Vadym Kryzhevskyi1Viktor Strokous1Yurii Lifshyts2Yurii Rybianets1Artem Oberniak3,4Alexey Krikunov5Olga Iungin6,7Viktoria Potochilova8Kateryna Rudnieva9
Pavlo Petakh10,11
Aleksandr Kamyshnyi10
Olena Moshynets6*- 1Kyiv City Clinical Hospital No 6, Kyiv, Ukraine
- 2Oxford Medical Clinic, Kyiv, Ukraine
- 3Bila Tserkva City Hospital No 2, Bila Tserkva, Ukraine
- 4Shupyk National Healthcare University of Ukraine, Kyiv, Ukraine
- 5Amosov National Institute of Cardiovascular Surgery, Kyiv, Ukraine
- 6Biofilm Study Group, Department of Cell Regulatory Mechanisms, Institute of Molecular Biology and Genetics, National Academy of Sciences of Ukraine, Kyiv, Ukraine
- 7Department of Biotechnology, Leather and Fur, Faculty of Chemical and Biopharmaceutical Technologies, Kyiv National University of Technologies and Design, Kyiv, Ukraine
- 8Kyiv City Maternity Hospital No 2, Kyiv, Ukraine
- 9Bogomolets National Medical University, Kyiv, Ukraine
- 10Department of Microbiology, Virology, and Immunology, I. Horbachevsky Ternopil National Medical University, Ternopil, Ukraine
- 11Department of Biochemistry and Pharmacology, Uzhhorod National University, Uzhhorod, Ukraine
Antimicrobial resistance recognised as a major global health problem and it poses a significant challenge in conflict zones, such as the Russia-Ukraine war. This case study focuses on a 32-year-old soldier who sustained combat-related injuries, including extensive wound infections caused by multidrug-resistant and pan-resistant bacteria and was successfully treated with azithromycin-meropenem combination therapy. The emergence of pan-resistant bacteria, particularly a pandrug-resistant strain of Pseudomonas aeruginosa, highlights the severity of the problem and the limited treatment options available. Additionally, the financial burden posed by reserve antibiotics further complicates the management of these infections. The case study demonstrates the effectiveness of including azithromycin-meropenem combination therapy in the treatment regimen, which resulted in improvements in the patient’s condition and the eradication of the resistant strains. The findings underscore the need for effective antimicrobial stewardship, infection control measures, and alternative treatment strategies to combat antimicrobial resistance in conflict zones.
Introduction
Antimicrobial resistance is one of the most serious global public health threats. Wars are often associated with antibiotic resistance outbreaks, and, consequently, the conflict in Ukraine has significantly impacted the local and global spread of аntimicrobial resistance (1–3). Combat-related injuries often present complex and challenging medical scenarios that require rapid and comprehensive treatment to ensure the best possible outcomes. In the context of conflict, such as the Russia-Ukraine war, healthcare systems face unique challenges (4–7). Consequently, the Russian war against Ukraine dramatically influenced on antibiotic resistance local and global spread (8–12).
One of the alarming consequences of the Russia-Ukraine war is the emergence of super-resistant bacteria, or superbugs, including pandrug-resistant (PDR) strains. Pan-resistant bacteria are resistant to all available antibiotics, leaving healthcare providers without standard treatment options. This not only possess a significant threat to the lives of war-wounded patients but also presents a challenge in terms of infection control and public health (12, 13).
Furthermore, the high cost of reserve antibiotics further exacerbates the challenges faced by healthcare providers (12, 14). In 2021, the WHO updated the AWaRe classification of antibiotics; this included eight reserve antibiotics for the treatment of multidrug-resistant pathogens. It contains cefiderocol, ceftazidime + avibactam, colistin, fosfomycin, linezolid, meropenem + vaborbactam, plazomicin, and polymyxin B (15) (cited July 7, 2023). However, their limited availability and high prices hinder their accessibility, particularly in resource-constrained conflict settings. This scarcity of effective antibiotics adds another layer of complexity to the management of combat-related injuries, jeopardizing the already precarious health outcomes for patients.
This case report focuses on the treatment of a 32-year-old soldier who sustained substantial injuries during battle in Ukraine. By examining the patterns of antimicrobial resistance observed in a war-wounded patient from Ukraine, this case study aims to shed light on the difficulties associated with pan-resistant bacteria in the context of conflict and suggests a new therapeutic approach that may be applied when PDR Gram-negative infection. Following the CARE checklist, this report aims to provide a thorough analysis of the case, ensuring transparency and adherence to established reporting guidelines (https://www.care-statement.org/, accessed on July 15, 2023).
Patient information
A 32-year-old male soldier received a penetrating abdominal injury after a fight in the Donbas. Initial medical care was provided by the advanced surgical group of the reinforcement in Druzkivka; following stabilization the patient was transferred to the Dnipro Regional Clinical Hospital by I. I. Mechnikov the same day. Upon admission, the patient’s condition was critical. He was under medical sedation and had a plaster cast on his left hand. Breathing assistance was provided through an endotracheal tube connected to a transport ventilator, initially through a Maquet respirator in Synchronized Intermittent Mandatory Ventilation (SIMV) mode. Hemodynamics were stable with normal blood pressure. Heart sounds were muffled. The patient’s abdomen was tense, and no peristalsis was audible. Abdominal bandages showed saturation with blood. Urinary output was managed through a Foley urinary catheter, and central venous catheters had been inserted in the right and left subclavian vein.
Clinical findings
The patient presented with a series of significant clinical findings:
1. Gunshot shrapnel blind penetrating abdominal injury with damage to the small and large intestine.
2. Hemoperitoneum, indicating the presence of blood in the peritoneal cavity.
3. Entrapment of the small intestine, complicating the patient’s condition.
4. Significant soft tissue defect of the anterior abdominal wall.
5. Gunshot fracture of the 3rd finger at the level of the middle phalanx.
6. Open fracture of the 2nd and 5th fingers at the level of the distal phalanx of the left hand with a foreign body.
Timeline
On April 20, 2023, the patient was admitted to the Dnipro Regional Clinical Hospital by I. I. Mechnikov. A laparotomy was performed, and the damaged small intestine was sutured. The colon underwent obstructive resection, and an abdominal tamponade was applied as part of damage control surgery. Additionally, the patient received primary surgical treatment for the left-hand wound, including removal of a foreign body and application of a plaster cast.
The following day, April 21, 2023, a relaparotomy was conducted, along with an abdominal cavity revision. The small intestine and descending colon were resected, and a side-to-side entero-enteroanastomosis was performed. An ileostomy was created, and abdominal tamponade was implemented.
On April 24, 2023, another relaparotomy was carried out to inspect the abdominal cavity. A descending-sigmoid anastomosis was performed, and the large cap was resected. Tampons were removed, and a necrectomy of the anterior abdominal wall wound was performed. A Vacuum-Assisted Closure (VAC) system was installed to aid in wound healing.
A lower tracheostomy was performed on April 26, 2023, followed by a removal of the VAC system on April 27, 2023. A relaparotomy was performed to revise the abdominal cavity, suture the small intestine defect, and reinstall the VAC system.
The patient stayed in the Dnipro Regional Clinical Hospital by I. I. Mechnikov for eight days before he was transferred to Kyiv City Clinical Hospital No 6 in Kyiv. During these eight days, there was no microbiological investigation performed with, however, empirical antibiotic therapy with ceftazidim (20–23 of April), meropenem (23–28 of April), linezolid (20–28 of April), metronidazole (20–28 of April), and clindamycin (25–28 of April).
Diagnostic assessment
Upon arrival at Kyiv City Clinical Hospital No 6 the diagnostic assessments performed on the patient included a CT scan of the chest and abdominal cavities, a clinical blood count, leukocyte count, and measurement of procalcitonin levels. The CT scan revealed multiple fragments in the abdominal cavity. The clinical blood count assessed various blood cell counts. Procalcitonin levels were measured as a biomarker for bacterial infections.
Microbiology analyses were carried out on sputum, wound, urine samples and blood catheters regularly to monitor microbial infections. The samples underwent laboratory testing to determine the specific microorganisms present and assess their susceptibility to a range of antibiotics. The antibiotic susceptibility testing was performed using the disk-diffusion method in accordance with the guidelines set by the European Committee on Antimicrobial Susceptibility Testing (EUCAST) (Version 13.0, 2023, for all of the antibiotics except tigecycline where Version 8.0, 2018, was used. http://www.eucast.org, accessed on July 15, 2023).
The wound samples obtained from the patient revealed the presence of multidrug-resistant (MDR) strains of Escherichia coli and Klebsiella pneumoniae. Furthermore, extensively drug-resistant (XDR) strains of E. coli, K. pneumoniae and Acinetobacter baumannii were also isolated from the wound. Notably, a pandrug resistant (PDR) strain of P. aeruginosa was identified, indicating resistance to a wide range of antimicrobial agents.
Similarly, the sputum samples (due to a ventilation associated pneumonia, VAP) collected from the patient exhibited the presence of MDR strains of E. coli and A. baumannii. Additionally, a PDR strain of P. aeruginosa, as well as XDR strains of K. pneumoniae and A. baumannii were isolated from the sputum (Supplementary material).
Therapeutic intervention
The following medications were administered during treatment in Kyiv City Clinical Hospital No 6 (Figure 1): sodium colistimethate (colistin) was prescribed at a dosage of 2 MO every 8 h IV from the 1st to the 16th day of treatment. 50 mg tigecycline was given IV every 12 h from day 1 to 19 and from day 32 to 31. Azithromycin, a macrolide antibiotic, was included in the treatment plan. The patient received a dosage of 500 mg of azithromycin every 8 h IV from the 10th to the 37th day. Meropenem, a carbapenem antibiotic, was prescribed at a dosage of 2 g every 8 h IV from the 17th to the 37th day of treatment.
Figure 1. The dynamic correlation of some inflammatory markers as well as WBC and stabs during antibacterial treatment performed in Kyiv City Clinical Hospital No 6. WBC-white blood cells; NLR- a neutrophil lymphocyte ratio; PCT – procalcitonin; W-wound; S – sputum; MDR – multidrug-resistant; XDR – extensively drug-resistant; PDR – pandrug resistant; EC – E. coli; AB – A. baumannii; KP – K. pneumoniae; PA – P. aeruginosa.
Outcomes
The introduction of azithromycin into the treatment regimen on day 10 resulted in notable improvements in the patient’s condition. Procalcitonin level, which serve as a marker for bacterial infection, showed a consistent decline over the course of treatment (Figure 1). On day 10, the procalcitonin level was measured at 1.69 ng/mL. Within 7 days (by day 17) it decreased to 0.8 ng/mL during which the same antibiotics were given as since the beginning of the therapy (colistin and tigecycline). By day 23 it had decreased to 0.307 ng/mL, and further decreased to 0.18 ng/mL by day 36.
The appearance of a PDR P. aeruginosa isolate correlated with the increase in WBC and NLR indicating a considerable immunogenicity of the P. aeruginosa isolate found the same day in both wound and sputum samples. A significant NLR increase occurred three days from the moment when PDR P. aeruginosa was detected, and azithromycin therapy was started. A considerable dynamic reduction in stabs and PCT started on the 7th day when both colistin and tigecycline were replaced with meropenem even though all of the detected isolates were resistant to this antibiotic. Interestingly, the PDR P. aeruginosa isolate was replaced with a non-MDR P. aeruginosa isolate sensitive to five antibiotics which were ineffective against the previous P. aeruginosa isolate (Supplementary material). The meropenem added on the 7th day since the azithromycin therapy started (day 17th of the treatment in Kyiv), considerably improved PCT, WBC, stabs dynamics and resulted in a complete normalization by day 36. The subsequent monitoring and treatment strategy led to the complete eradication of the PDR/non-MDR P. aeruginosa strains by day 31. This successful outcome demonstrates the effectiveness of the implemented therapeutic interventions in targeting and eliminating the PDR P. aeruginosa -associated infection.
Furthermore, encouraging progress was observed in the healing of the stoma wound. The wound underwent a process of granulation, which involves the formation of new tissue, and exhibited signs of healing. This positive development suggests that the combination of the prescribed medications and wound care measures facilitated the healing process (Figure 2).
Figure 2. The 9-day old (A) and the same wound on day 36 (B).
Systemic antimicrobial therapy was stopped on the 37th day, when the patient was stable, with no recurrence of the sepsis markers and a PCT not higher that 0.25 ng/mL for the following two weeks and he finally was released from the intensive care unit.
Discussion
Sepsis caused by super-resistant multi-infection was diagnosed in the patient. Until transportation to Kyiv City Clinical Hospital No 6 and within the first 8 days, only MDR gram-negative isolates were detected. It is important to emphasize that all these four isolates were sensitive to tigecycline, and they hypothetically may be still sensitive to colistin, as colistin-resistance is still not so often encountered in Ukrainian hospital isolates, as demonstrated before (16) or as demonstrated by other authors (17). However, despite this rational combined antimicrobial therapy with colistin and tigecycline, the condition of the patient decreased: he had hypothermia, anemia, underwent two blood transfusions, his bilirubin level was increased and PCT varied from 3.247 to 1.698 ng/mL (Figure 3). All this indicated that phenotypic resistance to both colistin and tigecycline developed following biofilm formation during infection process despite the confirmed genetic sensitivity to one antibiotic and expected sensitivity to another. The phenotypic resistance should always be suspected if a recommended rational therapy does not improve the condition of a patients within three days.
Figure 3. The dynamic correlation of some biochemical markers during antibacterial treatment performed in Kyiv City Clinical Hospital No 6. BUN-blood urea nitrogen; Tbil-total bilirubin; PCT – procalcitonin; W-wound; S – sputum; MDR – multidrug-resistant; XDR – extensively drug-resistant; PDR – pandrug resistant; EC – E. coli; AB – A. baumannii; KP – K. pneumoniae; PA – P. aeruginosa.
The newly suggested therapy was focused on anti-biofilm therapy and included azithromycin which was effective against gram-negative XDR/PDR Ukrainian Hospital Isolates as shown before (16, 18). The combination therapy with azithromycin and meropenem was suggested based on own previous experimental and clinical data which confirmed that both antibiotics demonstrated a strong synergistic effect in vivo against diverse gram-negative hospital isolates. Moreover, this synergism cannot be observed for individual isolates in the standard recommended in vitro assays as it is biofilm dependent and specific in vivo due to enhanced bactericidal efficacy of AZM in a physiologically relevant environment. In other words, when the infection is caused by gram-negative bacteria with the XDR/PDR phenotype, azithromycin-meropenem can be used without additional synergism testing. Indeed, the beginning of the azithromycin therapy provoked immunostimulation (quick rise of NLR and stabs) but a decrease in PCT (0.8 ng/mL) (Figure 1). Since colistin therapy demonstrated nephrotoxicity (BUN increased up to 18 mmoL/L) (Figure 3) and because our new experimental data demonstrates that the adaptation to azithromycin mitigates PDR phenotype and restores sensitivity to meropenem in PDR K. pneumoniae (Abstract No 03094, Poster No P04461 presented as a poster during ECCMID 2023) colistin and tigecycline were replaced with meropenem (19). This resulted in fast normalization of PCT (from 0.8 to less than 0.25 ng/mL), normalization of WBS, stabs and NLR. Interestingly, as predicted in our research, PDR P. aeruginosa restores the sensitivity to meropenem, but not only to that. In general, PDR P. aeruginosa was replaced with non-MDR P. aeruginosa sensitive to five antibiotics on day 12 of azithromycin therapy and following 5 days of therapy with meropenem (Supplementary material). 1,500 mg of azithromycin daily was nicely tolerated; the only observed side effect was the appearance of individual myelocytes and blast cells in peripheral blood which might be explained by the inhibition of nuclear factor kappa B (NF-kB) by azithromycin (20) which it turn promotes myelogenesis (21). Atypical cells disappeared within three days after completion of the azithromycin therapy.
The successful use of azithromycin-meropenem combination demonstrates a low-cost approach for combating XDR/PDR in multiple gram-negative infections of war wounds in Ukraine. Another approach such as cefiderocol is unlikely to be effective in Ukraine due to its high price and fast resistance development (12). Berger (12) also suggests to use a combination of ceftazidime/avibactam and aztreonam, as this would restore the sensitivity to NDM-producing gram-negative hospital isolates. The latter are present in up to 99% of the Ukrainian hospital isolates (even carbapenem-sensitive, unpublished data), However, this may not be effective in Ukraine due to the low quality of the available aztreonam (personal observation).
Data availability statement
The raw data supporting the conclusions of this article will be made available by the authors, without undue reservation.
Ethics statement
The studies involving humans were approved by Institute of Molecular Biology and Genetics. The studies were conducted in accordance with the local legislation and institutional requirements. The participants provided their written informed consent to participate in this study. Written informed consent was obtained from the individual(s) for the publication of any potentially identifiable images or data included in this article. Written informed consent was obtained from the participant/patient(s) for the publication of this case report.
Author contributions
KV: Formal analysis, Data curation, Methodology, Resources. SV: Data curation, Formal analysis, Methodology, Resources, Visualization. LY: Data curation, Formal analysis, Methodology, Resources. RY: Data curation, Formal analysis, Methodology, Resources. OA: Formal analysis, Methodology. KrA: Conceptualization, Investigation, Methodology. IO: Investigation, Methodology. PV: Investigation, Methodology. RK: Investigation, Methodology. PP: Formal analysis, Writing – original draft, Writing – review & editing. KaA: Formal analysis, Conceptualization, Writing – original draft, Writing – review & editing. OM: Data curation, Formal analysis, Funding acquisition, Investigation, Methodology, Project administration, Resources, Supervision, Validation, Visualization, Writing – original draft, Writing – review & editing.
Funding
The author(s) declare financial support was received for the research, authorship, and/or publication of this article. This research was funded by the National Research Foundation of Ukraine (https://nrfu.Org.ua/en/) (accessed on 17–18 September 2020, protocol No 21) within the frame of the project “Development of combined therapy for severe Klebsiella pneumoniae–associated nosocomial infections to overcome the antibiotic resistance” (2020.02/0246).
Acknowledgments
The authors would like to express their sincere thanks towards the Ukrainian Army and the Ukrainian engineers for their fantastic support in defending the country. The authors thank Geert Potters for his constant invaluable support of the Ukrainian researchers. OM personally thanks to her friend Anton Solomin who became the first volunteer to successfully undergo an experimental treatment of PDR P. aeruginosa/A. baumannii – associated infection with only the azithromycin-meropenem combination which inspired her for further research and broader applied medical practice.
Conflict of interest
The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.
Publisher’s note
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Supplementary material
The Supplementary material for this article can be found online at: https://www.frontiersin.org/articles/10.3389/fmed.2023.1264492/full#supplementary-material
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Keywords: MDR, PDR, XDR gram-negative infections, low-cost therapy, pandrug resistance, hospital infection, war wounds, Russian-Ukrainian war
Citation: Kryzhevskyi V, Strokous V, Lifshyts Y, Rybianets Y, Oberniak A, Krikunov A, Iungin O, Potochilova V, Rudnieva K, Petakh P, Kamyshnyi A and Moshynets O (2023) Case report: Azithromycin-meropenem combination therapy as a low-cost approach to combat PDR gram-negative infections of war wounds in Ukraine. Front. Med. 10:1264492. doi: 10.3389/fmed.2023.1264492
Edited by:
Amir Sasan Mozaffari Nejad, Jiroft University of Medical Sciences, IranReviewed by:
Mohammad Reza Arabestani, Hamadan University of Medical Sciences, IranPrasanth Manohar, Texas A&M University, United States
Copyright © 2023 Kryzhevskyi, Strokous, Lifshyts, Rybianets, Oberniak, Krikunov, Iungin, Potochilova, Rudnieva, Petakh, Kamyshnyi and Moshynets. This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
*Correspondence: Olena Moshynets, bW9zaHluZXRzQGdtYWlsLmNvbQ==