Linked from

The 154 pages that link to Antimicrobial resistance, each with the reason it gives.

• Public healthRelated: It exposes the population costs of antibiotic use and the need for coordinated stewardship.

• One HealthRelated: Drug use in people, animals, and agriculture can jointly drive resistance.

• SepsisRelated: Resistance can narrow effective treatment choices for infections that lead to sepsis.

• Sexually transmitted infectionRelated: Resistance in pathogens such as gonorrhea can make treatment less reliable.

• Antimicrobial stewardshipRelated: Preserving drug effectiveness requires reducing avoidable selection for resistance.

• Medication adherenceRelated: Incorrect antimicrobial use can contribute to resistance, though resistance has multiple causes.

• PathogenRelated: Resistance can make infections caused by particular pathogens harder to treat.

• MetagenomicsRelated: Metagenomics can survey resistance genes across cultured and uncultured microbes.

• AntisepticRelated: Reduced susceptibility can limit the effectiveness of some antiseptic agents and practices.

• Lactic acid bacteriaRelated: Resistance traits in food-associated strains matter when evaluating starter cultures and probiotic candidates.

• Poultry farmingRelated: Antimicrobial use in poultry production is one concern in managing resistance risks.

• Domestic chickenRelated: Antimicrobial use in poultry production is one concern in wider efforts to limit resistance.

• AmoxicillinRelated: Unnecessary or inappropriate amoxicillin exposure can select for resistant bacteria.

• Infection prevention and controlRelated: Preventing resistant infections reduces both transmission and reliance on antimicrobial treatment.

• Healthcare-associated infectionRelated: Healthcare transmission can spread resistant organisms, while infections often require antimicrobial treatment.

• LivestockRelated: Antimicrobial use in animal production can contribute to resistance risks.

• Medicinal chemistryRelated: Resistance can undermine existing compounds and shape the design of new antimicrobials.

• Pharmaceutical industryRelated: Antibiotic markets and development incentives influence the supply of new treatments.

• Surgical site infectionRelated: Resistance narrows treatment options for infections caused by resistant organisms.

• SyphilisRelated: Resistance to azithromycin has limited that alternative syphilis treatment.

• Beef cattleRelated: Antimicrobial use in livestock can contribute to selection pressures relevant to resistance.

• Host–pathogen interactionRelated: Resistance changes which treatments can control pathogen populations in hosts.

• Antibiotic therapyRelated: Antibiotic exposure selects for resistant bacteria, making future treatment harder.

• HospitalRelated: Hospital antibiotic use and transmission can accelerate resistant infections.

• Global healthRelated: Resistance spreads across borders and requires coordinated surveillance and responsible medicine use.

• PoultryRelated: Antimicrobial use in poultry production can contribute to resistance concerns.

• ChlorhexidineRelated: Reduced susceptibility to chlorhexidine has been reported, prompting scrutiny of widespread use.

• Yersinia pestisRelated: Rare drug-resistant Yersinia pestis strains make susceptibility monitoring clinically relevant.

• ManureRelated: Manure can carry resistant microbes and antimicrobial resistance genes from treated livestock into the environment.

• PreservativeRelated: Preservative exposure can raise concerns about microbial adaptation, especially in repeated-use products.

• AntimicrobialRelated: Microbial defenses can blunt the mechanisms that make an antimicrobial effective.

• BacteriologyRelated: Bacterial evolution makes resistance a major consequence of antimicrobial use.

• 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.

• 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.

• Bacterial infectionRelated: Resistance can make standard treatment ineffective and complicate infection control.

• 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.