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Article

Clonal Clusters, Molecular Resistance Mechanisms and Virulence Factors of Gram-Negative Bacteria Isolated from Chronic Wounds in Ghana

1
Department Infectious Disease Epidemiology, Bernhard Nocht Institute for Tropical Medicine Hamburg, 20359 Hamburg, Germany
2
German Center for Infection Research (DZIF), Partner Site Hamburg-Lübeck-Borstel-Riems, 38124 Braunschweig, Germany
3
Institute for Infection Control and Infectious Diseases, University Medical Center Göttingen, 37075 Göttingen, Germany
4
Kumasi Centre for Collaborative Research in Tropical Medicine (KCCR), South-End, Asuogya Road, Kumasi 039-5028, Ghana
5
Department of Microbiology and Hospital Hygiene, Bundeswehr Hospital Hamburg, External Site at the Bernhard Nocht Institute for Tropical Medicine Hamburg, 20359 Hamburg, Germany
6
Institute for Medical Microbiology, Virology and Hygiene, University Medicine Rostock, 18057 Rostock, Germany
7
Universitiy Medical Center Hamburg-Eppendorf (UKE), Tropical Medicine II, 20251 Hamburg, Germany
*
Author to whom correspondence should be addressed.
Antibiotics 2021, 10(3), 339; https://doi.org/10.3390/antibiotics10030339
Submission received: 24 February 2021 / Revised: 17 March 2021 / Accepted: 19 March 2021 / Published: 22 March 2021
(This article belongs to the Special Issue Antimicrobial Resistance and Virulence Mechanisms)

Abstract

:
Wound infections are common medical problems in sub-Saharan Africa but data on the molecular epidemiology are rare. Within this study we assessed the clonal lineages, resistance genes and virulence factors of Gram-negative bacteria isolated from Ghanaian patients with chronic wounds. From a previous study, 49 Pseudomonas aeruginosa, 21 Klebsiella pneumoniae complex members and 12 Escherichia coli were subjected to whole genome sequencing. Sequence analysis indicated high clonal diversity with only nine P. aeruginosa clusters comprising two strains each and one E. coli cluster comprising three strains with high phylogenetic relationship suggesting nosocomial transmission. Acquired beta-lactamase genes were observed in some isolates next to a broad spectrum of additional genetic resistance determinants. Phenotypical expression of extended-spectrum beta-lactamase activity in the Enterobacterales was associated with blaCTX-M-15 genes, which are frequent in Ghana. Frequently recorded virulence genes comprised genes related to invasion and iron-uptake in E. coli, genes related to adherence, iron-uptake, secretion systems and antiphagocytosis in P. aeruginosa and genes related to adherence, biofilm formation, immune evasion, iron-uptake and secretion systems in K. pneumonia complex. In summary, the study provides a piece in the puzzle of the molecular epidemiology of Gram-negative bacteria in chronic wounds in rural Ghana.

1. Introduction

The microbiology of chronic infected wounds, also on a molecular level, is poorly understood in sub-Saharan Africa (SSA) [1]. However, studies highlight the importance of antibiotic resistant Gram-negative bacteria [2,3,4,5,6].
From other parts in the world, in particular from industrialized countries, information on the microbiology and the role of biofilm-forming microorganisms causing such infections are well established [7,8,9,10].
In chronic wounds, Pseudomonas aeruginosa is amongst the most frequently isolated Gram-negative bacteria, associated with biofilm formation [11,12]. Tightly adhering biofilms pose a challenge in the diagnosis of P. aeruginosa using standard culturing methods [13].
In comparison, the role of Enterobacterales in chronic wounds has been much less characterized [14,15,16,17]. Studies have shown that geography seems to play a role in the estimation of their etiological relevance [18]. It was shown that skin colonization with Gram-negative bacteria is frequent in resource-limited (sub)tropical settings [19,20,21], in contrast to skin colonization of individuals from industrialized countries, where Gram-positive bacteria dominate [19]. Temperature and moisture have been discussed as likely reasons for the difference seen [22].
Isolation of potentially pathogenic bacteria from non-sterile sites like wounds does not necessarily indicate clinical relevance, which poses challenge to clinical interpretation.
In a recent study that focused on the overall bacterial composition of chronic wound infections in Ghana, from which the isolates for the present molecular analysis were taken, Enterobacterales and Pseudomonas aeruginosa constituted the majority of isolated bacterial strains [23]. A moderate proportion of ESBL-positive Enterobacterales suggests lower frequencies of antibiotic resistance [23] than what was recorded from other Ghanaian hospitals [5,24].
Within this study, we aim at characterizing clonal lineages, resistance-associated genetic elements and virulence genes of P. aeruginosa, the Klebsiella pneumoniae complex and Escherichia coli, which were recently isolated from chronic wounds of Ghanaian adult patients [23]. The molecular epidemiology of dominating clonal lineages and associated resistance genes will be assessed. Further, analysis of highly abundant virulence factors will be conducted.

2. Results

2.1. Clustering Based on Core Genome Multilocus Sequence Typing (cgMLST) Results

Of the 49 P. aeruginosa analyzed, a total of nine clusters comprising isolates without any recorded differences (n = 2) or with one or two alleles difference (n = 7) were found, suggesting closely related phylogeny (Figure 1). In addition to the clusters, 31 singletons with differences ranging from 80 to 3584 alleles were observed. MLST sequence types (ST) are indicated in Figure 1 and Table A1 and Table A2. Cluster sequence types included the following: ST244, ST245, ST381, ST554, ST856, ST1485, ST2033, ST3227 and ST3590.
No clusters were identified among the 21 assessed K. pneumonia complex members, which were all singletons with differences ranging from 647 to 2244 alleles. K. pneumoniae complex sequence types are summarized in Figure 2. From the 12 E. coli isolates, three isolates in a cluster of close phylogenetic relationship were found (1× no allelic differences, 1 × 1 allele difference) (Figure 3). In addition to the cluster observed, nine singletons with differences ranging from 41 to 2365 alleles were recorded. The sequence type of the cluster was ST132 (Pasteur MLST scheme). Sequence types of all E. coli isolates are illustrated in Figure 3.

2.2. Identified Molecular Resistance Mechanisms in Correlation to Previous Phenotypic Antibiotic Resistance

Table 1 summarizes acquired antimicrobial resistance determinants for E. coli and acquired genes mediating tolerance to disinfectants. Data for P. aeruginosa and K. pneumoniae are presented in Table A1 and Table A2. Table A3, Table A4, Table A5, Table A6, Table A7 and Table A8 summarize the phenotypic resistance results as previously recorded [23].
In the present study, phylogenetically identical or almost identical isolates also carried the same resistomes. All E. coli strains harbored acquired beta-lactamase genes with the majority coding for small spectrum beta-lactamases such as blaTEM-1 or blaOXA-1. Only four strains carried the gene for an ESBL, in all cases blaCTX-M-15. Among the K. pneumoniae complex strains, two belonged to the species K. variicola, one to the species K. quasipneumoniae and the remaining to the species K. pneumoniae sensu stricto as reflected by intrinsic blaLEN, blaOKP and blaSHV-1 like, respectively. Genes coding for ESBL (blaCTX-M-15) were found solely in four out of 18 K. pneumoniae sensu stricto strains that also displayed resistance to oxyimino cephalosporins. In addition, several K. pneumoniae complex strains harbored blaTEM-1, single strains also contained blaOXA-1 and blaSCO-1.
With respect to P. aeruginosa, only one strain harbored acquired beta-lactamase genes (blaTEM-1 and blaSCO-1). Increased minimum inhibitory concentrations (MICs) for carbapenems as observed in some P. aeruginosa strains were neither explained by matching acquired carbapenemase genes nor by full sequence analysis of the oprD gene. The associated amino acid sequences are shown in Figure A1. As indicated, the complete oprD gene was found in all 49 P. aeruginosa isolates; there was no evidence of protein truncation by premature stop of translation. The 49 isolates could be divided into 7 subgroups according to the protein sequence of the oprD protein, which differ in a total of 30 individual amino acid exchanges and in a single 12aa/10aa-stretch. Therefore, genotypic assessment could not identify the reason for the single carbapenem-resistant P. aeuroginosa isolate 088 (ST 1682).
Other frequently detected resistance genes in P. aeruginosa were the fosfomycin resistance gene fosA, the chloramphenicol resistance gene catB7, the aminoglycoside resistance gene aph(3′)-IIb and the fluoroquinolone-resistance gene crpP. In the Klebsiella pneumoniae complex isolates, single amino acid exchanges and the fosmomycin resistance gene fosA were frequent. Various fluoroquinolone resistance genes and disinfectant tolerance mediating genes also quantitatively dominated. Finally, a broad spectrum of acquired genes causing resistance to the assessed classes of antimicrobial drugs and tolerance to disinfectants was observed in the E. coli strains.

2.3. Identified Molecular Virulence Mechanisms

Table 2 summarizes the analysis of virulence-related genes in E. coli (without genes mediating enteropathogenicity). Data for P. aeruginosa and K. pneumoniae are presented in Table A9 and Table A10.
The virulence-associated gene exoU, which has been described in association with the P. aeruginosa high-risk clone ST 135 [25], was recorded three times, associated with ST 135 (sample ID 296), ST 532 (sample ID 310) and ST 2483 (sample ID 22), respectively. Based on a Kleborate assessment, a positive virulence score was calculated for 7 out of 21 K. pneumoniae strains, comprising the known high-risk clones ST 17 (sample IDs 177, 199) and ST 152 (sample ID 100) [26], next to the clones ST 4 (sample ID 146), ST 6 (sample ID 214), ST 36 (sample ID 267) and ST 39 (sample ID 73), respectively. With focus on some important virulence associated genes in Klebsiella spp., ybt genes were detected in the abovementioned 7 samples, iroE was recorded in all 21 strains, while clb or rpmA genes were not detected.
Iron-uptake-related genes were numerous in all analyzed bacterial strains. For P. aeruginosa and K. pneumoniae, various secretion system-associated genes were found. Immune evasion-related genes were highly abundant in K. pneumoniae but not in E. coli isolates. Adherence-related genes were numerous in P. aeruginosa and in K. pneumoniae but not in E. coli.
Numerous invasion-associated genes were detected in E. coli, antiphagocytosis-associated genes were found in P. aeruginosa, and biofilm-associated genes in K. pneumoniae.
Less frequently detected were: toxin genes in E. coli and K. pneumoniae, protease genes in E. coli and P. aeruginosa, regulation genes in P. aeruginosa and K. pneumoniae, biosurfactant and pigment genes in P. aeruginosa and nutrition factor, efflux pumps and serum resistance genes in K. pneumoniae.

3. Discussion

Within this study, we aimed at filling information gaps on the molecular epidemiology of Gram-negative bacteria from chronic infected wounds in rural Ghana. Phylogenetic analyses based on core genome comparison indicated a high clonal diversity of the wound-associated isolates. Clonal clusters were restricted to nine P. aeruginosa clusters and one E. coli cluster, most likely indicating nosocomial transmission, which has most likely occurred in the wound dressing room that patients’ visit on a weekly basis.
ST 135 and ST 244, which are among the worldwide top 10 P. aeruginosa high-risk clones [25], were found among the P. aeruginosa wound isolates. In detail, one ST 135 Pseudomonas aeruginosa isolate was detected, carrying the beta-lactamase-encoding genes blaTEM-1B and blaSCO-1 and an exoU gene, next to five ST 244 without acquired beta-lactamases. Focusing on known pathogenic K. pneumoniae clones [26], two ST 17 strains, a clone reported to be associated with carbapenem-resistance, and one ST 152 strain, a clone known from the Caribbean as common carrier of multiple resistance genes, were detected. Strains carrying the ybt and iro genes were also identified as high-risk clones by the Kleborate software. From the observed E. coli ST types, none have been previously reported as being associated with pathogenic clones so far [27].
In line with the phenotypical antibiotic resistance results previously published [23], numerous acquired resistance determinants were detected in the bacterial strains under investigation. Focusing on the few observed clusters, comparable resistome compositions point towards recent nosocomial transmission. The gene blaCTX-M-15 was identified as the determinant of the detected extended spectrum beta-lactamase (ESBL) expression in ESBL positive Enterobacterales [23]. This is in line with previous reports from both human and livestock-associated ESBL positive Enterobacterales in Ghana [28,29,30,31,32,33,34]. In P. aeruginosa and K. pneumoniae, blaSCO-1, which has initially been described from an Acinetobacter baumannii isolate from Argentina [35], was observed. Beta-lactamases with high hydrolytic effects on carbapenems were lacking, the same applies to protein truncation by premature stop of translation of the oprD gene in P. aeruginosa. Accordingly, the genetic background of carbapenem resistance of a single P. aeruginosa strain could not be resolved, although downregulation of oprD expression due to mutations outside of the gene or ampC (class C betalactamase) overexpression could not be excluded as likely reasons.
Substance-specific genes and genes encoding efflux pumps mediating tolerance to disinfectants were observed in Enterobacterales. Therefore, further monitoring of the spread of disinfectant tolerance-associated genes and the effects of their abundance on disinfectant-based skin and wound decolonization strategies [36] seem advisable.
The importance of highly abundant virulence factors like iron-uptake- and secretion system-related genes in P. aeruginosa is comprehensively described in the literature [37,38]. Other genes reported in the literature like regulation-associated virulence genes, recently reported, were less frequently observed in our isolates [39,40]. However, due to lacking information on the individual etiological relevance of each isolate, any association with clinical effects remains speculative.
Further limitations of this study include a rather small sample size and the lack of a comparison strain collection containing isolates from other clinical specimens and environmental strains. Accordingly, the interpretation of the etiological relevance of individual strains remains challenging and is clearly beyond the scope of this work.
In summary, a broad spectrum of Gram-negative clones was isolated from the chronic wounds of the Ghanaian patients. Thereby, known high-risk clones [25,26,27] played only a minor role. Observed resistance patterns and mechanisms were in line with the spectrum expected from previous reports [23,28,29,30,31,32,33,34].

4. Materials and Methods

4.1. Sample Collection, Bacterial Culture and Antibiotic Susceptibility Testing

Single patient strains of P. aeruginosa, E. coli and K. pneumoniae complex were isolated from patients ≥15 years with an infected chronic wound at the Outpatient Department (OPD) of the Agogo Presbyterian Hospital, in the Asante Akim North District of rural Ghana. Patients typically visit the wound dressing room of the OPD on a weekly basis. Sampling was performed from January 2016 to November 2016. Sample collection and microbiological investigations were reported previously [23]. Antibiotic susceptibility was tested by the disk diffusion method and interpreted following the European Committee on Antimicrobial Susceptibility Testing (EUCAST) guidelines v.6.0 (http://www.eucast.org (accessed on 15 January 2016)). Bacterial strains and antibiotic susceptibility were confirmed using the VITEK2 System. Those data have been published before [23].

4.2. DNA Isolation and Whole Genome Sequencing

Bacterial DNA was isolated using the MasterPure Complete DNA and RNA Purification Kit (LGC standards GmbH, Wesel, Germany) and sent for whole genome sequencing (WGS) to BGI Europe, Denmark, Copenhagen. A BGISEQ-500 device was used for sequencing, generating 2 × 150 bp paired-end reads with an aimed coverage of 100×. Original raw data were upload for public use to the short-read archive (SRA, NCBI) under the accession number PRJNA699140. Details on the strain-specific SRA accession numbers are provided in Table A11.

4.3. Whole Genome Sequencing and Data Analysis

All raw data passed quality control using FASTQC v.0.11.4 [41] and were used for further analysis. Taxonomic classification and contamination check of raw-reads was performed using KRAKEN2 v.2.0.8-beta [42]. Phylogenetic analysis based on core genome multi locus sequence typing (cgMLST) analysis was performed using the commercial software SeqSphere+ v. 7.2.0 (Ridom GmbH, Münster, Germany) [43]. The software pipeline included assessment of read data and adapter control using FASTQC followed by genome assembly using the internally provided assembler Velvet, applying default settings. The reference genomes NC_000913.3 (E. coli), NC_002516.2 (P. aeruginosa) and NC_01273.1 (K. pneumoniae species complex) were used for cgMLST analyses. Only samples with a ration of “good cgMLST targets” higher than 90% were included in the phylogenetic analysis. Novel cgMLST-based complex types (CT) were automatically assigned by the SeqSphere software. Unknown alleles and profiles of MLST genes were submitted to pubmlst.org or Institute Pasteur to establish novel sequence types (ST). Isolates were defined to be clonally identical with allele differences less than four. Moreover, raw data were assembled with SPAdes v3.13.11 [44] using the careful option. Scaffolds shorter than 500 bp or with a coverage smaller than ten were sorted out, using an in-house script. Abricate v.0.9.9 [45] was used to screen for resistance and virulence genes in SPAdes assembly files, using NCBI AMRFinderPlus [46] and VFDB [47] as reference databases (both updated 6 November 2020), respectively. Additionally, SPAdes assemblies were uploaded to ResFinder4.1 [48] to obtain WGS predicted phenotypes against different antimicrobials by using default settings (%ID > 90, minimum length > 60%) and to Kleborate to predict virulence genes in Klebsiella isolates.

4.4. Ethical Considerations

The Committee on Human Research, Publications and Ethics, School of Medical Science, Kwame Nkrumah University of Science and Technology in Kumasi, Ghana, approved this study (approval number CHRPE/AP/078/16).

5. Conclusions

In conclusion, this study provides a molecular insight into the epidemiology of Gram-negative bacteria isolated from chronic wound infections from patients in rural Ghana. Epidemiological data that focus on the distribution and spread of antimicrobial resistance determinants and associated virulence factors in resource-limited settings are scarce. Although the study is a small cross-sectional assessment, which cannot replace continuous surveillance programs, it might provide a glimpse of prevailing Gram-negative bacteria isolated from wound infections in this area of Ghana. Considering the ongoing need for resistance and virulence surveillance in tropical regions, larger future studies are desirable.

Author Contributions

U.L., D.D. and J.M. designed and coordinated this study. T.T., F.P. and S.T. performed bioinformatic analysis. M.L. supported the management of this study. A.J. managed the data collection. H.F., D.D. and U.L. wrote the first draft of this manuscript. K.O. conducted and supervised fieldwork. C.W.A. and K.T. conducted and supervised lab work. M.K. and S.S. supported the interpretation of the results, writing and editing the manuscript. All authors read and approved the final manuscript.

Funding

This study was funded by institutional funds of the Bernhard Nocht Institute for Tropical Medicine (BNITM).

Institutional Review Board Statement

The study was conducted according to guidelines of the Declaration of Helsinki. The Committee on Human Research, Publications and Ethics, School of Medical Science, Kwame Nkrumah University of Science and Technology in Kumasi, Ghana, approved this study (approval number CHRPE/AP/078/16).

Informed Consent Statement

Informed consent was obtained from all study participants.

Data Availability Statement

All relevant data have been provided in the paper and its Appendix A materials. Raw data are available applying the links as indicated in the methods chapter and can also be provided by the authors on reasonable request.

Acknowledgments

We thank all patients that participated in this study and the staff at the Agogo Presbyterian Hospital. Without their support, this research study would not have been possible. We thank the team of curators pubmlst.org and the Institute Pasteur MLST and whole genome MLST databases for curating the data and making them publicly available at http://bigsdb.pasteur.fr/ (accessed on 22 March 2021).

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. Analysis of antimicrobial resistance determinants, ordered by strain and MLST type, of the assessed P. aeruginosa isolates. ST = Sequence type.
Table A1. Analysis of antimicrobial resistance determinants, ordered by strain and MLST type, of the assessed P. aeruginosa isolates. ST = Sequence type.
Sample IDST-TypeAcquired Resistance Determinants Against
Beta LacatamsSulfonamidsFosfomycinTrimethoprimMakrolidesTetracyclinwsFluoroquinolonesChloramphenicolRifampicinAminoglycosidesEfflux PumpsAmino Acid Exchanges Due to Point MutationsDisinfectant Resistance Genes
017ST 381 fosA catB7 aph(3′)-IIb
022ST 2483 fosA catB7 aph(3′)-IIb
032ST 3587 sul1fosAdfrA15 tet(G) catB7 aph(3′)-IIb
069ST 360 fosA crpP-likecatB7 aph(3′)-IIb
081ST 244 fosA catB7 aph(3′)-IIb
082ST 514 fosA catB7 aph(3′)-IIb
088ST 1682 fosA catB7 aph(3′)-IIb
099ST 244 fosA catB7 aph(3′)-IIb
106ST 1521 fosA catB7 aph(3′)-IIb
114ST 244 fosA crpP-likecatB7 aph(3′)-IIb-like
137ST 3014 fosA crpP-likecatB7 aph(3′)-IIb-like
144ST 245 fosA crpP-likecatB7 aph(3′)-IIb
147ST 245 fosA crpP-likecatB7 aph(3′)-IIb
149ST 381 fosA crpP-likecatB7 aph(3′)-IIb
153ST 704 fosA-like crpP-likecatB7-like aph(3′)-IIb- like
154ST 244, fosA crpP-likecatB7 aph(3′)-IIb-like
157ST 2616 fosA catB7-like aph(3′)-IIb
160ST 170 fosA-like aph(3′)-IIb
162ST 274 fosA crpP-likecatB7 aph(3′)-IIb
180ST 856 fosA catB7 aph(3′)-IIb
183ST 244 fosA catB7 aph(3′)-IIb-like
186ST 3588 fosA-like catB7-like aph(3′)-IIb-like
190ST 871 fosA catB7-like aph(3′)-IIb
195ST 988 fosA crpP-likecatB7-like aph(3′)-IIb-like
196ST 2475 fosA crpP-likecatB7 aph(3′)-IIb
198ST 2476 fosA crpP-likecatB7 aph(3′)-IIb
204ST 639 fosA crpPcatB7 aph(3′)-IIb-like
208ST 132 fosA crpP-likecatB7 aph(3′)-IIb
218ST 856 fosA catB7 aph(3′)-IIb
229ST 270 fosA crpP-likecatB7 aph(3′)-IIb
233ST 3227 fosA catB7 aph(3′)-IIb
236ST 266 fosA catB7 aph(3′)-IIb
238ST 3589 fosA-like crpP-likecatB7-like aph(3′)-IIb-like
242ST 3590 fosA-like
243ST 3590 fosA-like catB7-like aph(3′)-IIb-like
272ST 2033 fosA catB7-like aph(3′)-IIb-like
274ST 2033 fosA catB7-like aph(3′)-IIb
278ST 988 fosA crpP-likecatB7-like
282ST 554 fosA crpP-likecatB7 aph(3′)-IIb
285ST 554 fosA catB7 aph(3′)-IIb
289ST 1485 fosA catB7 aph(3′)-IIb
290ST 1485 fosA catB7 aph(3′)-IIb
296ST 235blaTEM-1B, blaSCO-1sul1fosA tet(G) catB7-like aph(3′)-IIb-like, aac(3)-IIa
298ST 3227 fosA catB7 aph(3′)-IIb
301ST 3593 fosA-like catB7-like aph(3′)-IIb-like
302ST 1755 fosA catB7 aph(3′)-IIb
309ST 3592 fosA like crpP-likecatB7-like aph(3′)-IIb-like
310ST 532 sul1fosA catB7-like aph(3″)-Ib, aph(6)-Id, aph(3′)-IIb
312ST 381 fosA catB7 aph(3′)-IIb
Acquired resistance genes for macrolides, rifampicin, resistance-associated point mutations, genes for efflux pumps or genes mediating tolerance against disinfectants were not detected.
Table A2. Analysis of antimicrobial resistance determinants, ordered by strain and MLST type, of the assessed K. pneumoniae isolates. ST = Sequence type.
Table A2. Analysis of antimicrobial resistance determinants, ordered by strain and MLST type, of the assessed K. pneumoniae isolates. ST = Sequence type.
Sample IDST-Type Acquired Resistance Determinants Against
Beta LacatamsSulfonamidsFosfomycinTrimethoprimMacrolidesTetracyclinesFluoroquinolonesChloramphenicolRifampicinAminoglycosidesEfflux PumpsAmino Acid Exchanges Due to Point MutationsDisinfectant Resistance Genes *
044ST 327 fosA oqxB, oqxA ompK37 p.I70M, ompK37 p.I128M,ompK37 p.I128M, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK36 p.T254S, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxB, oqxA
060ST 5379blaTEM-1Csul1, sul2fosAdfrA12mph(A) oqxA, oqxB, qnrS1catA2-like aph(6)-Id, aph(3″)-Ib, aph(3′)-Ia, aadA2, aac(3)-IIa acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.T184P, ompK37 p.I70M, ompK37 p.I128MoqxA, qacE, oqxB
073ST 39blaTEM-1B , blaCTX-M-15sul1,fosAdfrA27erm(B), mph(A)tet(D)oqxB, oqxA, aac(6′)-Ib-cr, qnrB2, aac(6′)-Ib-crcatA2-likeARR-3aac(6′)-Ib-cr, aadA16, aac(3)-IIa, aac(6′)-Ib-cr, aph(3″)-Ib, aph(6)-Id acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK37 p.I70M, ompK37 p.I128M, ompK37 p.N230G, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK36 p.T254SoqxB, oqxA, qacE
100ST 152blaCTX-M-15 , blaOXA-1 , blaTEM-1Bsul2, sul1fosAdfrA1, dfrA27mph(A)tet(D)aac(6′)-Ib-cr, oqxB, qnrB6, oqxA, aac(6′)-Ib-crcatB3, catA1, catB3ARR-3aac(3)-IIa, aph(6)-Id, aph(3″)-Ib, aadA1, aadA16, aph(3′)-Ia, aac(6′)-Ib-cr, aac(6′)-Ib-cr ompK36 p.N49S, ompK36 p.L59V, ompK36 p.G189T, ompK36 p.F198Y, ompK36 p.F207Y, ompK36 p.A217S, ompK36 p.T222L, ompK36 p.D223G, ompK36 p.E232R, ompK36 p.N304E, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK37 p.I70M, ompK37 p.I128M, ompK37 p.N230GoqxB, oqxA
102ST 514 fosA tet(C)oqxB, oqxAcatA1 ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK36 p.T254S, ompK37 p.I70M, ompK37 p.I128M, ompK37 p.N230G, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxB, oqxA
124ST 399 fosA oqxA, oqxBcatA1 ompK36 p.N49S, ompK36 p.L59V, ompK36 p.G189T, ompK36 p.F198Y, ompK36 p.F207Y, ompK36 p.A217S, ompK36 p.T222L, ompK36 p.D223G, ompK36 p.E232R, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.F197I, acrR p.K201M, ompK37 p.I70M, ompK37 p.I128MoqxA, oqxB
146ST 4 sul2fosA tet(D)oqxA, oqxBcatA2-like oqxA, oqxB
177ST 17 sul1, sul2fosAdfrA15 tet(A)oqxA, oqxB-likecatA1 aadA1, aph(3″)-Ib, aph(6)-Id ompK37 p.I70M, ompK37 p.I128M, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK36 p.N49S, ompK36 p.L59V,ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232RompK36 p.T254SqacE, oqxB-like, oqxA
181ST 5380 fosA oqxA, oqxB ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK36 p.T254S,ompK37 p.I70M, ompK37 p.I128M, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxA, oqxB
184ST 5381 fosA oqxA-like, oqxB-like ompK37 p.I70M, ompK37 p.I128M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191Q, ompK36 p.F198Y,ompK36 p.A217S, ompK36 p.N218H, ompK36 p.Q227N, ompK36 p.L229V, ompK36 p.N304E, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxA-like, oqxB-like
199ST 17blaCTX-M-15 , blaTEM-1Bsul2, sul1fosA-likedfrA16 oqxA, oqxB aadA2b, aac(3)-IIa acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK37 p.I70M, ompK37 p.I128M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.T86V, ompK36 p.S89T, ompK36 p.D91K, ompK36 p.A93S, ompK36 p.L191Q, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.Q227N, ompK36 p.L229V, ompK36 p.E232R,ompK36 p.H235D, ompK36 p.T254SoqxA, oqxB, qacE
214ST 6 sul1fosA-likedfrA14 oqxB-like, oqxAcatA1 aph(3′)-Ia ompK37 p.I70M, ompK37 p.I128M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.G189T, ompK36 p.F198Y, ompK36 p.F207Y, ompK36 p.A217S, ompK36 p.T222L, ompK36 p.D223G, ompK36 p.E232R, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxB- like, oqxA
217ST 3154blaSCO-1 , blaTEM-1Bsul1, sul2fosAdfrA12, dfrA14 tet(A)oqxA, oqxB-likecatA2-like aph(6)-Id, aph(3″)-Ib, aac(3)-IIa, aadA2 acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK37 p.I70M, ompK37 p.I128M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.G189T, ompK36 p.F198Y, ompK36 p.F207Y, ompK36 p.A217S, ompK36 p.T222L, ompK36 p.D223G, ompK36 p.E232R, ompK36 p.N304EoqxA, qacE, oqxB-like
220ST 5382 fosA-like oqxB-like, oqxA-likecatA1 ompK37 p.I70M, ompK37 p.I128M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191Q, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.Q227N, ompK36 p.L229V, ompK36 p.N304E, acrR p.P161R, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxB-like, oqxA-like
234ST 109 fosA oqxA, oqxB-like ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK36 p.T254S, acrR p.P161R, acrR p.G164A, acrR p.F172S,acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK37 p.I70M, ompK37 p.I128MoqxA, oqxB-like
240ST 5383 fosA-like tet(D)oqxA, oqxB-like ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK37 p.I70M, ompK37 p.I128M, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I,acrR p.K201MoqxA, oqxB-like
248ST 5384 fosA-like tet(A)oqxB-like, oqxA-likecatA1 ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F198Y, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK37 p.I70M, ompK37 p.I128M, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxB-like, oqxA-like
252ST 607blaTEM-1Bsul2, sul1fosA-likedfrA7 tet(A)oqxB-like, oqxAcatA1 aph(3″)-Ib, aph(6)-Id ompK37 p.I70M, ompK37 p.I128M, ompK37 p.N230G, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R, ompK36 p.T254S, acrR p.P161R,acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxB-like, oqxA, qacE
267ST 36blaCTX-M-15 , blaTEM-1Bsul2, sul1fosAdfrA27 tet(D)aac(6′)-Ib-cr, oqxA, oqxBcatA2-likeARR-3aph(6)-Id, aph(3″)-Ib, aac(6′)-Ib-cr, aadA16, aac(3)-IIa, aph(6)-Id ompK36 p.N49S, ompK36 p.L59V, ompK36 p.T184P, ompK37 p.I70M, ompK37 p.I128M, ompK37 p.N230G, acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201MoqxA, qacE, oqxB
277ST 530blaTEM-35sul2fosA-likedfrA14 tet(D)oqxA, oqxB-like aph(3″)-Ib, aph(6)-Id acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.L191S, ompK36 p.F207W, ompK36 p.A217S, ompK36 p.N218H, ompK36 p.D224E, ompK36 p.L228V, ompK36 p.E232R,ompK36 p.T254S, ompK37 p.I70M, ompK37 p.I128MoqxA, oqxB-like
279ST 5385 fosA oqxA, oqxB acrR p.P161R, acrR p.G164A, acrR p.F172S, acrR p.R173G, acrR p.L195V, acrR p.F197I, acrR p.K201M, ompK36 p.N49S, ompK36 p.L59V, ompK36 p.T184P, ompK37 p.I70M, ompK37 p.I128MoqxA, oqxB
* qacE = quaternary ammonium compounds resistance and oqxB and oqxA = efflux pumps mediating resistance against disinfectants.
Table A3. Phenotypic resistance the P. aeruginosa strains. Data are missing for strains 198, 218 and 312, due to loss during subcultivation. MIC = minimum inhibitory concentration. N.a. = value missing due to loss of strain or failed reaction.
Table A3. Phenotypic resistance the P. aeruginosa strains. Data are missing for strains 198, 218 and 312, due to loss during subcultivation. MIC = minimum inhibitory concentration. N.a. = value missing due to loss of strain or failed reaction.
Sample IDPiperacillinPiperacillin/TazobactamCeftrazidimeCefepimeImipenemMeropenemGentamicin
MICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretation
17≤4S≤4S≤1S≤1S≤0.25S≤0.25S≤1S
22≤4S≤4S≤1S≤1S≤0.25S≤0.25S≤1S
32≤4S8S2S2S1S≤0.25S≤1S
69≤4S≤4S4S2S1S≤0.25S≤1S
81≤4S8S2S≤1S1S1S≤1S
8216S8S4S2S2S≤0.25S≤1S
88≥128R≥128R≥64R32R≥16R4I≤1S
998S8S4S2S2S1S≤1S
106≤4S8S2S2S2S1S≤1S
114≤4S8S2S≤1S2S1S≤1S
13716S8S4S2S2S2S≤1S
14416S8S4S2S2S1S≤1S
1478S≤4S4S8S2S0.5S4S
1498S8S4S2S≤0.25S≤0.25S≤1S
153≤4S8S2S≤1S1S≤0.25S≤1S
15464R≤4S≤1S≤1S2S0.5S≤1S
15716S8S4S4S2S≤0.25S2S
160≥128R32R16R32R8I8I8R
16264R32R8S8S2S1S2S
18016S8S4S2S2S≤0.25S≤1S
1838S8S4S2S2S0.5S≤1S
18616n.a.n.a.S4S2S2S≤0.25S≤1S
19016S8S4S2S2S0.5S≤1S
1958S8S4S≤1S2S≤0.25S≤1S
196≤4S≤4S2S≤1S2S0.5S≤1S
198n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.
2048S8S2S≤1S2S≤0.25S≤1S
2088S8S4S2S2S≤0.25S≤1S
218n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.
2298S8S4S2S1S≤0.25S≤1S
233≥128R≥128R32R8S8I4I≤1S
23616S16S4S2S2S0.5S2S
2388S16S4S2S2S≤0.25S≤1S
2428S8S4S2S1S≤0.25S≤1S
24316S8S4S2S1S≤0.25S≤1S
27264R64R8S4S2S1S≤1S
27416S8S4S2S2S0.5S≤1S
278≤4S≤4S2S≤1S2S≤0.25S≤1S
282≤4S8S≤1S≤1S2S1S≤1S
285≤4S≤4S≤1S≤1S2S1S≤1S
289≤4S8S≤1S≤1S2S1S≤1S
2908S8S≤1S≤1S2S1S≤1S
296≥128R64R4S8S1S1S≥16R
298≥128R≥128R≥64R8S8I4I≤1S
30116S8S4S2S2S0.5S≤1S
3028S8S4S≤1S2S0.5S≤1S
30916S8S4S4S2S1S≤1S
31032R16S4S4S2S1S≤1S
312n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.
Table A4. Phenotypic resistance of P. aeruginosa strains. Data are missing for strains 198, 218 and 312 due to loss during subcultivation. MIC = minimum inhibitory concentration. N.a. = value missing due to loss of strain or failed reaction.
Table A4. Phenotypic resistance of P. aeruginosa strains. Data are missing for strains 198, 218 and 312 due to loss during subcultivation. MIC = minimum inhibitory concentration. N.a. = value missing due to loss of strain or failed reaction.
Sample IDCiprofloxacinMoxifloxacinAztreonamAmikacinTobramycinFosfomycinColistin
MICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretation
17≤0.25S1R4I≤2S≤1S128R≤0.5S
22≤0.25S1R2I≤2S≤1S128R1S
32≤0.25S2R4I≤2S≤1S128R≤0.5S
69≤0.25S0.5R4I≤2S≤1S128R≤0.5S
81≤0.25S0.5R4I≤2S≤1S≥256R≤0.5S
82≤0.25S1R16I≤2S≤1S≤16R≤0.5S
882R≥8R32R≤2S≤1S128R≤0.5S
99≤0.25S2R16I≤2S≤1S128R≤0.5S
1062R1R8I≤2S≤1S≥256R≤0.5S
114≤0.25S0.5R4I≤2S≤1S128R≤0.5S
137≤0.25S1R16I≤2S≤1S≥256R≤0.5S
144≤0.25S1R16I≤2S≤1S≥256R≤0.5S
147≤0.25S2R4I8S≤1S≥256R≤0.5S
149≤0.25S1R16I≤2S≤1S≥256R≤0.5S
153≤0.25S2R4I≤2S≤1S≤16R≤0.5S
154≤0.25S0.5R4I≤2S≤1S≥256R≤0.5S
157≤0.25S1R16I≤2S≤1S≥256R≤0.5S
1601R≥8R≥64R16I≤1S64R≤0.5S
1620.5S2R32R4S≤1S128R≤0.5S
180≤0.25S1R16I≤2S≤1S≥256R≤0.5S
183≤0.25S0.5R4I≤2S≤1S≥256R≤0.5S
186≤0.25S1R16I≤2S≤1S32R≤0.5S
190≤0.25S1R16I4S≤1S32R≤0.5S
195≤0.25S0.5R4I≤2S≤1S64R≤0.5S
196≤0.25S0.5R4I≤2S≤1S64R≤0.5S
198n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.
204≤0.25S1R2I≤2S≤1S32R2S
208≤0.25S1R8I≤2S≤1S128R≤0.5S
218n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.
229≤0.25S1R4I≤2S≤1S128R≤0.5S
233≤0.25S2R16I≤2S≤1S≤16R≤0.5S
236≤0.25S1R16I8S≤1S64R≤0.5S
238≤0.25S2R8I≤2S≤1S≤16R≤0.5S
242≤0.25S1R8I≤2S≤1S128R≤0.5S
243≤0.25S2R16I≤2S≤1S64R≤0.5S
272≤0.25S2R32R≤2S≤1S≥256R≤0.5S
274≤0.25S2R16I≤2S≤1S≥256R≤0.5S
278≤0.25S0.5R4I≤2S≤1S128R≤0.5S
282≤0.25S1R2I≤2S≤1S128R≤0.5S
285≤0.25S1R2I≤2S≤1S128R≤0.5S
289≤0.25S0.5R4I≤2S≤1S128R≤0.5S
290≤0.25S0.5R4I≤2S≤1S128R≤0.5S
296≥4R≥8R32R≤2S≥16R64R≤0.5S
298≤0.25S2R16I≤2S≤1S≤16R≤0.5S
301≤0.25S2R16I≤2S≤1S≤16R≤0.5S
302≤0.25S1R4I≤2S≤1S128R≤0.5S
309≤0.25S1R4I≤2S≤1S≤16R≤0.5S
310≤0.25S2R16I≤2S≤1S128R≤0.5S
312n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.n.a.
Table A5. Phenotypic resistance of the Klebsiella strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Table A5. Phenotypic resistance of the Klebsiella strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Sample IDESBLAmpicillinAmpicillin/SulbactamPiperacillin/TazobactamCefuroximeCefuroxime AxetilCefpodoximeCefotaximeCeftrazidime
MICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretation
44negative≥32R16R≤4S4I4I≤0.25S≤1S≤1S
60negative≥32R16R≤4S≤1I≤1S≤0.25S≤1S≤1S
73positive≥32R≥32R≥128R≥64R≥64R≥8R≥64R8R
100positive≥32R≥32R≥128R≥64R≥64R≥8R≥64R16R
102negative≥32R≤2I8S8I8I≤0.25S≤1S≤1S
124negative≥32R≤2I≤4S2I2I≤0.25S≤1S≤1S
146negative≥32R≤2I8S2I2I≤0.25S≤1S≤1S
177positive≥32R≥32R≥128R2I2S≤0.25S≤1S≤1I
181negative≥32R≤2I≤4S2I2I≤0.25S≤1S≤1S
184negative16R≤2I≤4S2I2S≤0.25S≤1S≤1S
199positive≥32R≥32R8R≥64R≥64R≥8R≥64R16R
214negative≥32R≤2I≤4S≤1I≤1S≤0.25S≤1S≤1S
217negative≥32R≥32R≥128R4I4I≤0.25S≤1S≤1S
220negative≥32R≤2I≤4S4I4I≤0.25S≤1S≤1S
234negative≥32R≤2I≤4S2I2I≤0.25S≤1S≤1S
240negative≥32R≤2I≤4S≤1I≤1S≤0.25S≤1S≤1S
248negative≥32R≤2I≤4S2I2I≤0.25S≤1S≤1S
252negative≥32R16R≤4S2I2I≤0.25S≤1S≤1S
267positive≥32R≥32R32R≥64R≥64R≥8R≥64R16R
277negative≥32R≥32R64R2I2I≤0.25S≤1S≤1S
279negative≥32R≤2I≤4S2I2I≤0.25S≤1S≤1S
Table A6. Phenotypic resistance of the Klebsiella strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Table A6. Phenotypic resistance of the Klebsiella strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Sample IDESBLErtapenemImipenemMeropenemGentamicinCiprofloxacinMoxifloxacinTigecyclineTrimethoprim/Sulfamethoxazole
MICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretation
44negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≤20S
60negative≤0.5S≤0.25S≤0.25S≥16R1R2R≤0.5S≥320R
73positive≤0.5S≤0.25S≤0.25S≥16R1R2R≤0.5S≥320R
100positive≤0.5S≤0.25S≤0.25S≥16R≥4R≥8R≤0.5S≥320R
102negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S0.5R4R≤20S
124negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≤20S
146negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S1S≤20S
177negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S2I≥320R
181negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≤20S
184negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≤20S
199positive≤0.5S≤0.25S≤0.25S≥16R≤0.25S≤0.25S≤0.5S≥320R
214negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≥320R
217negative≤0.5S≤0.25S≤0.25S≥16R≤0.25S≤0.25S2I≥320R
220negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S0.5R1S≤20S
234negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S0.5R1S≤20S
240negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≤20S
248negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S2I≤20S
252negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S1S≥320R
267positive≤0.5S≤0.25S≤0.25S≥16R≤0.25S≤0.25S≤0.5S≥320R
277negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S1S≥320R
279negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≤20S
Table A7. Phenotypic resistance of Escherichia coli strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Table A7. Phenotypic resistance of Escherichia coli strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Sample IDESBLAmpicillinAmpicillin/SulbactamPiperacillin/TazobactamCefuroximeCefuroxime AxetilCefpodoximeCefotaximeCeftrazidime
MICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretation
41positive≥32R≥32R64R≥64R≥64R≥8R≥64R16R
49negative≥32R16R≤4S4I4S≤0.25S≤1S≤1S
68negative≥32R16R≤4S≤1I≤1S≤0.25S≤1S≤1S
117negative≥32R≥32R64R4I4S≤0.25S≤1S≤1S
152negative≥32R≥32R≥128R4I4S0.5S≤1S≤1S
176negative≥32R≥32R≤4I2I2S≤0.25S≤1S≤1S
221negative≥32R≥32R≤4I2I2S≤0.25S≤1S≤1S
222negative≥32R≥32R≤4I4I4S≤0.25S≤1S≤1S
225positive≥32R≥32R≤4R≥64R≥64R≥8R≥64R16R
245positive≥32R≥32R16I16R16R1S2I≤1S
270positive≥32R16R≤4R≥64R≥64R≥8R≥64R≥64R
299negative≥32R≤2I≤4S4I4S≤0.25S≤1S≤1S
Table A8. Phenotypic resistance of Escherichia coli strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Table A8. Phenotypic resistance of Escherichia coli strains. MIC = minimum inhibitory concentration. ESBL = signal in phenotypic testing for extended-spectrum beta-lactamases.
Sample IDESBLErtapenemImipenemMeropenemGentamicinCiprofloxacinMoxifloxacinTigecyclineTrimethoprim/Sulfamethoxazole
MICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretationMICInterpretation
41positive≤0.5S≤0.25S≤0.25S≥16R≥4R≥8R≤0.5S≥320R
49negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≥320R
68negative≤0.5S≤0.25S≤0.25S≤1S≥4R≥8R≤0.5S≥320R
117negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≥320R
152negative≤0.5S≤0.25S≤0.25S2S1R2R≤0.5S≥320R
176negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≥320R
221negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≥320R
222negative≤0.5S≤0.25S≤0.25S≤1S≤0.25S≤0.25S≤0.5S≥320R
225positive≤0.5S≤0.25S≤0.25S≤1S0.5I1R≤0.5S≥320R
245positive≤0.5S0.5S≤0.25S≥16R≥4R≥8R≤0.5S≥320R
270positive≤0.5S≤0.25S≤0.25S≤1S≥4R≥8R≤0.5S≤20S
299negative≤0.5S≤0.25S≤0.25S≤1S0.5I2R≤0.5S≥320R
Figure A1. Clustal omega multiple alignment of oprD proteins—one example for the 7 detected subgroups.
Figure A1. Clustal omega multiple alignment of oprD proteins—one example for the 7 detected subgroups.
Antibiotics 10 00339 g0a1
Table A9. Analysis of virulence determinants, ordered by strain and MLST type, of the assessed P. aeruginosa isolates. ST = Sequence type.
Table A9. Analysis of virulence determinants, ordered by strain and MLST type, of the assessed P. aeruginosa isolates. ST = Sequence type.
Sample IDST-TypePathogenicity Factor Groups
AdherenceAnti-PhagocytosisBiosurfactantIron UptakePigmentProteaseToxinRegulationSecretion System
017ST 381waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algP/algR3 algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdD, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
022ST 2483waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
032ST 3587waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
069ST 360waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
081ST 244waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW like, xcpX, xcpY, xcpZ
082ST 514waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
088ST 1682waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
099ST 244waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
106ST 1521waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdD, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
114ST 244waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW like, xcpX, xcpY, xcpZ
137ST 3014waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
144ST 245waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
147ST 245waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
149ST 381waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimV, pilA, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
153ST 704waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAplcHlasIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
154ST 244waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW like, xcpX, xcpY, xcpZ
157ST 2616waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilA, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
160ST 170waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilA, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
162ST 274waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilA, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
180ST 856waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
183ST 244waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW like, xcpX, xcpY, xcpZ
186ST 3588waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAplcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
190ST 871waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
195ST 988waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
196ST 2475waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
198ST 2476waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
204ST 639waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHrhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
208ST 132waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
218ST 856waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
229ST 270waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdD, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
233ST 3227waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
236ST 266waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
238ST 3589waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAplcHlasI, rhlIxcpP, xcpQ, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
242ST 3590waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3 like, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
243ST 3590waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
272ST 2033waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
274ST 2033waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
278ST 988waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
282ST 554waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
285ST 554waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilA like, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
289ST 1485waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdD, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
290ST 1485waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdD, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
296ST 235waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW like, xcpX, xcpY, xcpZ
298ST 3227waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
301ST 3593waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAplcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
302ST 1755waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
309ST 3592waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimT, fimU, fimV, pilB, pilD, pilE, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilV, pilW, pilX pilY1, pilY2, pilC, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdEphzM, phzSaprA, lasAplcHlasI, rhlIxcpP, xcpQ, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
310ST 532waaA, waaC, waaF, waaG, waaP, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, fpvA pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdAphzM, phzSaprA lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
312ST 381waaA, waaC, waaF, waaG, waaP, wzy, wzz, chpA, chpB, chpC, chpD, chpE, fimV, pilB, pilD, pilF, pilG, pilH, pilI, pilK, pilM, pilN, pilO, pilP, pilQ, pilR, pilS, pilT, pilU, pilC like, xcpA/pilDalg44, alg8, algA, algB, algC, algD, algE, algF, algG, algI, algJ, algK, algL, algP/algR3, algQ, algR, algU, algW, algX, algZ, mucA, mucB, mucCrhlA, rhlBfptA, pchA, pchB, pchC, pchD, pchE, pchF, pchG, pchH, pchI, pchR, pvdA, pvdD, pvdEphzM, phzSaprA, lasAtoxA, plcHlasI, rhlIxcpP, xcpQ, xcpR, xcpS, xcpT, xcpU, xcpV, xcpW, xcpX, xcpY, xcpZ
Table A10. Analysis of virulence determinants, ordered by strain and MLST type, of the assessed K. pneumoniae isolates. ST = Sequence type.
Table A10. Analysis of virulence determinants, ordered by strain and MLST type, of the assessed K. pneumoniae isolates. ST = Sequence type.
Sample IDST-TypePathogenicity Factor Groups
AdherenceBiofilm FormationEfflux PumpImmune EvasionIron UptakeNutritional FactorRegulationSecretion SystemSerum ResistanceToxin
044ST 327fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza like, wzientA, entB, entC, entD, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE like rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
060ST 5379fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsBimpA/tssA, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssC
073ST 39fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, irp1, irp2, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA, sciN/tssJ, tle1, tli1, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
100ST 152fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza like, wzientA, entB, entC, entD, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, irp1, irp2, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG
102ST 514fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
124ST 399fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkF, mrkH, mrkJacrA, acrBcpsACP, galF, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsB glf, wbbM, wbbN, wbbO, wzm, wzt
146ST 4fimA, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, irp1, irp2, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
177ST 17fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza like, wzientA, entB, entC, entD, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
181ST 5380fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gmd like, gnd, manB, manC, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsB,impA/tssA, sciN/tssJ, tle1, tli1, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
184ST 5381fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza like, wzientA, entB, entC, entD like, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE like rcsA, rcsBimpA/tssA, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssC
199ST 17fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB like, manC, ugd, wza, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, irp1, irp2, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssC
214ST 6fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkB, mrkC, mrkD, mrkF, mrkH, mrkI,acrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, irp1, irp2, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
217ST 3154fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
220ST 5382fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB like, manC, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE,allA, allB, allC, allD, allR, allSrcsA, rcsB
234ST 109fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsB,impA/tssA, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
240ST 5383fimC, fimD, fimF, fimG, fimH, fimI, fimKmrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsB glf, wbbM, wbbN, wbbO, wzm, wzt
248ST 5384 mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsBvasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
252ST 607fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, wza like, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsBsciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
267ST 36fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE, irp1, irp2, ybtA, ybtE, ybtP, ybtQ, ybtS, ybtT, ybtU, ybtX rcsA, rcsBimpA/tssA, sciN/tssJ, tle1, tli1, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
277ST 530fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, manB, manC, ugd, wza, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsBimpA/tssA like, sciN/tssJ, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCglf, wbbM, wbbN, wbbO, wzm, wzt
279ST 5385fimA, fimB, fimC, fimD, fimE, fimF, fimG, fimH, fimI, fimKmrkA, mrkB, mrkC, mrkD, mrkF, mrkH, mrkI, mrkJacrA, acrBcpsACP, galF, gnd, ugd, wza, wzientA, entB, entC, entE, entF, fepA, fepB, fepC, fepD, fepG, fes, ybdA, iroE rcsA, rcsB,impA/tssA, sciN/tssJ, tle1, tli1, tssF, tssG, vasE/tssK, vgrG/tssI, vipA/tssB, vipB/tssCwzm, wzt
Table A11. Details on the strain-specific short-read archive (SRA) accession numbers.
Table A11. Details on the strain-specific short-read archive (SRA) accession numbers.
Sample IDPercentage of Good Targets (SeqSphere+)Average Coverage (Assembled) (SeqSphere+)Approximated Genome Size (Megabases) (SeqSphere+)Species (Kraken2)Sequence TypeComplex Type (SeqSphere+)SRA Accession
Iso0001799.41056.7Pseudomonas aeruginosa3811791SRR13617317
Iso0002299.41026.9Pseudomonas aeruginosa24831792SRR13617316
Iso0003299.21066.6Pseudomonas aeruginosa35871793SRR13617305
Iso0004199.4975.0Escherichia coli2 (Pasteur)11349SRR13617294
Iso0004499.71165.1Klebsiella pneumoniae3275462SRR13617283
Iso0004998.7945.2Escherichia coli3 (Pasteur)11350SRR13617272
Iso0006099.61125.3Klebsiella pneumoniae53795463SRR13617261
Iso0006899.61094.9Escherichia coli632 (Pasteur)11351SRR13617250
Iso0006999.61046.8Pseudomonas aeruginosa3601794SRR13617239
Iso0007399.41045.8Klebsiella pneumoniae395464SRR13617236
Iso0008198.71086.6Pseudomonas aeruginosa2441795SRR13617315
Iso0008299.41126.3Pseudomonas aeruginosa5141796SRR13617314
Iso0008897.81056.8Pseudomonas aeruginosa16821797SRR13617313
Iso0009999.41066.6Pseudomonas aeruginosa2441798SRR13617312
Iso0010099.21085.5Klebsiella pneumoniae1525465SRR13617311
Iso0010299.21115.4Klebsiella pneumoniae5145466SRR13617310
Iso0010699.51106.4Pseudomonas aeruginosa15211799SRR13617309
Iso0011499.41056.7Pseudomonas aeruginosa2441800SRR13617308
Iso0011799.2955.3Escherichia coli4 (Pasteur)11352SRR13617307
Iso0012499.41125.3Klebsiella pneumoniae3995467SRR13617306
Iso0013799.41106.4Pseudomonas aeruginosa30141801SRR13617304
Iso0014499.61096.5Pseudomonas aeruginosa2451802SRR13617303
Iso0014699.41105.5Klebsiella pneumoniae45468SRR13617302
Iso0014799.51086.6Pseudomonas aeruginosa2451802SRR13617301
Iso0014999.61046.9Pseudomonas aeruginosa3811803SRR13617300
Iso0015299.4985.2Escherichia coli22 (Pasteur)11353SRR13617299
Iso0015398.51116.4Pseudomonas aeruginosa704?SRR13617298
Iso0015499.41027.0Pseudomonas aeruginosa2441805SRR13617297
Iso0015799.61146.3Pseudomonas aeruginosa26161806SRR13617296
Iso0016099.21156.2Pseudomonas aeruginosa1701807SRR13617295
Iso0016299.11116.5Pseudomonas aeruginosa2741808SRR13617293
Iso0017699.0985.1Escherichia coli132 (Pasteur)11354SRR13617292
Iso0017799.61085.5Klebsiella pneumoniae175469SRR13617291
Iso0018099.81106.5Pseudomonas aeruginosa8561809SRR13617290
Iso0018199.91075.6Klebsiella pneumoniae53805470SRR13617289
Iso0018399.51076.7Pseudomonas aeruginosa2441795SRR13617288
Iso0018498.31045.6Klebsiella variicola subsp. variicola53815471SRR13617287
Iso0018698.71136.3Pseudomonas aeruginosa35881810SRR13617286
Iso0019099.71146.3Pseudomonas aeruginosa8711811SRR13617285
Iso0019599.51116.5Pseudomonas aeruginosa9881812SRR13617284
Iso0019699.51017.1Pseudomonas aeruginosa24751813SRR13617282
Iso0019899.61126.4Pseudomonas aeruginosa24761814SRR13617281
Iso0019999.41085.6Klebsiella pneumoniae175472SRR13617280
Iso0020499.51046.9Pseudomonas aeruginosa6391815SRR13617279
Iso0020899.71096.5Pseudomonas aeruginosa1321816SRR13617278
Iso0021499.71085.5Klebsiella pneumoniae65473SRR13617277
Iso0021799.81045.7Klebsiella pneumoniae31545474SRR13617276
Iso0021899.71096.5Pseudomonas aeruginosa8561809SRR13617275
Iso0022097.81105.4Klebsiella quasipneumoniae subsp. similipneumoniae53825475SRR13617274
Iso0022199.0945.1Escherichia coli132 (Pasteur)11354SRR13617273
Iso0022299.0965.1Escherichia coli132 (Pasteur)11354SRR13617271
Iso0022599.1995.2Escherichia coli506 (Pasteur)11355SRR13617270
Iso0022999.61096.5Pseudomonas aeruginosa2701817SRR13617269
Iso0023397.81146.1Pseudomonas aeruginosa32271818SRR13617268
Iso0023499.71115.5Klebsiella pneumoniae1095476SRR13617267
Iso0023699.71126.4Pseudomonas aeruginosa2661819SRR13617266
Iso0023898.71086.6Pseudomonas aeruginosa35891820SRR13617265
Iso0024098.91125.4Klebsiella pneumoniae53835477SRR13617264
Iso0024298.91116.4Pseudomonas aeruginosa35901821SRR13617263
Iso0024398.91116.4Pseudomonas aeruginosa35901821SRR13617262
Iso0024599.31074.8Escherichia coli2 (Pasteur)11356SRR13617260
Iso0024897.21085.5Klebsiella quasivariicola53845478SRR13617259
Iso0025299.61125.3Klebsiella pneumoniae6075479SRR13617258
Iso0026799.61035.7Klebsiella pneumoniae365480SRR13617257
Iso0027099.21004.9Escherichia coli2 (Pasteur)11358SRR13617256
Iso0027299.51096.5Pseudomonas aeruginosa20331822SRR13617255
Iso0027499.41096.5Pseudomonas aeruginosa20331822SRR13617254
Iso0027799.41095.5Klebsiella pneumoniae5305481SRR13617253
Iso0027899.61106.5Pseudomonas aeruginosa9881823SRR13617252
Iso0027999.71115.5Klebsiella pneumoniae53855482SRR13617251
Iso0028299.31086.6Pseudomonas aeruginosa5541824SRR13617249
Iso0028599.31096.5Pseudomonas aeruginosa5541824SRR13617248
Iso0028999.61126.3Pseudomonas aeruginosa14851825SRR13617247
Iso0029099.71136.3Pseudomonas aeruginosa14851825SRR13617246
Iso0029699.71066.7Pseudomonas aeruginosa2351826SRR13617245
Iso0029897.81166.1Pseudomonas aeruginosa32271818SRR13617244
Iso0029999.31084.6Escherichia coli1018 (Pasteur)11357SRR13617243
Iso0030198.61126.3Pseudomonas aeruginosa35931827SRR13617242
Iso0030299.61136.3Pseudomonas aeruginosa17551828SRR13617241
Iso0030998.61096.5Pseudomonas aeruginosa35921829SRR13617240
Iso0031099.31056.8Pseudomonas aeruginosa5321830SRR13617238
Iso0031299.41066.7Pseudomonas aeruginosa3811791SRR13617237

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Figure 1. Minimum spanning tree of P. aeruginosa based on 3867 targets (core genome). Isolate numbers are found within the nodes, and numbers between nodes indicate the number of different alleles. Isolates within clusters are colored based on MLST sequence type (ST). The ST types of white nodes are indicated in Table A1.
Figure 1. Minimum spanning tree of P. aeruginosa based on 3867 targets (core genome). Isolate numbers are found within the nodes, and numbers between nodes indicate the number of different alleles. Isolates within clusters are colored based on MLST sequence type (ST). The ST types of white nodes are indicated in Table A1.
Antibiotics 10 00339 g001
Figure 2. Minimum spanning tree of K. pneumoniae complex based on 2358 targets (core genome). Isolate numbers are found within the nodes, and the numbers between the nodes indicate the number of different alleles. Colors demonstrate the MLST sequence type of the isolates.
Figure 2. Minimum spanning tree of K. pneumoniae complex based on 2358 targets (core genome). Isolate numbers are found within the nodes, and the numbers between the nodes indicate the number of different alleles. Colors demonstrate the MLST sequence type of the isolates.
Antibiotics 10 00339 g002
Figure 3. Minimum spanning tree of E. coli based on 2513 targets (core genome). Isolate numbers are found within the nodes, and the numbers between the nodes indicate the number of different alleles. Colors demonstrate the Pasteur sequence type of the isolates.
Figure 3. Minimum spanning tree of E. coli based on 2513 targets (core genome). Isolate numbers are found within the nodes, and the numbers between the nodes indicate the number of different alleles. Colors demonstrate the Pasteur sequence type of the isolates.
Antibiotics 10 00339 g003
Table 1. Analysis of antimicrobial resistance determinants, ordered by strain and MLST type, of the assessed E. coli isolates. ST = Sequence type.
Table 1. Analysis of antimicrobial resistance determinants, ordered by strain and MLST type, of the assessed E. coli isolates. ST = Sequence type.
Sample IDST-TypeAcquired Resistance Determinants Against
Beta lacatamsSulfonamidsTrimethoprimMakrodlidsTetracyclinsFluoroquinolonesChloramphenicolAminoglycosidesEfflux pumpsAmino acid exchanges due to point mutationsDisinfectant resistance genes *
041ST 2blaOXA-1, blaTEM-1B, blaCTX-M-15sul1dfrA17mph(A)tet(B)aac(6′)-Ib-cr, aac(6′)-Ib-crcatB3,
catA1
aac(3)-IId, aac(6′)-Ib-cr, aadA5, aac(6′)-Ib-crmdf(A)parE p.S458A, gyrA p.S83L, gyrA p.D87N, parC p.S80IsitABCD, qacE
049ST 3blaTEM-1Bsul2, sul1,dfrA12mph(A)tet(A) aadA2, aph(3″)-Ib, aph(6)-Idmdf(A) sitABCD-like,
qacE
068ST 632blaTEM-1Bsul3dfrA12 tet(A) cmlA1aadA1, aadA2mdf(A)-likeparE p.S458A, gyrA p.S83L, gyrA p.D87N, parC p.S80I
117ST 4blaTEM-1Bsul1, sul2dfrA7 tet(A) catA1aph(6)-Id, aph(3″)-Ibmdf(A)-like sitABCD-like, qacE
152ST 22blaCARB-2, blaTEM-1Bsul1dfrA1ere(B)tet(B) catA1aadA1, aadA2bmdf(A)-likegyrA p.S83LqacE, sitABCD
176ST 132blaTEM-1Bsul1dfrA7 tet(A) catA1aph(3″)-Ib, aph(6)-Idmdf(A) qacE, sitABCD
221ST 132blaTEM-1Bsul1dfrA7 tet(A) catA1aph(6)-Id, aph(3″)-Ibmdf(A) qacE, sitABCD
222ST 132blaTEM-1Bsul1, sul2dfrA7 tet(A) catA1aph(3″)-Ib, aph(6)-Idmdf(A) qacE, sitABCD
225ST 506blaTEM-1D, blaCTX-M-15sul1, sul2dfrA17mph(A)tet(A) catA1aadA5, aph(6)-Id, aph(3″)-Ibmdf(A)-likegyrA p.S83L, parE p.I529LsitABCD-like, qacE
245ST 2blaTEM-1Bsul1dfrA12mph(A)tet(B)qepA4 (neu)catA1aadA2, aac(3)-IIdmdf(A)parE p.S458A, gyrA p.S83L, gyrA p.D87N, parC p.S80IqacE
270ST 2blaCTX-M-15 tet(B) catA1 mdf(A)gyrA p.S83L, gyrA p.D87N, parE p.S458A, parC p.S80I
299ST 1018blaTEM-1Bsul3dfrA14 tet(A)qnrS1 mdf(A)
* sitABCD = peroxides resistance, qacE = quaternary ammonium compounds resistance.
Table 2. Analysis of virulence determinants, ordered by strain and MLST type, of the assessed E. coli isolates. ST = Sequence type.
Table 2. Analysis of virulence determinants, ordered by strain and MLST type, of the assessed E. coli isolates. ST = Sequence type.
Sample IDST-TypePathogenicity Factor Groups
AdherenceInvasionToxinImmune EvasionIron UptakeProtease
041ST 2fdeCaslA, ompA entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG,
049ST 3 aslA, kpsC, kpsD, kpsE, kpsF, kpsM, kpsU, kpsS-like, ompA chuS, chuU, chuV, chuW, chuY, entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG
068ST 632 ompA entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG
117ST 4 aslA, kpsC, kpsD, kpsE, kpsF, kpsM, kpsU; kpsS-like, ompAhlyB, hlyC, hlyD,tcpCchuA, chuS, chuT, chuU, chuV, chuW, chuX, chuY, entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG, hlyA, iroN, pic, sat, vat
152ST 22sfaB, sfaC, sfaD, sfaE, sfaF, sfaG, sfaH, sfaS, sfaX, sfaYaslA, kpsC, kpsD, kpsE, kpsF, kpsM, kpsU; kpsS-like, ompAcnf1; hlyA, hlyB, hlyC, hlyD,tcpCchuA, chuS, chuT, chuU, chuV, chuW, chuX, chuY, entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG, iroN,vat
176ST 132 aslA, kpsC, kpsD, kpsE, kpsF, kpsM, kpsU; kpsS-like, ompA entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG,sat
221ST 132 aslA, kpsC, kpsD, kpsE, kpsM, kpsU; kpsS-like, ompA entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG,sat
222ST 132 aslA, kpsC, kpsD, kpsE, kpsF, kpsM, kpsU; kpsS-like, ompA entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG,sat
225ST 506 aslA, kpsC, kpsD, kpsE, kpsF, kpsM, kpsU; kpsS-like, ompA chuA, chuS, chuT, chuU, chuV, chuW, chuX, chuY, entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepC, fepD, fepG,sat
245ST 2 aslA, ompA entA-like, entB, entC, entE, entF, entS, fepB, fepC, fepD, fepG
270ST 2 aslA, ompA entA-like, entB, entC, entE, entS, fepA, fepB, fepC, fepD, fepG
299ST 1018 ompA entA-like, entB, entC, entE, entF, entS, fepA, fepB, fepD, fepG
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Dekker, D.; Pankok, F.; Thye, T.; Taudien, S.; Oppong, K.; Akenten, C.W.; Lamshöft, M.; Jaeger, A.; Kaase, M.; Scheithauer, S.; et al. Clonal Clusters, Molecular Resistance Mechanisms and Virulence Factors of Gram-Negative Bacteria Isolated from Chronic Wounds in Ghana. Antibiotics 2021, 10, 339. https://doi.org/10.3390/antibiotics10030339

AMA Style

Dekker D, Pankok F, Thye T, Taudien S, Oppong K, Akenten CW, Lamshöft M, Jaeger A, Kaase M, Scheithauer S, et al. Clonal Clusters, Molecular Resistance Mechanisms and Virulence Factors of Gram-Negative Bacteria Isolated from Chronic Wounds in Ghana. Antibiotics. 2021; 10(3):339. https://doi.org/10.3390/antibiotics10030339

Chicago/Turabian Style

Dekker, Denise, Frederik Pankok, Thorsten Thye, Stefan Taudien, Kwabena Oppong, Charity Wiafe Akenten, Maike Lamshöft, Anna Jaeger, Martin Kaase, Simone Scheithauer, and et al. 2021. "Clonal Clusters, Molecular Resistance Mechanisms and Virulence Factors of Gram-Negative Bacteria Isolated from Chronic Wounds in Ghana" Antibiotics 10, no. 3: 339. https://doi.org/10.3390/antibiotics10030339

APA Style

Dekker, D., Pankok, F., Thye, T., Taudien, S., Oppong, K., Akenten, C. W., Lamshöft, M., Jaeger, A., Kaase, M., Scheithauer, S., Tanida, K., Frickmann, H., May, J., & Loderstädt, U. (2021). Clonal Clusters, Molecular Resistance Mechanisms and Virulence Factors of Gram-Negative Bacteria Isolated from Chronic Wounds in Ghana. Antibiotics, 10(3), 339. https://doi.org/10.3390/antibiotics10030339

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