their conscious and get out of NY for TH,FRI and the Weekend and come home on SUN or deal with infection control measures rather than do nothing.

It is known to cause birth defects. It is not considered dangerous for most people and action to prevent an epidemic is a must to prevent a negative domino effect spreading it on or too many people or everyone to kill some and get others terribly sick with continuous spreading.  If the mosquitoes don’t get controlled neither will the Zika or West Nile Virus.

Health officials note that there have been 78 cases of Zika reported in the city, but that all the patients have recovered.

QUOTE FOR TUESDAY:

“I now realize that I have a platform to inspire young girls, and as someone who never had a role model who looked like me when I was growing up, I now hope to be able to show that albinism can be beautiful and is just another kind of normal.”

Thando Hopa  (#SouthAfrican #African #Africa #Motherland #Model #Albino)

What is Albinism?

Albinism2  Albinism3                                               Albinism1a

The word “albinism” refers to a group of inherited conditions. People with albinism have little or no pigment in their eyes, skin, or hair. They have inherited altered genes that do not make the usual amounts of a pigment called melanin. One person in 17,000 in the U.S.A. has some type of albinism. Albinism affects people from all races. Most children with albinism are born to parents who have normal hair and eye color for their ethnic backgrounds. Sometimes people do not recognize that they have albinism. A common myth is that people with albinism have red eyes. In fact there are different types of albinism and the amount of pigment in the eyes varies. Although some individuals with albinism have reddish or violet eyes, most have blue eyes. Some have hazel or brown eyes. However, all forms of albinism are associated with vision problems.

Vision Problems

People with albinism always have problems with vision (not correctable with eyeglasses) and many have low vision. The degree of vision impairment varies with the different types of albinism and many people with albinism are “legally blind,” but most use their vision for many tasks including reading and do not use Braille. Some people with albinism have sufficient vision to drive a car. Vision problems in albinism result from abnormal development of the retina and abnormal patterns of nerve connections between the eye and the brain. It is the presence of these eye problems that defines the diagnosis of albinism. Therefore the main test for albinism is simply an eye examination.

Skin Problems

While most people with albinism are fair in complexion, skin or hair color is not diagnostic of albinism. People with many types of albinism need to take precautions to avoid damage to the skin caused by the sun such as wearing sunscreen lotions, hats and sun-protective clothing.

Types of Albinism

While most people with albinism have very light skin and hair, not all do. Oculocutaneous (pronounced ock-you-low-kew-TAIN-ee-us) albinism (OCA) involves the eyes, hair and skin. Ocular albinism (OA), which is much less common, involves primarily the eyes, while skin and hair may appear similar or slightly lighter than that of other family members.

Over the years, researchers have used various systems for classifying oculocutaneous albinism. In general, these systems contrasted types of albinism having almost no pigmentation with types having slight pigmentation. In less pigmented types of albinism, hair and skin are cream-colored and vision is often in the range of 20/200. In types with slight pigmentation, hair appears more yellow or red-tinged and vision may be better. Early descriptions of albinism called these main categories of albinism “complete” and “incomplete” albinism. Later researchers used a test that involved plucking a hair root and seeing if it would make pigment in a test tube. This test separated “ty-neg” (no pigment) from “ty-pos” (some pigment). Further research showed that this test was inconsistent and added little information to the clinical exam.

Recent research has used analysis of DNA, the chemical that encodes genetic information, to arrive at a more precise classification system for albinism. Four forms of OCA are now recognized – OCA1, OCA2, OCA3 and OCA4; some are further divided into subtypes.

  • Oculocutaneous albinism type 1 (OCA1 or tyrosinase-related albinism) results from a genetic defect in an enzyme called tyrosinase (hence ‘ty’ above). This enzyme helps the body to change the amino acid tyrosine into pigment. (An amino acid is a “building block” of protein.) There are two subtypes of OCA1. In OCA1A, the enzyme is inactive and no melanin is produced, leading to white hair and very light skin. In OCA1B, the enzyme is minimally active and a small amount of melanin is produced, leading to hair that may darken to blond, yellow/orange or even light brown, as well as slightly more pigment in the skin.
  • Oculocutaneous albinism type 2 (OCA2 or P gene albinism) results from a genetic defect in the P protein that helps the tyrosinase enzyme to function. Individuals with OCA2 make a minimal amount of melanin pigment and can have hair color ranging from very light blond to brown.
  • Oculocutaneous albinism type 3 (OCA3) is rarely described and results from a genetic defect in TYRP1, a protein related to tyrosinase. Individuals with OCA3 can have substantial pigment.
  • Oculocutaneous albinism type 4 (OCA4) results from a genetic defect in the SLC45A2 protein that helps the tyrosinase enzyme to function. Individuals with OCA4 make a minimal amount of melanin pigment similar to persons with OCA2.
  • Researchers have also identified several other genes that result in albinism with other features. One group of these includes at least eight genes leading to Hermansky-Pudlak Syndrome (HPS). In addition to albinism, HPS is associated with bleeding problems and bruising. Some forms are also associated with lung and bowel disease. HPS is a less common form of albinism but should be suspected if a person with albinism shows unusual bruising or bleeding.

QUOTE FOR MONDAY:

“Health care-associated infections, or HAIs, are infections that people acquire while they are receiving treatment for another condition in a health care setting. HAIs may be caused by any infectious agent, including bacteria, fungi, and viruses, as well as other less common types of pathogens.”

Office of disease prevention and health promotion

Part IV How do we treat Health Acquired Infections (HAIs)?

HAIs2  HAIs4

 

THE KEY is to not allowing a Health Acquired Infection-HAI to even occur; this is through PREVENTION!

To reach this key is to understand exactly what a HAI is and how they work in spreading.  If you didn’t get a chance to read Tues. Part 1, Wed. Part 2 and Thurs. Part 3 articles do that first to learn what HAIs actually are.  The public has to get focused.

 

Prevention with the most common HAI is UTIs, the CDC recommends healthcare workers to do the following:

  • Insert urinary catheters only for the appropriate indications & minimize their use in those at high risk of UTIs, especially the elderly, women, & immunocompromised patients.
  • Leave catheters in place only for as long as needed. Remove catheters on postoperative patients as soon as possible, preferably within 24 hours unless there are appropriate indications for continued use.
  • Avoid use of urinary catheters in patients and nursing home residents for the management of incontinence. It is better to be do 2hr checks on the patient&do clean up immediately.
  • Ensure that only properly trained persons insert and maintain catheters.
  • Insert catheters using aseptic technique and sterile equipment. Use proper CDC hand hygiene and standard or appropriate isolation precautions (see discussion of these topics later in this course) when inserting or handling catheters. Perform hand hygiene immediately before and after insertion or any manipulation of the catheter site or device.
  • Maintain a closed drainage system with unobstructed urine flow. Urinary catheter systems with preconnected, sealed catheter-tubing junctions are suggested for use.
  • Do not clamp indwelling catheters prior to removal and do not change indwelling catheters or drainage bags at routine intervals. Catheters and drainage bags should be changed based on clinical indications, such as infection, obstruction, or when the closed system is compromised.
  • Any visitors should wash hands before entering and upon leaving following with antiseptic cleaner, like Purell. If the pt is on any isolation a sheet taped to the door will show all instructions of what the visitor should do before entering the room and if not sure the visitor can always ask the RN or staff.Prevention is key to eliminating central line acquired bloodstream infections in healthcare facilities. The CDC recommends healthcare professionals follow these guidelines to reduce CLABSIs in the workplace:
  • Prevention of an infection regarding female as a gender there is nothing you can do about that or the anatomy of the urethra. After having sex there is something you can do in attempting prevention of a UTI.   A women can clean the perineal/vaginal area right after the activity to decrease the chance of an infection from occurring through entering her urethra or even or vagina, with thorough drying. Remember water attracts bacteria.                                                                                                                                                                                        Staff shold choose proper central line insertion sites to minimize infections and mechanical complications. Avoid the femoral site in adult patients.
  • Staff follow proper insertion practices, including complying with hand hygiene recommendations; using maximum sterile barrier precautions, performing adequate skin antisepsis with > 0.5% chlorhexidine with alcohol; and covering the site with sterile gauze or sterile, transparent, semipermeable dressings.
  • Staff accessing the line, scrub the hub/port with an appropriate antiseptic (e.g., chlorhexidine, povidone iodine, an iodophor, or 70% alcohol) and access lines only with sterile devices.
  • Replace dressings that are wet, soiled, or dislodged. When changing dressings, use aseptic technique, including clean and sterile gloves, as per facility policy.
  • Staff perform daily audits to determine if a central line is still needed, and remove unnecessary central lines.
  • Any visitors should wash hands before entering and upon leaving. If the pt is on any isolation a sheet taped to the door will show all instructions of what the visitor should do before entering the room and if not sure the visitor can always ask the RN or staff.
  • Prior to Surgery
  • The key to prevention with surgery sites getting infected is the following:
  • Administer prophylactic antibiotics in accordance with evidence-based standards and guidelines 1 hour before surgery. This will help prevent an infection from occurring.
  • Whenever possible, identify and treat remote infections before elective surgery, or postpone surgery until the infection has resolved.
  • Prep skin using an appropriate antiseptic agent and proper technique. Do not remove hair at the operative site unless it will interfere with the operation. If hair must be removed, razors should not be used.
  • For colorectal surgery patients, mechanically prepare the colon (enemas, cathartic agents).
  • During Surgery the following takes place:
  • Keep operating room doors closed during surgery except as needed for passage of equipment, personnel, and the patient.
  • Consider re-dosing antibiotics at the 3-hour interval in procedures lasting longer than 3 hours and adjust the antimicrobial prophylaxis dose for patients with a body mass index greater than 30.
  • Consider using at least 50% fraction of inspired oxygen intra-operatively and immediately postoperatively in select procedures.
  • After Surgery
  • Protect the primary closure incision with a sterile dressing for 24–48 hours post op.
  • Maintain immediate postoperative normothermia.
  • For cardiac surgeries, control blood glucose levels during the immediate postoperative period. Glucose level should be measured at 6:00 a.m. on postop day 1 and day 2 (procedure day is postop day 0). Postop glucose level should be maintained at < 200mg/dL.
  • Discontinue antibiotics according to evidence-based standards and guidelines (within 24 hours after surgery end time, or 48 hours for cardiac surgeries).
  • Any visitors should wash hands before entering and upon leaving. If the pt is on any isolation a sheet taped to the door will show all instructions of what the visitor should do before entering the room and if not sure the visitor can always ask the RN or staff.
  • Patients with MRSA, VRE, and C-DIFF HCIs are placed in single contact isolation rooms, or, if a single room is not available, cohort patients put the patients in the same room or in the same patient care area with the same HCI (Ex. Both patients with VRE in their urine). Treatment by healthcare workers for patients with MRSA, VRE, and C-DIFF infections is to use proper standard isolation techniques plus contact isolation techniques to prevent spreading of the HCI to anyone out of the room or to them-selves. Anyone visitor the patient with MRSA, VRE or C-DIFF would be educated on how to prevent spreading these HCIs out of the room with protecting themselves from getting the infection.
  • Some bacteria does not need a living host to survive.  Microbes such as MRSA, vancomycin-resistant enterococci (VRE), and C. difficile can survive for long periods on environmental surfaces, such as bedrails and phones.  After being contaminated, these environmental surfaces become the source of infection.  A clean healthcare environment is essential for prevention of infection from these organisms.
  • The other way in prevention of these HCIs are through cleaning and disinfection of the patient environment. This includes high touch surfaces, such as bedrails, carts, toilets, and doorknobs, as well as general housekeeping surfaces, such as floors, walls, and blinds. Proper disinfection and sterilization of medical and surgical instruments and devices are also vital in the prevention of HAIs.
  • The Joint Commission includes infection prevention as one of its National Patient Safety Goals in hospitals, behavioral care facilities, and ambulatory care facilities, as well as home health care. Specifically, the Joint Commission emphasizes handwashing as key to infection prevention. Although hand hygiene and transmission precautions are routine in healthcare facilities, a review of evidence-based practice can remind healthcare professionals of the process of and rationale for these procedures.
  • Handwashing is the single most effective way to prevent the transmission of infection.
  • The public must get involved with medical staff to stay on top of prevention with HAIs.  This is to allow HAIs to go on a continual reduction.  This will only occur if both staff of a health care facility get involved with the public.  Having everyone nationally in all communities take part will only happen if increased health awareness is provided, which in the end will help decrease infection.  This will indirectly put a reduction on our medical debt, which will take time.  Our medical technology has taken us so far in learning and treating infection compared to 100 years ago or less; but we need the public to get more focused on how to prevent HAIs as well.  We can’t leave it up to the health care facilities staff to only take action to prevent HAIs.  The public needs to take part in this now.  Broadening the public’s knowledge will help prevent people from getting a HAI when admitted to the hospital or going to any type of medical facility for care.  It also will get the public more focused on HAIs allowing the family with the patient to take more action in prevention of HAIs (The key).
  • We the people in our society are responsible in reaching the goal for better health.  The medical staff, who is already carrying out infection control measures, with the public’s help through increased knowledge on HAIs will only increase the chance of continued reduction in infections, to possibly minimal infections one day, in all types of hospitals or health care facilities.  We all must get focused!

 

QUOTE FOR THE WEEKEND:

“More action is needed at every level of public health and health care to improve patient safety and eliminate infections that commonly threaten hospital patients.”

CDC (Center for disease control and prevention).

Part 3 Actual types of health care infections (HCIs) we deal with in health care facilities.

HAI88 HAI0

HAI7  HAI22

1-C-DIFF or C-difficile, know as Clostridium difficile infection (CDI), or Clostridium difficile–associated disease (CDAD), which is an infection of the intestines caused by the anaerobic, spore-forming, gram-positive bacillus C. difficile.   This microbe was first identified in 1935 when it was isolated from the stools of neonates. C. difficile produces heat-resistant spores that can remain viable on fomites in the environment for years, becoming a source of outbreaks in healthcare facilities. This bacillus also produces two types of toxins: Toxin A (an enterotoxin) and Toxin B (a cytotoxin). These toxins are responsible for the inflammatory responses of the colon, which results in loss of epithelial integrity and the production of watery diarrhea. C. difficile is the most common cause of antibiotic-associated diarrhea and pseudomembranous colitis and has proved extremely difficult to control due to new, more resistant strains.

  1. difficile is found in the intestinal tract of up to 70% of healthy infants, 1–3% of healthy adults, and in higher rates (up to 20%) in persons on antibiotic therapy. Prevalence, severity, colectomy rates, and mortality rates due to C. difficile have all risen in the past two decades, proving that this microbe has become an extremely virulent superbug that is both persistent and difficult to treat. Surveillance data from the CDC show that between 2000 and 2007 mortality from C. difficile increased by 400% due to a more virulent strain of this organism.

Studies of hospital-acquired CDI have shown that the infection is independently associated with increased risk of in-hospital death: For every 10 hospital patients who acquire a CDI, 1 patient died. Data from the CDC show that C. difficile is responsible for 337,000 infections and 14,000 deaths in the United States each year.

The greatest risk factor for CDI is the use of antibiotics, such as cephlasporins, clindamycin, or the penicillins, because these antibiotics kill the normal flora of the colon, causing overgrowth of C. difficile. Risk is increased for those taking multiple antimicrobials and those who take antimicrobials for longer time periods. Other risk factors for CDI include advanced age. Although almost half of the infections occur in persons younger than 65, most CDI-related deaths occur in the elderly. People with HIV infection, compromised immune systems, and compromised physical status are also at increased risk for CDI. Hospital admission increases one’s chance of acquiring CDI, as does gastrointestinal surgery.

Transmission of CDI occurs by the fecal-oral route.

The time between exposure to C. difficile and infection is 2 to 3 days. Symptoms of CDI vary greatly, ranging from asymptomatic to mild (fever, malaise, and gastrointestinal symptoms, including abdominal pain and cramps, and mild to moderate foul-smelling diarrhea that is rarely bloody) to extremely severe toxic megacolon, septic shock, and even death. Complications of C. difficile include pseudomembranous colitis or fulminant colitis.

Diagnosis is based on clinical history (antibiotic use in the previous 2 months, diarrhea after 72 or more hours of hospitalization), and presence of C. difficile in the stool. Stool culture is the most sensitive test and is often used for diagnosis in the hospital setting. Colonoscopy revealing histopathology with pseudomembranous colitis is also diagnostic but not necessary in most cases.

Treatment for CDI begins with discontinuation of the antibiotic causing the infection. In many cases, this step is the only necessary treatment since normal flora can reestablish in the colon. If mild to moderate diarrhea persists, patients can be treated with either metronidazole or vancomycin. In cases of severe diarrhea, vancomycin is the drug of choice for treatment due to its history of rapid symptom resolution and overall fewer treatment failures. Although antibiotic treatment will clear the infection, it will not kill the bacterial spores. In 27% of cases, relapse occurs within 3 weeks of antibiotic termination. In extreme cases, colectomy with end ileostomy may be necessary. Treatment for asymptomatic cases is not recommended.

An innovative CDI treatment may be on the horizon. Researchers have shown that C. difficile infection arises as the result of the disruption of natural flora in the intestines, a condition known as dysbiosis. New research in the treatment of CDI involves isolating specific gut bacteria in the fecal matter of healthy individuals and incorporating it into the gut of a person with CDI to restore normal flora and cure the infection.

CDI can be catastrophic to patients and indeed to entire healthcare facilities if an outbreak occurs. To prevent CDI, follow these guidelines from the CDC:

  • Immediately isolate patients with confirmed C. difficile infection and use contact precautions for the duration of diarrhea. Consider extending precautions beyond the duration of diarrhea and using presumptive contact precautions for patients with diarrhea pending confirmed C. difficile diagnosis.
  • Educate healthcare personnel, patients, their families, and any visitors about C. difficile and help them maintain contact precautions.
  • Follow proper handwashing techniques. Hand hygiene for C. difficile must include vigorous washing of hands with soap and water to mechanically remove spores. Alcohol-based hand rubs are not effective against C. difficile.
  • Because C. difficile spores can survive on objects for long periods of time be sure to thoroughly clean and disinfect equipment and objects in the environment. Consider use of sodium hypochlorite (bleach)–containing agents or EPA-registered disinfectants with sporicidal claim for environmental cleaning.
  • Enact a laboratory-based alert system for immediate notification of positive test results.

 

2- MRSA Methicillin-resistant Staphylococcus aureus (MRSA), also known as multidrug resistant S. aureus, includes any strain of S. aureus that has become resistant to the group of antibiotics known as beta-lactam antibiotics. Included in this group are the penicillins (methicillin, amoxicillin, oxacillin) and cephalosporins. Staphylococcus aureus includes gram-positive, nonmotile, non-spore-forming cocci that can be found alone, in pairs, or in grapelike clusters.

When penicillin was first introduced in the early 1940s, it was considered to be a wonder drug because it reduced the death rate from Staphylococcus infection from 70% to 25%. Unfortunately, by 1944, drug resistance was beginning to occur, so methicillin was synthesized, and, in 1959, it became the world’s first semisynthetic penicillin. Shortly thereafter in 1961, staphylococcal resistance to methicillin began as well, and the name “methicillin-resistant S. aureus” and the acronym MRSA were coined. Although methicillin was discontinued in 1993, the name and acronym have remained because of MRSA history.

MRSA is now the most common drug-resistant infection acquired in healthcare facilities. In addition to becoming more problematic as a top HAI in recent years, transmission of MRSA has also become more common in children, prison inmates, and sports participants. Community-associated MRSA (CA-MRSA) most often presents in the form of skin infections. Hospital-acquired MRSA (HA-MRSA) infections manifest in various forms, including bloodstream infections, surgical site infections, and pneumonia. Although approximately 25–30% of persons are colonized in the nasal passages with Staphylococcus, less than 2% are colonized with MRSA. MRSA are extremely resistant and can survive for weeks on environmental surfaces. Transfer of the pathogen can occur directly from patient contact with a contaminated surface or indirectly as healthcare workers touch contaminated surfaces with gloves or hands and then touch a patient.

Risk factors for healthcare-acquired MRSA infection include advanced age, young age, use of quinolone antibiotics, and extended stay in a healthcare facility. Those with diabetes, cancer, or a compromised immune system are also at increased risk of infection.

Symptoms of MRSA infection vary depending on the type and stage of infection and the susceptibility of the organism. Skin infections may appear as painful, red, swollen pustules or boils; as cellulitis; or as a spider bite or bump. They can be found in areas where visible skin trauma has occurred or in areas covered by hair. Patients may also have fever, headaches, hypotension, and joint pain. Complications of MRSA-related skin infections include endocarditis, necrotizing fasciitis, osteomyelitis, and sepsis.

Patient history of admission to a healthcare facility is useful in diagnosing HA-MRSA. Definitive diagnosis of MRSA is made by oxacillin/methicillin resistance that is shown by lab culture and susceptibility testing. Specimens submitted for testing vary depending on the site of suspected infection and may include tissue, wound drainage, sputum, respiratory secretions, and blood or urine cultures.

Treatment for MRSA infections varies based on site of infection, stage of infection, and age of the individual. Treatment includes drainage of abscesses, surgical debridement, decolonization strategies, and antimicrobial therapy with antibiotics such as vancomycin, clindamycin, daptomycin, linezolid, rifampin, trimethoprim-sulfamethoxazole (TMP-SMX), quinupristin-dalfopristin, telavancin, and tetracyclines (limited use). MRSA is rapidly becoming resistant to rifampin; therefore, this drug should not be used alone in the treatment of MRSA infections. Consultation with an infectious disease specialist is recommended for treatment of severe MRSA infections.

3-VRE- Vancomycin-Resistant Enterococci Infection (VRE) or Enterococci (formerly known as Group D streptococci). VRE are non-spore-forming, gram-positive cocci that exist in either pairs or short chains. They are commonly found in the human intestine or the female genital tract. The most common organism associated with vancomycin-ressistant enterococci (VRE) infection in hospitals is Enterococcus faecium. Enterococcus faecalis is also a cause of human disease. VRE infections can occur in the urinary tract, in wounds associated with catheters, in the bloodstream, and in surgical sites. Enterococci are a common cause of endocarditis, intra-abdominal infections, and pelvic infections.

VRE was first reported in Europe in 1986, followed in 1989 by the first report in the United States. Since then it has spread rapidly. Between 1990 and 1997, the prevalence of VRE in hospital patients increased from less than 1% to 15%.

VRE, which is found predominantly in hospitalized or recently hospitalized patients, are difficult to eliminate because they are able to withstand extreme temperatures, can survive for long periods on environmental surfaces, and are resistant to vancomycin. Transmission of VRE occurs most commonly in the form of person-to-person contact by the hands of healthcare workers after contact with the blood, urine, or feces an infected individual. VRE is also spread from contact with environmental surfaces, or through contact with the open wound of an infected person.

People most at risk for infection with VRE include the elderly and those with diabetes, those with compromised immune systems, and those who are already colonized with the bacteria. Prolonged hospitalization, catheterization (urinary and intravenous), and long-term use of vancomycin or other antibiotics also increase a person’s risk of infection.

Symptoms of VRE infection vary depending on the site of infection and may include erythema, warmth, edema, fever, abdominal pain, pelvic pain, and organ pain. Definitive diagnosis is made by culture and susceptibility testing with specimens obtained from suspected sites of infection

 

QUOTE FOR FRIDAY:

“Children and geriatrics are two groups with the highest risk for infection. In addition to age but there are a number of other key risk factors that can contribute to the likelihood of getting a hospital infection. HAIs are one of the biggest public health issues facing society today. Every year, an estimated 1.7 million Americans get a healthcare associated infection, and 99,000 people die as a result of these infections.”

Pennsylvania Dept. of Health