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1 repurpose old drugs for new applications (as antimicrobials).
2 imicrobials) and susceptibility data (5 of 7 antimicrobials).
3 I pathway should aid in the discovery of new antimicrobials.
4 plexes, mucus production, and mucosa-derived antimicrobials.
5 sceptible to other quaternary ammonium based antimicrobials.
6 ere, we describe the importance of effective antimicrobials.
7 rocessing strains and aid in identifying new antimicrobials.
8 some features that could be targeted for new antimicrobials.
9 gents in the presence of clinically relevant antimicrobials.
10 hibitors of HpalphaCA that may lead to novel antimicrobials.
11 ure sustained, worldwide access to effective antimicrobials.
12 LTx despite prophylaxis with broad-spectrum antimicrobials.
13 bacteremia typically receive long courses of antimicrobials.
14 the baseline sample and were also exposed to antimicrobials.
15 iofilm-resident bacteria resist immunity and antimicrobials.
16 s to play a significant role in tolerance to antimicrobials.
17 r alone or associated with local or systemic antimicrobials.
18 lent target for the development of selective antimicrobials.
19 rapeutic target for the development of novel antimicrobials.
20 omes, and an increased level of tolerance to antimicrobials.
21 ce is an alternative approach to develop new antimicrobials.
22 increase access to appropriately prescribed antimicrobials.
23 d isolates were resistant to all tested oral antimicrobials.
24 treatment strategies, with a focus on novel antimicrobials.
25 tionic peptide to produce membrane-targeting antimicrobials.
26 nical usefulness of the beta-lactam class of antimicrobials.
27 sure to sub-lethal concentrations of natural antimicrobials.
28 ions (cIAIs) supports the development of new antimicrobials.
29 atalytic center are attractive leads for new antimicrobials.
30 re, it acts synergistically with traditional antimicrobials.
31 S could be new targets for the design of new antimicrobials.
32 ance against most of the currently available antimicrobials.
33 ng about more rapid regulatory review of new antimicrobials.
34 nd TCR coreceptors, and they may function as antimicrobials.
35 ll, has prompted research into radically new antimicrobials.
36 tion is more severe in patients treated with antimicrobials.
37 nt of contaminants and use of broad-spectrum antimicrobials.
38 due to its resistance to most currently used antimicrobials.
39 n alternative strategy for discovering novel antimicrobials.
40 e and pterin sites of a bNOS and function as antimicrobials.
41 es, where there are often limited choices of antimicrobials.
42 efforts by directing providers to preferred antimicrobials.
43 pulations to tolerate high concentrations of antimicrobials.
44 e on how RND pumps assemble to fight diverse antimicrobials.
45 ation are needed to guide discontinuation of antimicrobials.
46 istently high appropriate use for all target antimicrobials.
47 tment of neutrophils, were decreased by both antimicrobials.
48 ata revealed susceptibility to commonly used antimicrobials.
49 simple concept for rapid development of new antimicrobials.
50 atients receiving 1 or more of 13 identified antimicrobials.
51 ons as frequent resources for learning about antimicrobials.
52 drugs that restore the efficacy of existing antimicrobials.
53 livery, bio-imaging, tissue engineering, and antimicrobials.
54 in vitro characterization of sensitivity to antimicrobials.
55 T-160 (n = 106) were susceptible to all four antimicrobials.
56 cteriocins, a diverse group of proteinaceous antimicrobials.
57 fforts to develop kinase inhibitors as novel antimicrobials.
58 ting in high mortality and irrational use of antimicrobials.
59 ent failure rates in comparison to all other antimicrobials.
60 bacteria under therapeutic concentrations of antimicrobials.
61 in standard culture, and when treated with 2 antimicrobials.
62 ould facilitate the design of new, effective antimicrobials.
63 membrane-selective and sequence-independent antimicrobials.
64 ainst the known side-effect profile of these antimicrobials.
65 anoparticles (Ag NPs) have long been used as antimicrobials.
66 should include prophylactic and pre-emptive antimicrobials.
67 ng it a promising target for next-generation antimicrobials.
68 i (VRE), necessitates the development of new antimicrobials.
69 residues arising from production inputs (75 antimicrobials, 10 coccidiostats and 121 pesticides) hav
70 The World Health Organization ranking of antimicrobials according to their relative importance in
72 delay in the adoption of new breakpoints for antimicrobials against emerging pathogens when containme
73 provide a foundation for platforms to launch antimicrobials against gastrointestinal tract pathogens,
74 thelial cells influence the efficacy of most antimicrobials against P. aeruginosa biofilm formation,
75 to restore the activity of clinically useful antimicrobials against these organisms and, potentially,
76 cteria RNA polymerase (RNAP) is a target for antimicrobials against tuberculosis, motivating structur
77 ced by plants; mycotoxins produced by fungi; antimicrobials and acaricides that are introduced by bee
78 ADE) is a strategy to reduce the spectrum of antimicrobials and aims to prevent the emergence of bact
79 ere is an urgent need for discovery of novel antimicrobials and carbohydrate-based anti-adhesive stra
81 te crop and livestock breeding, engineer new antimicrobials and control disease-carrying insects with
82 ss to clean water, access to assured quality antimicrobials and diagnostics, travel, and migration.
84 a potentially new therapeutic approach with antimicrobials and fibrinolytic drugs, particularly duri
85 pment pipeline (including new and repurposed antimicrobials and host-directed drugs) as they are appl
86 ibosylated derivatives were both more potent antimicrobials and more selective to inhibition of proka
88 for resistance to eleven clinically relevant antimicrobials and phenotypic occurrence of ESBLs as mod
91 eveal the extent of ARGs without exposure to antimicrobials and the ecologic changes created in the o
92 rform at-will broth microdilution testing of antimicrobials and to address a critical testing gap.
93 on of tolerance to otherwise lethal doses of antimicrobials and to other antimicrobial activities.
94 potential as a target for the design of new antimicrobials and vaccine formulations against Streptoc
95 ical Pharmacology/Micromedex support (6 of 7 antimicrobials) and susceptibility data (5 of 7 antimicr
96 e, 22-80 months), 8 have ceased prophylactic antimicrobials, and 5 have ceased immunoglobulin replace
97 ntimicrobials, attributable to resistance to antimicrobials, and the potential effect of vaccines in
98 Early diagnosis, selection of appropriate antimicrobials, and timely surgical intervention are key
99 s intrinsically resistant to a wide range of antimicrobials, and treatment with ineffective antimicro
100 ndent of age, sex, diabetes, indications for antimicrobials, and underlying ophthalmic conditions.
101 follow-up; 2) SRP, in combination with local antimicrobials; and 3) patients with periodontitis and D
102 enge after drug-induced liver injury (DILI): antimicrobials; and central nervous system, cardiovascul
104 tic uses of polymeric drugs as sequestrants, antimicrobials, antivirals, and anticancer and anti-infl
106 to make the correct diagnosis and prescribe antimicrobials appropriately, in addition to weak health
108 interactions via aqueous diffusion, volatile antimicrobials are able to act at a distance and diffuse
113 In patients with DM and CP, use of local antimicrobials as an adjunct to SRP may result in additi
114 review aims to evaluate the effects of local antimicrobials as an adjunct to SRP, compared with SRP a
115 ications for the rational design of targeted antimicrobials as well as microbiome-based diagnostics a
116 were used to survey volunteers about use of antimicrobials as well as other potential risk factors.
117 presence of bioactive compounds, volatiles, antimicrobials, as well as on the toxicological effects
118 S-OPAT program could administer their own IV antimicrobials at home with outcomes as good as, or bett
120 ncluded well-controlled patients and applied antimicrobials at the deepest sites or sites with baseli
121 MS was used to visualize the distribution of antimicrobials at the inhibition zone between bacteria a
122 e disease burden caused by limited access to antimicrobials, attributable to resistance to antimicrob
123 ercentage of each physician's patients whose antimicrobials began within 3 hours of emergency departm
124 has the potential not only for the design of antimicrobials but also for the selective discrimination
125 ScPMA1 do not confer resistance to unrelated antimicrobials, but do confer cross sensitivity to the a
126 led that adjunctive use of local delivery of antimicrobials, but not systemic antibiotic usage, with
127 is clearly a need for the development of new antimicrobials--but more importantly, there is the need
128 ltilingual instruction to self-administer IV antimicrobials by gravity, tested for competency before
133 ith which patients were started on empirical antimicrobials, characteristics of the empirical regimen
135 n upon exposure to three clinically relevant antimicrobials (colistin, imipenem or ciprofloxacin) by
136 s necessary to improve access to life-saving antimicrobials, conserving them, and ensuring continued
138 the impact of ventilator-associated event on antimicrobials consumption and mechanical ventilation du
139 ates the ability to be combined with topical antimicrobials currently used to treat MRSA skin infecti
140 clinically available cell membrane-targeting antimicrobials (daptomycin and telavancin), but also res
142 digestive inhibition, pathogen enhancement, antimicrobials, endocrine disruption, and primer pheromo
143 mprovements in life expectancy and access to antimicrobials, especially in low-income and lower-middl
144 their active profile as radical scavengers, antimicrobials, estrogen-like activators and acetylcholi
145 though not statistically significant) to all antimicrobials except nitrofurantoin (NIT) were higher i
146 Importantly, resistance to all the tested antimicrobials, except carbapenems and amikacin, was obs
147 by combining antivirulence and conventional antimicrobials, extending the lifespan of these drugs.
148 ction (CDI), and the resistance of spores to antimicrobials facilitates the relapse of infection.
149 Conversely, meta-analysis on systemic use of antimicrobials failed to detect significant differences
152 well as for optimizing formulations of such antimicrobials for medical applications or crop protecti
153 s suggest that improved targeting of empiric antimicrobials for multidrug-resistant bacteria, Candida
156 lant-derived organic essential oils (EOs) as antimicrobials for post-harvest produce operations are l
157 ker, clinicians may consider more aggressive antimicrobials for rapid bacterial load reduction in hig
159 2 combinations of existing noncephalosporin antimicrobials for treatment of patients with urogenital
161 validated an HPLC-MS/MS method to detect 29 antimicrobials from eight classes and applied it to 43 a
164 external root surface, and local delivery of antimicrobials has been suggested to be a complementary
165 Fortunately, securing access to effective antimicrobials has finally gained a place on the global
166 al resistance of iNTS against most available antimicrobials has steadily increased, with a predominan
167 industrial efforts to find and develop novel antimicrobials have been severely reduced during the pas
168 PSD) as a suitable target for development of antimicrobials; however no inhibitors of this class of e
169 medical science has been the development of antimicrobials; however, a consequence of their widespre
170 gher induction of TH17-related cytokines and antimicrobials (IL-17A, IL-19, CCL20, LL37, and peptidas
171 ic pH reduces the activity of individual ASL antimicrobials, impairs synergism between them, and thus
173 In smokers with CP, adjunctive use of local antimicrobials improved efficacy of non-surgical periodo
174 tary/herbal supplements in 6 events (18.8%), antimicrobials in 2 events (6.3%), and miscellaneous med
175 genetic variants underlying resistance to 17 antimicrobials in 3,144 isolates from four taxonomically
178 h others about the global responsible use of antimicrobials in a world of escalating antimicrobial re
182 al. (2016) show that even therapeutic use of antimicrobials in dairy calves has an appreciable enviro
187 leads to widespread use of non-prescription antimicrobials in household products such as Triclocarba
188 that unregulated use of clinically relevant antimicrobials in Indian broiler and layer farms may con
189 ut limited potential therapeutic efficacy as antimicrobials in nasal applications, as concentrations
191 on and CAL gain associated with use of local antimicrobials in patients with type 1 and type 2 DM.
192 impact for human health of veterinary use of antimicrobials in prophylaxis, metaphylaxis and growth p
193 ination as a marker for resistance to common antimicrobials in returning travelers, where severe dise
195 ew of adult inpatients receiving one or more antimicrobials in six US hospitals on 4 days during 2009
201 with severe sepsis or septic shock receiving antimicrobials in the emergency department, door-to-anti
203 judicious and sustainable uses of synthetic antimicrobials, including the design of greener and safe
204 ot persist after conventional treatment with antimicrobials, indicating that ongoing symptoms in pati
207 developments suggest that local delivery of antimicrobials into periodontal pockets improve periodon
209 ve neutrophil recruitment and the release of antimicrobials into the tears and protected the eye from
211 to hypothesize that resistance to intestinal antimicrobials is essential for long-term GIT colonizati
216 particularly to expensive, newer generation antimicrobials, is unique in global health and requires
218 aecalis tolerates high concentrations of GIT antimicrobials, like cholate and lysozyme, leading us to
220 to the inflamed intestinal mucosa, and host antimicrobials may play a critical role in mediating Sod
221 timicrobials, and treatment with ineffective antimicrobials may result in case fatality rates (CFRs)
223 lized colistin as adjunctive therapy to i.v. antimicrobials or as monotherapy in the treatment of ven
224 h usual care (dressings and bandages without antimicrobials) or an alternative topical or systemic an
225 cant for age, sex, diabetes, indications for antimicrobials, or underlying ophthalmic conditions.
228 eristics of patients at the time of starting antimicrobials, patterns of changes to empirical therapy
229 hat the global average annual consumption of antimicrobials per kilogram of animal produced was 45 mg
230 practices are associated with regular use of antimicrobials, potentially increasing selection pressur
231 Patients who were transferred, received antimicrobials prior to emergency department arrival, or
232 lar nutrients and the bacterial secretion of antimicrobials provide a direct means of competition bet
233 d and validated for the quantification of 14 antimicrobials (quinolones and tetracyclines) in fish.
234 e need for the development of new classes of antimicrobials, rather than drugs based upon analogues o
237 academic hospitals are more likely to delay antimicrobials should be further explored in future tria
238 his, the administration and exposure of such antimicrobials should be restricted until required in or
244 an clinical isolates were susceptible to the antimicrobials tested based on CLSI guidelines for Strep
247 United States were more susceptible to these antimicrobials than were isolates from other countries.
248 Curing infections increasingly requires antimicrobials that are broader spectrum, more toxic, an
249 rtunity to create programmable gene-specific antimicrobials that are far less likely to drive resista
250 anner reminiscent of plasmid-derived peptide antimicrobials that commonly mediate antagonism among cl
251 of secondary metabolites, many of which are antimicrobials that impact on polymicrobial community co
252 latory complexities of bacterial response to antimicrobials that involve multiple riboregulators.
253 gs lay the foundation for the development of antimicrobials that target this novel, essential pathway
254 oeae has developed resistance to each of the antimicrobials that were previously recommended as first
259 tries, but increasing pathogen resistance to antimicrobials threatens to roll back this progress.
260 f infection; 2) surfaces that actively elute antimicrobials to avert bacterial adhesion and promote k
261 ood animal producers often employ the use of antimicrobials to improve the survival and growth of the
263 This study demonstrates the use of targeted antimicrobials to modulate the microbiome structure allo
265 rove antimicrobial stewardship by not giving antimicrobials to patients with negative UA results.
267 roved the efficacy and safety of CRISPR/Cas9 antimicrobials to therapeutic levels in both in vitro an
269 ep SSIs were caused by bacteria resistant to antimicrobials used for prophylaxis, and 58% of patients
270 ated the reasons for the negative effects of antimicrobials used in food animals for human health.
271 has the potential to improve the efficacy of antimicrobials used to treat infections by Gram-positive
272 0 birds were tested for susceptibility to 11 antimicrobials using the disk diffusion method and valid
273 , we develop programmable, sequence-specific antimicrobials using the RNA-guided nuclease Cas9 (refs.
274 ass method for the HPLC-MS/MS analysis of 29 antimicrobials, validated according to the Commission De
275 cedure, the association between receipt of 2 antimicrobials (vancomycin plus a beta-lactam) versus ei
276 ative outcomes following administration of 2 antimicrobials versus a single agent for the prevention
279 reasing microbial resistance and limited new antimicrobials, we aimed to study the antimicrobial effe
280 thogen is becoming increasingly resistant to antimicrobials, we show that there is no evidence of cir
282 y the 5th day of therapy, 12.5% of empirical antimicrobials were escalated, 21.5% were narrowed or di
285 mparisons showed that concentrations of both antimicrobials were higher on the experimental site in t
286 hest priority among the critically important antimicrobials were quinolones, third- and fourth-genera
287 ts profiting most obviously from intraductal antimicrobials were those with secondary sclerosing chol
288 patients who initiated CAS, the most common antimicrobials were trimethoprim-sulfamethoxazole, penic
289 therapy is lengthy and consists of multiple antimicrobials, which causes poor compliance and high tr
290 multaneously expanding appropriate access to antimicrobials, while restricting inappropriate access,
291 Here, we use CRISPR-Cas technology to create antimicrobials whose spectrum of activity is chosen by d
292 een 2010 and 2030, the global consumption of antimicrobials will increase by 67%, from 63,151 +/- 1,5
293 class of cationic, helical homo-polypeptide antimicrobials with a hydrophobic internal helical core
294 le that we will need approaches that combine antimicrobials with biofilm-disrupting agents and partne
295 present an untapped source of underexploited antimicrobials, with pleuromutilin-a diterpene produced
296 Among 421 eligible patients, 74% received antimicrobials within 3 hours of emergency department ar
298 to evaluate whether use of local or systemic antimicrobials would improve clinical results of non-sur
299 is one of the largest exposures of humans to antimicrobials, yet the effects of TB treatment on intes
300 consumes 11 tons/year of medically relevant antimicrobials, yet, this practice might not be critical
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