This is a nicely written piece about antibiotic resistance that elucidates how this phenomenon spreads in a community. The paradox of a single antibiotic taken long term causing multiple antibiotic resistance in the bacteria hosted by an animal is pivotal. This seems as though it would not occur but it does. It remains to discover the "why" of this phenomenon but that it occurs is clear.
The principles defined in this volume are key in the management of the problem of antibiotic sensitivity. This phenomenon has been known for forty years. What will we do about it?
Antibiotics are clearly a miracle. The more we use them the less miraculous they become. That's just how it is. No one's fault. They are a miracle for a patient with a severe infection and they are an economic miracle in the production of animal protein. We in the United States have yet to decide what we will do about this.
The "paradox" means that not feeding "food animals" antibiotics used in humans is not the answer since a single antibiotic will result is multiple antibiotic resistance.
Not everything makes sense, especially on the surface. That is why we pursue science; to elucidate the paradox, which, interestingly, make the paradox go away. We aren't there yet with antibiotic resistance but we have seen how it works. There are many paradoxes and they are real. This is one of them.
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The Antibiotic Paradox: How the Misuse of Antibiotics Destroys Their Curative Powers Paperback – January 1, 2002
by
Stuart B Levy
(Author),
Stuart B. Levy, M.D.
(Author)
|
Stuart B Levy
(Author)
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Print length296 pages
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LanguageEnglish
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Publication dateJanuary 1, 2002
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Dimensions5.5 x 0.87 x 8.5 inches
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ISBN-100738204404
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ISBN-13978-0738204406
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Lexile measure1290L
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Editorial Reviews
From The New England Journal of Medicine
The antibiotic era, barely 60 years old, is increasingly challenged by the continued emergence of drug-resistant organisms. The variables that currently predict the level of resistance in a community (or a hospital) are the misuse of antibiotics and the resultant selection of mutants, the spread of resistant strains as a result of poor infection control, and intrusion from the outside of strains already resistant to the drug. Without the pressure of antibiotics, however, the selection of strains in the community harboring the genes that code for resistance would not be so effective. No one has been more outspoken on this point than Stuart Levy, author of this encyclopedic account of the misuse of antibiotics. Ten years after the book's initial publication, the new edition is an accessible, fact-filled warning of the risks posed by the unwise use of the prize drugs -- antibiotics. Nowhere else are the history of antibiotic discovery and the mechanisms of microbial resistance so clearly presented for general readers. For those in medicine and related disciplines who are interested in the topic, this book is easy to read, a comfortable and logical presentation of the problem with sufficient notes and references for the serious student to pursue the topic by reading original publications beyond the book. Levy's writing is lucid, and his analogies are helpful in explaining complex biologic systems. For example, in describing the exciting discovery of transferable resistance, the genes coding for antibiotic resistance that are located on plasmids, Levy writes about a strain of Escherichia coli that was suddenly found to be resistant to four antibiotics: "Even if each mutation occurred once in 10 million, mutations to four drugs would have needed 10 million x 10 million x 10 million x 10 million or 10(sup 28) doublings! This realization led the astute Japanese workers to look for a different genetic basis for multiple drug resistance. They guessed that the resistance traits might be associated with genes not on the chromosome." Later, in explaining the genetic determinants of multidrug resistance on the plasmid, Levy writes: "It's like a snowball rolling downhill, picking up snow and any debris during its transit, becoming bigger in the process, and not losing what it had acquired before. So do plasmids as they `roll' through the environment." In discussing antibiotic use in animals and in agriculture, Levy has no peer. Some of the facts he offers are both fascinating and entertaining: there are five times as many domestic food animals as people in the United States, and "daily animal fecal excretion can be 5-400 times greater than that of humans. For example, the amount of feces excreted by a cow per day is 100 times that by a human. . . . Hence . . . animals are contributing a large amount of resistant bacteria to the natural environment." He also refers to studies showing that flies caught on flypaper carried antibiotic-resistant organisms with specific genetic markers of identical strains from nearby animals. Furthermore, with the local ground environment continually burdened with antibiotic-resistant bacteria, streams nearby could become contaminated. Later in the book, Levy also cites the volume of antibiotics continually used to treat fruit trees, hives of honeybees, and commercial catfish and salmon farms. Thus, he provides an unusually graphic portrait of a vibrant ecosystem contributing constantly to the spread of antibiotic-resistant strains of bacteria. The title of Levy's book is appropriate, because the reality is that our society still believes in the infallibility of antibiotics, their ability to cure whatever ailments we have, and the absence of important side effects. The paradox, of course, is that the more we use, the less we have. If we take this paradox to its logical conclusion, we may eventually be faced with what Levy calls the "impending disaster." At the time of printing there had been no identified cases of Staphylococcus aureus strains that were fully resistant to vancomycin. Thus, Levy could not address this latest threat. However, the fact that, in the summer of 2002, the United States witnessed the first case of vancomycin-resistant S. aureus with the vanA gene for resistance on a plasmid acquired from an enterococcus supports his thesis. Richard P. Wenzel, M.D.
Copyright © 2002 Massachusetts Medical Society. All rights reserved. The New England Journal of Medicine is a registered trademark of the MMS.
Copyright © 2002 Massachusetts Medical Society. All rights reserved. The New England Journal of Medicine is a registered trademark of the MMS.
Review
"A timely book...an invaluable resource for those in the health professions and for policy makers." -- Choice, September, 2002
"Clear, concise language...[Dr. Levy] brings us up to date." -- (The BloomsburyReview January / February 2003)
"Easily accessible to lay readers, peppered with personal anecdotes and clear explanations...[a] thought-provoking treatise." -- Lancet Journal of Infectious Diseases November, 2002
"Provides the information we need...in language that is accessible to those without scientific backgrounds...a 'must-read.'" -- Infections in Medicine March 2004
"There is no one who knows this subject better or who has written about it with more lucidity than Stuart Levy." -- Orville Schell, author, Modern Meat: Antibiotics, Hormones, and the Pharmaceutical Farm
"[Levy is] one of the world's leading experts on the misuse of antibiotics." -- Washington Post, 8/29/02
"Clear, concise language...[Dr. Levy] brings us up to date." -- (The BloomsburyReview January / February 2003)
"Easily accessible to lay readers, peppered with personal anecdotes and clear explanations...[a] thought-provoking treatise." -- Lancet Journal of Infectious Diseases November, 2002
"Provides the information we need...in language that is accessible to those without scientific backgrounds...a 'must-read.'" -- Infections in Medicine March 2004
"There is no one who knows this subject better or who has written about it with more lucidity than Stuart Levy." -- Orville Schell, author, Modern Meat: Antibiotics, Hormones, and the Pharmaceutical Farm
"[Levy is] one of the world's leading experts on the misuse of antibiotics." -- Washington Post, 8/29/02
About the Author
Stuart B. Levy, M.D., is a world-renowned author on antibiotic use and resistance. The president of the international Alliance for Prudent Use of Antibiotics, Dr. Levy is a staff physician at the New England Medical Center and both Professor of Medicine and of Molecular Microbiology at Tufts University School of Medicine.
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Product details
- Publisher : Da Capo Press; 1st edition (January 1, 2002)
- Language : English
- Paperback : 296 pages
- ISBN-10 : 0738204404
- ISBN-13 : 978-0738204406
- Lexile measure : 1290L
- Item Weight : 1.04 pounds
- Dimensions : 5.5 x 0.87 x 8.5 inches
-
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As a premed student! Highly recommend!
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Reviewed in the United States on September 3, 2013
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This is a very important book for the general public and also for scientists who are not specialists in microbiology. I didn't realize the copy I purchased was 1rst edition though. It's important to read the second (updated) edition.
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Reviewed in the United States on September 2, 2012
Antibiotics are a family of drugs used to treat bacterial infections, including diseases like the bubonic plague, pneumonia, typhus, cholera, and tuberculosis. The first antibiotic to hit the market was penicillin, in 1941. It was soon seen to be a wonder drug, because it saved so many lives. Prior to antibiotics, there were no effective treatments for many life-threatening diseases -- they were incurable. The new drugs revolutionized the practice of medicine, giving doctors power that had previously been unimaginable.
Of course, every technological miracle has a dark shadow of harmful side effects, unintended consequences, and fatal flaws. Dr. Stuart Levy described this ominous shadow in his book, The Antibiotic Paradox. He did an excellent job of explaining a very complicated subject in a manner that ordinary folks could readily comprehend.
Our skin and digestive system are home to far more bacteria than the number of cells in our body. Sometimes bacteria get under our skin, and reproduce faster than our immune system can kill them. This is an infection, and infections can sometimes be fatal.
"An antibiotic is a natural substance made by one microorganism that inhibits growth of another microorganism." Most antibiotics originated as molds or soil bacteria. Both friendly and unfriendly microorganisms enjoy reproducing at a phenomenal rate, and they often mutate genetically. Some of these mutants are drug-resistant, because they can survive contact with one or more antibiotics. These resistant survivors then proceed to produce large numbers of bulletproof offspring.
Science has attempted to eliminate resistant strains by developing new forms of antibiotics. Naturally, the bacteria continued reproducing and mutating until they became resistant to the new super drug in town, sometimes as soon as two years after its introduction.
As fast as science created new antibiotics, infectious bacteria developed resistance to them. It's the same story with herbicide-resistant weeds, fungicide-resistant plant diseases, and insecticide-resistant crop pests. No matter how hard they try, or how much money they spend, scientists will never put Mother Nature in a cage.
There are a finite number of substances suitable for use as antibiotics. They must be effective, free of serious side effects, and capable of being mass produced. The low-hanging fruit has already been picked, and inventing new antibiotics is becoming more and more challenging and expensive.
Drug companies are losing interest in creating new antibiotics, because they are not highly profitable. This is because they usually work very well, curing the patient in a matter of days, ending the need for further treatment. Drug makers are far more interested in creating medicines that patients have to take for the rest of their lives, because they are goldmines.
Everyone agrees that the problem of antibiotic-resistant disease pathogens will never be solved. The microbes will inevitably develop resistance to any new pharmaceutical weapon. It's only a matter of time. No amount of money or magic can fix this. Most antibiotic-resistant pathogens are resistant to more than one antibiotic, or MDR (multiple drug resistant). Some MDR pathogens are resistant to all drugs, and are uncontrollable. The magic bullets are losing their spunk.
We are moving inevitably toward the post-antibiotic world, and we are doing little to delay this. Indeed, the way we are using these drugs is speeding us toward the end of their usefulness. Many forms of antibiotic use result in increased profits, and we are far more interested in profits than in the future.
The more we use antibiotics, the faster resistance develops. If our main objectives were to protect human lives, and to delay the arrival of the post-antibiotic era, we would limit their use to treating sick humans. Doctors would quit giving antibiotics to patients suffering from colds or flu, no matter how loud they whine, because these drugs are useless against viral diseases. The misuse of antibiotics by doctors is widespread.
The US produces 50 million pounds of antibiotics annually, and about 70 percent of them are given to livestock and poultry. Most of the drugs given to animals are not to treat disease, but to prevent disease, and to make them grow bigger and faster. Typically, the drugs pass through the animals in active form, in their manure, and persist in the environment. The manure is often spread on fields where food crops are grown. Some of the drugs run off the farm and into drinking water and fish.
Antibiotics are also used on dogs, cats, fur-bearing animals, shellfish, aquarium fish, fish farms, horses, fruit trees, palm trees, ornamental plants, honey bees, potatoes, tobacco, peppers, tomatoes, and celery. The drugs are everywhere, and wherever they are, they promote drug resistance. MDR pathogens are also literally everywhere.
The world of microorganisms is a spooky place. There are harmless bacteria that are MDR, and they can transfer their drug-resistant characteristics to disease-causing bacteria. Genetic material is readily exchanged between different types of microbes.
In one experiment, a calf was given a marked variety of E. coli bacteria. Before long, the bacteria were found in nearby mice and flies. It spread to pigs, chickens, and turkeys living at a significant distance from the calf. Humans on the farm began excreting the E. coli.
Antimicrobial hand soaps provide no real protection, and may actually be harmful. After the collapse of the Soviet Union, we discovered that rates of allergies and asthma were far lower in Eastern Europe, an environmental disaster area. Some theorize that reduced hygiene inspires healthier immune systems, because they get regular "exercise." Being too tidy may be unhealthy.
Levy's objective was to publicize the problem of antibiotic misuse. If we used them with great care, then we could extend their usefulness in treating human diseases. The future of antibiotics is highly uncertain, but Levy is not out to scare us. He suspects that we might not experience a complete antibiotic wipeout in the "foreseeable future" (a fuzzy timeframe).
But the danger is real and substantial. MDR pathogens are now very common. "This situation raises the staggering possibility that a time will come when antibiotics as a mode of therapy will be only a fact of historic interest." Optimists can celebrate the notion that when antibiotics become useless, far fewer people will die from cancer and heart disease.
Our wild ancestors experienced far less infectious disease because they lived in small, isolated groups. They didn't live in close contact with other species, nor did they congregate in filthy cities. By living in their traditional, time-proven manner, they remained healthy, and had no need for wonder drugs.
Richard Adrian Reese
Author of What Is Sustainable
Of course, every technological miracle has a dark shadow of harmful side effects, unintended consequences, and fatal flaws. Dr. Stuart Levy described this ominous shadow in his book, The Antibiotic Paradox. He did an excellent job of explaining a very complicated subject in a manner that ordinary folks could readily comprehend.
Our skin and digestive system are home to far more bacteria than the number of cells in our body. Sometimes bacteria get under our skin, and reproduce faster than our immune system can kill them. This is an infection, and infections can sometimes be fatal.
"An antibiotic is a natural substance made by one microorganism that inhibits growth of another microorganism." Most antibiotics originated as molds or soil bacteria. Both friendly and unfriendly microorganisms enjoy reproducing at a phenomenal rate, and they often mutate genetically. Some of these mutants are drug-resistant, because they can survive contact with one or more antibiotics. These resistant survivors then proceed to produce large numbers of bulletproof offspring.
Science has attempted to eliminate resistant strains by developing new forms of antibiotics. Naturally, the bacteria continued reproducing and mutating until they became resistant to the new super drug in town, sometimes as soon as two years after its introduction.
As fast as science created new antibiotics, infectious bacteria developed resistance to them. It's the same story with herbicide-resistant weeds, fungicide-resistant plant diseases, and insecticide-resistant crop pests. No matter how hard they try, or how much money they spend, scientists will never put Mother Nature in a cage.
There are a finite number of substances suitable for use as antibiotics. They must be effective, free of serious side effects, and capable of being mass produced. The low-hanging fruit has already been picked, and inventing new antibiotics is becoming more and more challenging and expensive.
Drug companies are losing interest in creating new antibiotics, because they are not highly profitable. This is because they usually work very well, curing the patient in a matter of days, ending the need for further treatment. Drug makers are far more interested in creating medicines that patients have to take for the rest of their lives, because they are goldmines.
Everyone agrees that the problem of antibiotic-resistant disease pathogens will never be solved. The microbes will inevitably develop resistance to any new pharmaceutical weapon. It's only a matter of time. No amount of money or magic can fix this. Most antibiotic-resistant pathogens are resistant to more than one antibiotic, or MDR (multiple drug resistant). Some MDR pathogens are resistant to all drugs, and are uncontrollable. The magic bullets are losing their spunk.
We are moving inevitably toward the post-antibiotic world, and we are doing little to delay this. Indeed, the way we are using these drugs is speeding us toward the end of their usefulness. Many forms of antibiotic use result in increased profits, and we are far more interested in profits than in the future.
The more we use antibiotics, the faster resistance develops. If our main objectives were to protect human lives, and to delay the arrival of the post-antibiotic era, we would limit their use to treating sick humans. Doctors would quit giving antibiotics to patients suffering from colds or flu, no matter how loud they whine, because these drugs are useless against viral diseases. The misuse of antibiotics by doctors is widespread.
The US produces 50 million pounds of antibiotics annually, and about 70 percent of them are given to livestock and poultry. Most of the drugs given to animals are not to treat disease, but to prevent disease, and to make them grow bigger and faster. Typically, the drugs pass through the animals in active form, in their manure, and persist in the environment. The manure is often spread on fields where food crops are grown. Some of the drugs run off the farm and into drinking water and fish.
Antibiotics are also used on dogs, cats, fur-bearing animals, shellfish, aquarium fish, fish farms, horses, fruit trees, palm trees, ornamental plants, honey bees, potatoes, tobacco, peppers, tomatoes, and celery. The drugs are everywhere, and wherever they are, they promote drug resistance. MDR pathogens are also literally everywhere.
The world of microorganisms is a spooky place. There are harmless bacteria that are MDR, and they can transfer their drug-resistant characteristics to disease-causing bacteria. Genetic material is readily exchanged between different types of microbes.
In one experiment, a calf was given a marked variety of E. coli bacteria. Before long, the bacteria were found in nearby mice and flies. It spread to pigs, chickens, and turkeys living at a significant distance from the calf. Humans on the farm began excreting the E. coli.
Antimicrobial hand soaps provide no real protection, and may actually be harmful. After the collapse of the Soviet Union, we discovered that rates of allergies and asthma were far lower in Eastern Europe, an environmental disaster area. Some theorize that reduced hygiene inspires healthier immune systems, because they get regular "exercise." Being too tidy may be unhealthy.
Levy's objective was to publicize the problem of antibiotic misuse. If we used them with great care, then we could extend their usefulness in treating human diseases. The future of antibiotics is highly uncertain, but Levy is not out to scare us. He suspects that we might not experience a complete antibiotic wipeout in the "foreseeable future" (a fuzzy timeframe).
But the danger is real and substantial. MDR pathogens are now very common. "This situation raises the staggering possibility that a time will come when antibiotics as a mode of therapy will be only a fact of historic interest." Optimists can celebrate the notion that when antibiotics become useless, far fewer people will die from cancer and heart disease.
Our wild ancestors experienced far less infectious disease because they lived in small, isolated groups. They didn't live in close contact with other species, nor did they congregate in filthy cities. By living in their traditional, time-proven manner, they remained healthy, and had no need for wonder drugs.
Richard Adrian Reese
Author of What Is Sustainable
Top reviews from other countries
Chunky
4.0 out of 5 stars
... chapters too long for the message but nevertheless an excellent explanation not only of what's happening with antibiotics bu
Reviewed in the United Kingdom on February 11, 2016Verified Purchase
A bit repetitive in places and probably 2-3 chapters too long for the message but nevertheless an excellent explanation not only of what's happening with antibiotics but also including the science in terms that are understandable for the layman.
The drawings and cartoons in it are useless - too small to read but the text is all you need.
The drawings and cartoons in it are useless - too small to read but the text is all you need.
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