Linked from
The 154 pages that link to Antimicrobial resistance, each with the reason it gives.
CeftriaxoneNarrower topic: Ceftriaxone resistance limits treatment choices and can spread among bacterial populations.
ClindamycinRelated: Resistance among staphylococci and anaerobes can sharply limit clindamycin's usefulness.
Combination therapyRelated: Some antimicrobial combinations suppress resistant populations; inappropriate use can also select resistance.
Fecal microbiota transplantationRelated: Transmitted drug-resistant bacteria have caused serious infections after inadequately screened donor material.
ImpetigoRelated: Resistance in impetigo-causing bacteria can limit effective antibiotic choices.
Over-the-counter drugRelated: Rules restricting nonprescription antibiotic sales help limit misuse that can promote resistance.
RelapseRelated: Drug-resistant pathogens can survive treatment and cause an infection to return.
Animal nutritionRelated: Feed practices involving antimicrobials raise concerns about resistance and stewardship.
Benzoyl peroxideCompared with: Benzoyl peroxide does not select bacterial resistance in the same manner as antibiotics.
Drug allergyRelated: Unverified antibiotic allergy labels can steer treatment toward agents that increase resistance pressure.
MicrobiologyRelated: Microbiology tracks how resistance emerges, spreads, and limits effective treatment.
MycoplasmaRelated: Macrolide resistance in Mycoplasma pneumoniae can change recommended treatment.
Shrimp farmingRelated: Inappropriate antibiotic use in shrimp production can contribute to resistance in environmental bacteria.
Ancient Egyptian cosmeticsCompared with: Claims that lead cosmetics protected against infection require evidence distinct from modern antimicrobial resistance.
Bacterial infectionRelated: Resistance can make standard treatment ineffective and complicate infection control.
BiofoulingCompared with: It raises questions about relying on antimicrobial chemicals to control biofilms.
DisinfectantRelated: Repeated sublethal exposure to some biocides can select for reduced susceptibility or linked resistance traits.
Drug developmentRelated: Resistance drives demand for new antimicrobial treatments and complicates their clinical evaluation.
GonorrheaRelated: Neisseria gonorrhoeae has developed resistance to multiple antibiotics, narrowing reliable treatment options.
Infection controlRelated: Preventing resistant infections reduces both transmission and reliance on limited treatments.
Intensive animal farmingRelated: Antimicrobial use in livestock can contribute to selection for resistant microbes.
Quaternary ammonium compoundRelated: Repeated exposure to some quaternary ammonium disinfectants can select for reduced susceptibility.
Water, sanitation and hygieneRelated: Poor sanitation can spread resistant organisms and resistance genes through the environment.
BroilerRelated: Antimicrobial use in animal production is one concern in resistance management.
BronchiectasisRelated: Repeated antibiotic courses can select resistant airway bacteria.
Livestock farmingRelated: Antimicrobial use in animal production can contribute to resistance.
PharmacotherapyRelated: Inappropriate antimicrobial use can accelerate resistance and reduce future treatment options.
Prescription drugRelated: Prescription controls can reduce unnecessary antibiotic use, a contributor to resistance.
Environmental microbiologyRelated: Environmental microbes and pollutants can contribute to the spread of resistance beyond clinical settings.
Helicobacter pylori eradicationRelated: Resistance to antibiotics such as clarithromycin can make a standard regimen fail.
Médecins Sans FrontièresRelated: Resistance complicates treatment in settings where MSF cares for patients with severe infections.
Molecular epidemiologyRelated: Genomic surveillance can identify resistance genes and follow their spread.
Pneumococcal vaccineRelated: Preventing pneumococcal infections can reduce antibiotic use and the selective pressure it creates.
Povidone-iodineRelated: Broad antiseptic use raises questions about reduced susceptibility, though resistance differs from antibiotic resistance.
SalmonellosisRelated: Drug-resistant Salmonella can make severe infections harder to treat.
Vibrio choleraeRelated: Resistance in V. cholerae can narrow antibiotic options, though rehydration remains the lifesaving priority.
Agricultural pollutionRelated: Antimicrobial use in livestock can contribute to resistant organisms entering the environment.
Antibiotic eraRelated: Widespread antibiotic use has selected resistant bacteria, weakening the era’s central medical gains.
Benzalkonium chlorideRelated: Repeated exposure to benzalkonium chloride can select for reduced susceptibility in some microorganisms.
Dihydrofolate reductaseRelated: Mutations in microbial enzyme variants can weaken antifolate binding and compromise treatment.
DysenteryRelated: Resistance in Shigella can make empiric antibiotic treatment unreliable.
Multidrug-resistant tuberculosisNarrower topic: MDR-TB is a specific form of resistance to antimicrobial drugs.
Azelaic acidCompared with: Azelaic acid is not a conventional antibiotic and is not generally associated with the same resistance concerns.
Campylobacter jejuniRelated: Resistance, especially to fluoroquinolones, limits treatment options for C. jejuni infection.
CefazolinNarrower topic: Resistance mechanisms determine which infections cefazolin can reliably treat.
DapsoneRelated: Mutations affecting folate synthesis can reduce bacterial susceptibility to dapsone.
Hand sanitizerRelated: Sanitizer use raises questions about selection pressure, though proper alcohol use is not equivalent to antibiotic use.
Medical tourismRelated: Healthcare exposure abroad can involve resistant organisms that spread across borders.
Passive immunityRelated: Pathogens can evolve changes that reduce the effectiveness of therapeutic antibodies.
Pneumonic plagueRelated: Resistance could complicate treatment, although naturally resistant plague strains are rare.