Antibiotic Resistance
– Annotated Bibliography Compiled by Marti
Hoekstra Burgess, C. (2003). Another Hazard for
Farmers. Environmental Health Perspectives, 111(13),
A717. Retrieved
from Academic Search Premier database. This article talks about yet another way antibiotic resistance
on farms can be passed to their human caretakers. German researchers have
documented a potential route of resistant bacteria transferring in the dust
that is inside enclosed buildings on farms. Some of these drugs used on farms
have even been detected in ground water and rivers! Emanuele, P. (2010). Antibiotic
resistance. AAOHN Journal, 58(9), 363-365. doi:10.3928/08910162- 20100826-03. Emanuele is an occupational
health care registered nurse who provides an educational journal article from
the perspective of a health care worker. Although she mainly focuses on the
misuse of antibiotics in health care which contribute to resistance, she
provides relevant background for our topic by establishing how real this
resistance problem is! She talks about the general history of antibiotic
development before going into detail about proper precautions that should be
taken in a health care setting providing a helpful overview of this topic. Friedman, D., Kanwat, C., Headrick, M.,
Patterson, N., Neely, J., & Smith, L. (2007). Importance of Prudent
Antibiotic Use on Dairy Farms in South Carolina: A Pilot Project on FarmersÕ Knowledge, Attitudes and Practices. Zoonoses
& Public Health, 54(9/10), 366-375. doi:10.1111/j.1863-2378.2007.01077.x. This research study was completed in response to an increasing
prevalence of transference of resistant bacteria from farm animals to human
farm workers. It was done in North Carolina to assess farmersÕ knowledge and
attitudes relating to antibiotic use in livestock. It discussed how farmers
determined their need for antibiotic use and also pinpointed areas of need for
additional education. The research in this article took on many methods
including surveys, interviews and visits which I thought made its data very
inclusive. It drew to my attention the barriers to information relating to
farmersÕ language preferences, finances and lack of time which I found
concerning. Lessing, A. (2010). KILLING US SOFTLY: HOW SUB-THERAPEUTIC
DOSING OF LIVESTOCK CAUSES
DRUG-RESISTANT BACTERIA IN HUMANS. Boston College Environmental Affairs
Law Review, 37(2),
463-491. Retrieved from Academic Search Premier database. This review by Lessing is a very comprehensive overview of the
progression of subtherapeutic antibiotic use and its
link to human resistance to various bacteria. It goes over why these drugs are
used on farms and how the FDA has tried on various occasions to regulate their
use. The author would like to see a petition put into place to limit this drug
use in farm animals and is pushing for an end to this occurrence. McEwen, S. (2006). Antibiotic Use in Animal
Agriculture: What Have We Learned and Where are We Going?. Animal Biotechnology, 17(2), 239-250. doi:10.1080/10495390600957233. The author McEwen recognizes the importance of antibiotic use
for the treatment of disease in animals. The effectiveness of their use has
come into speculation as their use is becoming more and more common. This not
only affects the use in animals, but studies have possibly shown these
resistant bugs transferring to humans making drug treatments less successful
with the use of stronger antibiotics. Although the WHO and FDA have made
proposals to encourage more conservative use, the author recommends that a more
specific plan is needed and that more scientific research is needed to prove
these allegations or increase prudency on farms. Mlot, C. (2000). Antidotes for Antibiotic Use on the Farm. Bioscience,
50(11), 955. Retrieved from Academic Search Premier database. This science writer discusses how farmers are looking to
alternatives to antibiotic use on their farms. Because the needs for these
medications on farms are so extensive, the resistance problem encourages the
search for alternatives, especially the use of antibiotics as growth promoters.
She goes into detail about the problems and illnesses that have produced fluoroquinolone and vancomycin
resistant bacteria and her examples include salmonella and enterococci.
The alternatives to antimicrobial use in this article include separation of
sick animals, careful handling, hygienic practices and vaccine use to prevent
infections. Mlot also included additional references
to plans of the WHO and FDA in her article. Sharfstein, J. (2010, July 14) Statement
of Joshua M. Sharfstein, MD Principal Duty Commissioner. Retrieved from http://energycommerce.house.gov/documents/20100714/Sharfstein.Testimony.07.14.2010.pdf Sharfstein from the
Food and Drug Administration made this testimony in front of the U.S. senate
relating to the preservation of antimicrobials. He provides a helpful
background education to his listeners/readers about antibiotics, resistance and
their uses. Sharfstein goes into detail on The U.S.
Interagency Task force and their development of a plan to combat antibiotic
resistance. Other combative plans of the FDA, Center of Veterinary Medicine and
in human medicine are discussed as well. I thought this was an interesting
article to use since it outlined background information, discussed the FDAÕs
plan in fighting this problem and was thorough in its discussion. Spivey, A. (2007). Resisting Arrest. Environmental
Health Perspectives, 115(7), A362. Retrieved from Academic Search Premier database. Spivey writes an article discussing flouroquinolone-resistant
bacteria found in chickens four years after the FDA banned the use of this type
of antibiotic in 2005. This antibiotic was banned because while used on poultry
farms, this drug was becoming less effective for human use. In a study done by
John HopkinÕs, conventional poultry meat found in
various supermarkets was compared along with antibiotic- free farm meat. It is
suggested that since these bacteria can hold on for so long, additional
measures including thorough disinfections and regular litter changing in hen
houses will be necessary to make sure farms are absent of this lingering
bacteria remaining in their meat. Turnidge, J. 2004. Antibiotic use in animals
prejudices, perceptions and realities. Journal of Antimicrobial Chemotherapy,
53. Retrieved from http://jac.oxfordjournals.org/content/53/1/26.full.pdf Turnidge responds to the uprising pertaining to
use of antibiotics in food producing animals and its contributions to the human
antibiotic resistance problems. He states that research has been found linking
antibiotic use in animals directly to resistance in these same animals, but
that human harm has not been concretely found to be evidenced in research. Even
if this cannot be proven directly, the author agrees that even if transference
to humans from animals is infrequent it is still problematic. He also states
that whatever the opinion is we should all turn our attention to decreasing
resistance instead of discussing its contributors. This seemed to be an
opinionated article that still provided background information on both sides,
inspiring the reader to do their own research and develop their own take on
this issue. Walsh, C., & Fanning, S. (2008). Antimicrobial Resistance in
Foodborne Pathogens - A Cause for Concern?. Current Drug Targets, 9(9), 808-815.
Retrieved from Academic Search Premier database. The study discussed in this article researched the transfer of
resistant bacteria through food due to the stresses caused in the food
processing environment. Since food sources such as farm animals are treated
with antibiotics for disease prevention, treatment and growth, they frequently
become carriers of antibiotic resistant bacteria that can be transferred to humans
through the food chain. Biocides used in food production, including sanitizers
and disinfectants, have had mixed reviews in that some cases have shown
resistance to these chemicals while other studies have been unable to prove
this. The link between antibiotic resistance and biocide use is unclear. This
article also goes into detail about specific biocides used in farm production. | >