CC BY
19Cellular Therapy and Transplantation (CTT). Vol. 8, No. 1, 2019 doi: 10.18620/ctt-1866-8836-2019-8-1-12-19 Submitted: 04 March 2019, accepted: 12 April 2019
Drug repurposing in leukemia treatment and hematopoietic stem cell transplantation
Alexey B. Chukhlovin
R.Gorbacheva Memorial Research Institute of Children Oncology, Hematology and Transplantation, The First St. Petersburg State I. Pavlov Medical University, St. Petersburg, Russia
Professor Dr. Alexey B. Chukhlovin, R.Gorbacheva Memo- Phone: +7 (921) 325 0094 rial Research Institute of Children Oncology, Hematology E-mail: [email protected] and Transplantation, The First St. Petersburg State I. Pavlov Medical University, L. Tolstoy St 6-8, 197022, St. Petersburg, Russia
Citation: Chukhlovin AB. Drug repurposing in leukemia treatment and hematopoietic stem cell transplantation. Cell Ther Transplant 2019; 8(1): 12-19.
Summary
Over last decade, a number of studies has concerned possible implications of "old" medical drugs, as additional tools for cancer treatment. The main reasons for extension of drug indications are as follows: (1) limited efficiency or high costs of targeted oncogene protein inhibitors or specific monoclonal antibodies for therapy;
(2) new molecular targets were revealed for some drugs traditionally used to other therapeutic purposes; and
(3) sufficient decline of development costs for the new therapies performed by the "old" drugs. The list of such repurposed drugs now includes dozens of medications commonly used for treatment of cardiovascular diseases, diabetes mellitus, epilepsia, different inflammatory disorders. The present review deals, mainly, repurposing of anti-infectious drugs, including those used in prevention and management of infectious complications occurring in cytostatic therapy of leukemia and lymphomas, e.g., tetracyclines, erythromycin derivatives, as well as fluoroquinolones, antiviral compounds etc.
The antitumor effects were of these candidates for repurposing were demonstrated upon screening of their cytostatic effects in leukemic and other cancer cell lines. Some studies were performed in experimental tumor-bearing animals. Only few clinical trials were carried out in patients with leukemias and lymphomas following he-matopoietic stem cell transplantation (HSCT), which showed some positive effects of antibacterial drugs in terms of graft-versus-host disease (GvHD) prevention, or prolonged survival of the patients. Controlled clinical trials of common anti-infectious drugs are required for this repurposing.
Keywords
Antibacterial drugs, repurposing, anticancer effects, leukemia treatment, hematopoietic stem cell transplantation.
Introduction
Additional therapeutic effects of "old", drugs for novel clinical indications have been studied over last decades. Novel suggestions for repurposing of different medical drugs for cancer treatment have been made over recent years [1, 2].
There are three main reasons for these proposals: (1) limited efficiency of novel inhibitors or specific monoclonal antibodies targeted for oncogene-specific molecules; (2) new molecular targets were revealed for some drugs traditionally
used to other therapeutic purposes; and (3) eventual decline of development costs for the new therapies performed by the "old" drugs.
A variety of drugs used in different somatic disorders is now considered as complementary tool for treatment of malignancies. These candidate compounds are listed in several indexes available online, e.g., the Drug Repurposing Portal supported by Excelra [3]. In addition, a number of recent review articles concern different aspects of old drug applications in cancer therapy [1, 4, 5].
It should be noted, however, that most cytostatic and anticancer effects of the repurposed drugs are shown in the in vitro models, or in experimental animals, thus suggesting a long way until their clinical implication. The big data collected from drug screening in different models are analyzed by different bioinformatic approaches, e.g. [6], thus accelerating the drug selection process to some degree.
The specific aim of our study was to discuss probable anticancer effects of some anti-infectious drugs which are now widely used in hematopoietic stem cell transplantation protocols.
Some candidate drugs intended for repurposing in cancer treatment are listed in Table 1.
Table 1. Summary of drugs used for treatment of common disorders, their primary indication, non-cancer and cancer targets
Agent Primary indication On-target-TARGET Primary effects On target antitumor effects Biological antitumor effects Reference
CCA Verapamil Diltiazem Anti-arrhytmic L-type Ca2+ channels L-type Ca2+channels Voltage-gated K+ channels MDR-mediated flux from tumor cells [1]
ACE inhibitors: Arterial hypertension AT II inhibitors, AT II receptor blockers RAS, ATII, VEGF activation, neoangi-ogenesis Prostate, gastric cancer - marginal effects [7]
Inotropics Digitalis art failure -digoxin Na(+)/K(+)-ATPase inhibition Na (+)/K(+)-ATPase Death receptors Glycolysis Controversial clinical results, mostly cancer increase (breast, ovary, cervix uteri) [7]
RAS Losartan Captopril Hypertension Heart failure ACE, AT1R AT1R modulation General antiangiogenic, and antimetastatic effects in vivo [1]
Antianginal Nitroglycerin Chronic heart disease GMP to cGMP conversion cGMP generation Increased response of cancer cells to cytostatic therapy in vitro and in vivo [1]
Alpha1-adrenocep-tor antagonists Terazosin Alfuzosin, Prazosin Hypertension, BPH A1R A1R, EGF receptor affected Solid tumor cell lines [1]
Blockers of ß-Adrenoreceptors Propranolol etc. Asthma etc., stress-associated disorders p-Adrenoreceptors P-AR: cAMP-PKA activation Breast, ovarian, melanoma [7]
Antiepileptic Valproic acid Epilepsia GABA ergic Blocking NMDA Na+ channels Class I-II HDACs PPARy [1, 4]
Antidiabetics Glitazones Metformin Diabetes mellitus PPARy AMPK (LKBl-dependent) PPARy AMPK Solid tumor cells [1, 5]
Cholesterol lowering agents Statins Cholesterolemia HMGC HMGC, downstream GGPP and farnesyl PP inhibition Apoptosis promotion Controversial data on lower cancer rates [7]
Statins Atherosclerosis HMGC Multiple points (Pisanti) in tumor cells and immune cells Inhibition of proliferation, apoptosis, anti-inflammatory action: lung and stomach cancer, CLL [8]
Antiinflammatory Aspirin Inflammation COX2 - TXA2 suppression COX1-2-PGE2 suppression [7]
Agent Primary indication On-target-TARGET Primary effects On target antitumor effects Biological antitumor effects Reference
Antimalarial drugs Chloroquine Malaria Lysosomas Lysosomas Autophagia [1, 9, 10]
Quinacrine Antimalarial Topoisomerase T, NFkB inhibition DNA topoisomerase, helicase Solid and other cell lines suppressed [4, 11]
Fluoroquinolones Antibacterials Topoisomerase II inhibitors Bacterial and eukaryotic topoisomerases Suppresion of proinflammatory cytokines and chemokine production [12]
Antibacterials Doxycycline Infections MMP3 MMP 2,3,9, inhib. cell proliferation, neoangiogenesis Melanoma (exp.) [13]
Tetracyclines Broad -spectrum anti-bacterial drug Binding the 30S bacterial subunit Binding 28S ribo-somal subunit in eukaryotic mitochondria Suppression of protein synthesis in normal and malignant cells [14]
Tigecycline Broad -spectrum anti-infectious agents Binding the 30S subunit of bacterial ribosomes Binding 28S ribo-somal subunit in eukaryotic mitochondria Suppression of ALL cells, primary lymphocytes and CD34 progenitors. In vitro inhibition of solid tumors [15, 16]
Azithromycin Broad-spectrum effects (erythromycin group) 50S bacterial ribo-some inhibition Suppression of 39S mitochondrial ribosomes In vitro inhibition of mammosphere formed by MCF7, T47D and other solid tumor cells [16]
Azithromycin Infections Protein synthesis suppression Antileukemic effects, antiinflam-matory effects in vivo Decreased rates of relapse in patients treated with azithromycin for CGVHD [17]
Clarithromycin Broad-spectrum effects Protein synthesis suppression Apoptosis of lymphoma cells by TNF/ caspase pathway Effective in MM and WMgu [18]
Antiviral drugs: Efavirenz HIV infection Reverse transcriptase inhibition Oxidative stress, p53 activation, apoptosis induction Leukemia cell lines [19]
Amantadine Anti-viral and anti-Parkinson drug C/EBPa expression Vitamin D receptor induction. Monocyte differentiation HL60, U937, myeloid leukemia cell lines (combined with suboptimal ATRA) [20]
Itroconazole Fungal invasions Antimetabolic effects Autophagic growth arrest Neoangiogenesis inhibition [21]
Salinomycin Coccidiosis Ionophor (K+, Ca++ transfer into the cells) Activates apoptosis in a p53/ Caspase-indepen-dent manner Human and murine AML and MML cell lines [22]
Antihelminth Niclosamide Helminthoses GSH synthetase (GS) ' ROS induction, MDR suppression, nuclear factor of activated T-cells (NFAT) decreased Leukemia, myeloma and CRC cell lines inhibition of different transcription factors [23, 24]
Drug repositioning for leukemia treatment
Metformin
This well-known anti-diabetic drug activates the AMF-reg-ulated protein kinase pathway dependent on the tumor suppressor LKB1. The LKB1/AMPK signaling may be suppressed by ERK which is activated in a half of acute myeloid leukemia (AML) cases with appropriate mutations, e.g., FLT3-ITD mutation. These cases may be susceptible for metformin and the treatment efficiency may be increased in combination with sorafenib or other novel drugs [25, 26].
Chloroquines
Pre-clinical studies of the last decade have repeatedly confirmed distinct anticancer effects of well-known antimalarial drug chloroquine and its derivatives. In particular, chloro-quine and hydroxychloroquine have relatively well-characterized toxicity profiles. Previously published review articles provide an excellent overview on diversity of chloroquine effects on cancer cells, both in the cell culture as well as on human tumors grafted into mice; and suggest incorporation of hydroxychloroquine in prospective combination schemes for clinical studies [9]. The authors discuss some common features in cancer cells that could be targeted by quinacrine and its derivatives, aiming for potential pharmaceutical intervention in oncology.
A recent work by Eriksson et al. [11] dealt with more specific quinacrine effects upon malignant blood cells. The authors have earlier selected quinacrine as the most plausible compound for its antileukemic effects, and tested this drug in vitro in combination with some common cytostatic agents (daunorubicin, cytarabine, azacitidine, etc.). Acute myeloid leukemia (AML) cell lines were cultured as a target population, then tested for cytotoxicity by fluorometric microculture. In most in vitro systems, the workers have shown distinct synergism between quinacrine and cytarabine, or azacitidine added to these cell cultures. Moreover, the in vivo usage of quinacrine (100 mg/kg, six injections for two weeks) in SCID mice bearing human AML cells caused a significant decrease in circulating blast cells and increased the median survival time of the animals. Hence, further studies may offer an "old-new", less toxic drug for combined treatment of leukemia.
Fluoroquinolones
Quinolone-based antibiotics, especially, fluoroquinolones are used over decades to manage different bacterial and pro-tozoal infections. Their microbicidal action is caused by inhibition of the ligase domain of the type II DNA topoisomer-ase, thus releasing endonuclease activities and irreversible DNA decay in the target cells, as reviewed by Idowu and Schweizer [12]. Such a universal cytotoxic effect presumes possible applications of fluoroquinolones for cancer treatment. These studies, however, are still in progress and should be substantiated in pre-clinical trials.
Tetracycline, and its derivatives
This class of antibacterials is known since 1948. Tetracyclines are widely used in medicine and agriculture to combat broad
spectrum of bacteria [14]. Despite high proportion of tet-racyclin-resistant microorganisms (due to powerful drug efflux), a new generation of these drugs was developed later on (e.g., Doxycycline, Tigecycline) which are now administered for empiric treatment, e.g., in immunocompromised patients following severe cytostatic treatment and bone marrow transplantation. Interestingly, doxorubicin, a popular anticancer antibiotic belongs to the same family of bioactive compounds.
All the tetracyclines inhibit protein assembly in Gram(+) and Gram(-) microbes by preventing the aminoacyl-tRNA binding to the acceptor sites at the ribosomes. Meanwhile, tetracyclines were also tested for treatment of a number of inflammatory diseases, due to their inhibition of matrix met-alloproteinases, antiapoptotic, antioxidative, and antiinflam-matory effects in humans [14].
Hence, the major antimicrobial effect of tetracyclines is due to their protein-inhibiting actions in bacteria. Moreover, they possess antiproliferative and pro-apoptotic effects in mammalian cancer cells, by suppressing mitochondrial ri-bosomes and energy metabolism [16]. More recently, they are also considered potential anticancer drugs. E.g., Tigecy-cline a structural homologue of tetracycline, being a potent glycylcycline antibiotic, is mostly used as a broad-spectrum drug against gram-positive and gram-negative pathogens. It reversibly binds the 30S subunit of the bacterial ribosomes, being also an inhibitor of mitochondrial biogenesis [27].
Ten malignant tumor cell lines of different origin were tested in vitro with tigecycline and doxycycline (another tetracycline derivative), showing. Tigecycline has shown its ability to inhibit the MCF7 and T47D spheroid cell growth, at the concentrations from 10 ^M to 50 ^M [16]. Moreover, tigecy-cline was previously shown to kill human AML differentiated blasts as well as leukemic stem cells in vitro and in vivo by blocking mitochondrial protein synthesis [28].
Another work concerned in vitro cytostatic effects of tigecycline on the acute lymphoblastic leukemia (ALL) showing decreased survival and suppression of clonogenic growth in malignant cell cultures [29]. Toxic effects upon normal he-matopoietic cells were less pronounced. Pharmacokinetics and potential antitumor effects make this drug a promising option when sensitizing ALL cells for chemotherapy [30].
In particular, tigecycline was studied in the Phase 1 dose-escalation study of tigecycline administered intravenously daily 5 of 7 days for 2 weeks to patients with AML. A total of 27 adult patients with relapsed and refractory AML were enrolled [27]. The authors have shown relative safety and assessed maximal tolerable doses for the drug infused into the patients with relapsed/refractory AML, however, with no evident anticancer effects revealed.
Moreover, some small clinical trials with doxycycline were performed over last years in cancer clinics (primarily aiming for infection therapy, but not cancer treatment) showing some antitumor effects in cancer patients as reviewed by Lamb et al. [16]. Initial positive results of doxycycline trials obtained in advanced or treatment-resistant cases of B-cell lymphoma [30]. This clinical effect was not, however, confirmed in more extensive studies.
Erythromycin and other macrolides
These antibacterials may also inhibit various microflora by suppressing ribosome functions. Similarly, they can inhibit mitochondrial ribosomes in eukaryotic cells, as shown in several cancer cell lines [16]. Azithromycin is an improved erythromycin derivative which is widely used in post-transplant patients, being more slowly eliminated than erythro-mycin. Its anti-infectious effect is exploited for prevention of bacterial complications in chronic infectious conditions, e.g., at later terms post-HSCT.
Surprisingly, a probable antitumor effect of azithromycin was revealed in a study by Shamoun et al. [17] published as a short abstract, where a long-term drug administration (14 days) aimed to ameliorate chronic graft-versus-graft disease (GvHD) was accompanied by decreased rates of relapse and improved survivals in a combined group of with acute leukemia, MDS, malignant lymphomas, and chronic leukemia patients.
Clarithromycin (6-O-methyl erythromycin) is also a widely used semi-synthetic macrolide drug which also has previously shown a sufficient anticancer activity against some experimental tumors [31] when used after a course of cancer chemotherapy in mice.
A recent review by van Nuffel et al. [18] has summarized numerous data obtained in human studies showing complementary effects of clarithromycin as an antibacterial drug in combined treatment of multiple myeloma, CML and other blood malignancies, especially MALT lymphomas and Hodgkin's disease studied over last 2 decades. Their general impression is that the effects of Clarithromycin may be also due to antibacterial action of the drug, thus requiring a search for tumor-targeted effects in these conditions. Clar-ithromycin significantly enhanced effect of cytostatic treatment by increasing natural killer cell activity and CD8+ T cell cytotoxicity, thus causing recovery from immunosup-pression caused by the chemotherapy.
Studies on GvHD prevention
Distinct positive effects of azithromycin were shown in murine model of experimental GVHD were reported by a Japanese group [32]. Azithromycin was administered per os to recipient BALB/c mice during H-2 incompatible BMT. The treatment was performed from day -2 to day +2. As a result, the drug-treated animals exhibited significant suppression of lethal GVHD without sufficient inhibition of donor cell engraftment. Azithromycin administration was associated with mice 70% survival of transplanted animals versus death of all mice in control group. Accordingly, the typical GvHD lesions of intestinal and liver epithelium were only minimally expressed in AZM-treated animals. The authors suggest inhibition of recipient DCs as a possible cause of GVHD suppression.
Similar results were obtained by Radhakrishnan et al. [33] in lethally irradiated B6D2F1 mice in whom acute GVHD and noninfectious lung injury were induced by injection of bone marrow and spleen cells from allogeneic C57BL/6 mice. In experimental animals, azithromycin was given for a long time orally from day +14 until 6 or 14 weeks after
transplantation. Generally, Azithromycin treatment resulted in improved survival and decreased lung injury, as shown by respiratory tests, and improved GvHD-associated injury of intestines and liver, depending, however, on the schedule of drug gavage.
A small clinical study with azithromycin for GVHD prophylaxis has yielded disappointing results in a randomized, placebo-controlled trial performed by Iranian group [34]. 96 patients with acute leukemia were subjected to HSCT from full-matched donors. All the patients received highdose chemotherapy, standard immunosuppressive regimens. Azithromycin was administered 500 mg daily in 48 cases from day -6 to +12 posttransplant, and placebo was given in other 48 cases. As a result, incidence of acute GvHD grade III-IV and chronic graft-versus-host disease did not significantly differ between the two groups. Meanwhile, oral mucositis occurred in significantly lower number of patients treated with azithromycin.
Niclosamide
Niclosamide as an approved anthelmintic agent potential anticancer agent by various high-throughput screening campaigns [24]. Niclosamide not only inhibits the Wnt/^-catenin, mTORC1, STAT3, NF-kB and Notch signaling pathways, but also targets mitochondria in cancer cells. Therefore, some in vitro screening studies have shown its anticancer activity. In the study by Hamdoun et al. [23], niclosamide showed distinct suppressive effects upon cancer cell lines. Worth of note, it revealed higher activity against leukemia cell lines CCRF-CEM, CEM/ADR5000, and RPMI-8226 compared to the solid tumor cell lines. Cytocidal action of niclosamide may be associated with increase in reactive oxygen species and glutathione (GSH) in malignant cells, thus suggesting GSH synthetase (GS) as a target for niclosamide.
Salinomycin
Salinomycin is an ionophore successfully used in the patients with coccidiosis seems also to express anti-leukemic effects [22]. AML and MLLr cell lines, primary cells and patient samples were sensitive to submicromolar salinomycin. Interestingly, colony formation of normal hematopoietic cells was unaffected by salinomycin, thus promising safer usage of this drug in further clinical trials.
Antifungal drugs
Itraconazole, a common anti-fungal agent, has demonstrated potential anticancer activity, including P-glycoprotein-medi-ated resistance by modulating the Hedgehog signaling pathways which are a target of rapamycin and Wnt/^-catenin in cancer cells. Angiogiogenesis suppression is another known effect of itroconazole in the cancer microenvironment [35]. Small clinical trials suggested the clinical benefits of itra-conazole monotherapy in different solid tumors [21].
Possible clinical effects of antibacterials due to posttransplant changes of gut microbiota
Firstly, antibacterial antibiotics, especially, for oral use, are prone for suppression of gut microbiota. E.g., Shono et al [36] have shown that some widely used antibacterials, e.g., piperacillin/tazobactam or imipenem/cilastatin are followed
by higher GVHD-related death at 5 years, due to gut microflora imbalance. Therefore, an extending viewpoint suggests damaging effects of antibacterials upon normal microbiota, thus being potentially harmful to immune reconstitution after HSCT and affect clinical outcomes in the patients [37].
Conclusion
At the present time, there is a wide list of repurposed drugs potentially applicable in cancer therapy. Of course, most of these "old" drugs are tested in vitro or in pre-clinical animal models. Hundreds of the candidate compounds are subjected to screening in susceptible malignant cell lines, then treated by means of bioinformatics techniques. Only some drugs are proposed for further pre-clinical and clinical studies, thus presentibg some hopes for successful introduction of these medications within combined schedules of cancer chemotherapy.
Introduction of the "old-new" anticancer drugs should inevitably pass the step of cell culture testing, animal experiments and clinical trials, in order to confirm antitumor activities for different malignancies. Their testing for the therapy of onco-hematological disorders has made a sufficient progress over last years, first of all, by in vitro screening studies of leukemic cell lines performed worldwide. The searched additional effects upon biological pathways in malignant cells may be discerned by means of functional genomics and "big data" mining technologies, thus providing comprehensive information concerning the drug targets [6]. The authors propose a novel functional concept of pharmacology implying artificial intelligence techniques for mining and knowledge discovery in "big data" providing comprehensive information about the drugs associated with activation or suppression of appropriate biological pathways. By this approach, the workers have designed indexes of optimal drugs for treatment of hypertension, analgesia, and candidate drugs for treatment of chronic lymphocytic leukemia. Likewise, the strategy provides successful selection of candidate drugs for repurposing tasks.
Conflict of interest
No conflicts of interest are reported.
References
1. Dueñas-González A, García-López P, Herrera LA, Medina-Franco JL, González-Fierro A, CandelariaM. The prince and the pauper. A tale of anticancer targeted agents. Molecular Cancer 2008; 7:82 doi:10.1186/1476-4598-7-82.
2. Sukhai MA, Spagnuolo PA, Weir S, Kasper J, Patton L, Schimmer AD. New sources of drugs for hematologic malignancies. Blood. 2011;117(25):6747-6755.
3. Drug Repurposing Portal http://drugrepurposingportal. com/repurposed-drug-database.php
4. Andresen V, Gjertsen BT. Drug repurposing for the treatment of acute myeloid leukemia. Front. Med. 2017. 4:211. doi: 10.3389/fmed.2017.00211.
5. Shah RR, Stonier PD. Repurposing old drugs in oncology: Opportunities with clinical and regulatory challenges ahead. J Clin Pharm Ther. 2019;44(1):6-22. doi: 10.1111/ jcpt.12759.
6. Lotsch J, Ultsch A. Process pharmacology: a pharmacological data science approach to drug development and therapy. CPT Pharmacometrics Syst Pharmacol. 2016 Apr;5(4):192-200. doi: 10.1002/psp4.12072.
7. Ishida J, Konishi M, Ebner N, Springer J. Repurposing of approved cardiovascular drugs. J Transl Med. 2016;14:269. doi: 10.1186/s12967-016-1031-5.
8. Pisanti S, Picardi P, Ciaglia E, DAlessandro A, Bi-fulco M. Novel prospects of statins as therapeutic agents in cancer. Pharmacol Res. 2014;88:84-98. doi: 10.1016/j. phrs.2014.06.013.
9. Vlahopoulos S, Critselis E, Voutsas IF, Perez SA, Moscho-vi M, Baxevanis CN, Chrousos GP. New use for old drugs? Prospective targets of chloroquines in cancer therapy. Curr Drug Targets. 2014;15(9):843-51.
10. Plantone D, Koudriavtseva T. Current and future use of chloroquine and hydroxychloroquine in infectious, immune, neoplastic, and neurological diseases: A mini-review. Clin Drug Investig. 2018;38(8):653-671.
11. Eriksson A, Chantzi E, Fryknas M, Gullbo J, Nygren P, Gustafsson M, Hoglund M, Larsson R. Towards repositioning of quinacrine for treatment of acute myeloid leukemia - Promising synergies and in vivo effects. Leuk Res. 2017;63:41-46. doi: 10.1016/j.leukres.2017.10.012.
12. Idowu T, Schweizer F. Ubiquitous nature of fluoro-quinolones: the oscillation between antibacterial and anticancer activities. Antibiotics. 2017; 6, 26; doi:10.3390/anti-biotics6040026.
13. Shehwaro N, Langlois AL, Gueutin V, Gauthier M, Casenave M, Izzedine H. Doxycycline or how to create new with the old? Therapie. 2014;69(2):129-141 (In French). doi: 10.2515/therapie/2013069.
14. Fuoco D. Classification framework and chemical biology of tetracycline-structure-based drugs. Antibiotics 2012, 1:1-13.
15. Fu X, Liu W, Huang Q, Wang Y, Li H, Xiong Y. Targeting mitochondrial respiration selectively sensitizes pedi-atric acute lymphoblastic leukemia cell lines and patient samples to standard chemotherapy. Am J Cancer Res. 2017;7(12):2395-2405.
16. Lamb R, Ozsvari B, Lisanti CL, Tanowitz HB, Howell A, Martinez-Outschoorn UE, Sotgia F, Lisanti MP. Antibiotics that target mitochondria effectively eradicate cancer stem cells, across multiple tumor types: Treating cancer like an infectious disease. Oncotarget; 2015; 6(7): 4569-4584.
17. Shamoun M, Braun Th, Magenau JM, Choi SW, Reddy P, Pawarode A, Riwes MM, Kitko CL, Anand S, Ghosh M, Lugt MW, Bonifant C, Abusin G, Parkin B, Peltier D, Yanik GA.The effect of azithromycin on relapse in patients with moderate-severe chronic graft versus host disease (CGVHD). Biol Blood Marrow Transplant. 2019; 25 (Abstracts):S26-S27.
18. Van Nuffel ANT, Sukhatme W, Pantziarka P, Meheus L, Sukhatme VP, Bouche G. Repurposing Drugs in Oncology (ReDO)-clarithromycin as an anti-cancer agent. ecancer 2015, 9:513 DOI: 10.3332/ecancer.2015.513
19. Brüning A, Jückstock J, Kost B, Tsikouras P, Weissenbacher T, Mahner S, Mylonas I. Induction of DNA damage and apoptosis in human leukemia cells by efavirenz. Oncol Rep. 2017 ;37(1):617-621. doi: 10.3892/or.2016.5243. Epub 2016 Nov 15.
20. Manzotti G, Parenti S, Ferrari-Amorotti G, Soliera AR, Cattelani S, Montanari M, Cavalli D, Ertel A, Grande A, Cal-abretta B. Monocyte-macrophage differentiation of acute myeloid leukemia cell lines by small molecules identified through interrogation of the Connectivity Map database. Cell Cycle. 2015; 14(16): 2578-2589.
21. Pantziarka P, Sukhatme V, Bouche G, Meheus L, Sukhatme VP. Repurposing Drugs in Oncology (ReDO)-itraconazole as an anti-cancer agent. Ecancermedicalscience. 2015;9:521. doi: 10.3332/ecancer.2015.521.
22. Roulston GDR, Burt CL, Kettyle LMJ, Matchett KB, Keenan HL, Mulgrew NM, RamseyJM, Dougan C, McKier-nan J, Grishagin IV, Mills KI, Thompson A. Low-dose salinomycin induces anti-leukemic responses in AML and MLL. Oncotarget. 2016 7(45): 73448-73461. doi: 10.18632/onco-target.11866.
23. Hamdoun S, Jung P, Efferth T. Drug repurposing of the anthelmintic niclosamide to treat multidrug-resist-ant leukemia. Front Pharmacol. 2017;8:110. doi: 10.3389/ fphar.2017.00110.
24. Li Y, Li PK, Roberts MJ, Arend RC, Samant RS, Buchsbaum DJ. Multi-targeted therapy of cancer by niclosamide: A new application for an old drug. Cancer Lett. 2014;349(1):8-14. doi: 10.1016/j.canlet.2014.04.003.
25. Wang F, Liu Z, Zeng J, Zhu H, Li J, Cheng X, et al. Metformin synergistically sensitizes FLT3-ITD-positive acute myeloid leukemia to sorafenib by promoting mTOR-mediat-ed apoptosis and autophagy. Leuk Res. 2015; 39:1421-1427. doi:10.1016/j.leukres.2015.09.016.
26. Sabnis HS, Bradley HL, Tripathi S, Yu WM, Tse W, Qu CK, et al. Synergistic cell death in FLT3-ITD positive acute myeloid leukemia by combined treatment with metform-in and 6-benzylthioinosine. Leuk Res. 2016; 50:132-140. oi:10.1016/j.leukres.2016.10.004.
27. Reed GA, Schiller GJ, Kambhampati S Tallman MS, Douer Dan, Minden MD, Yee KW, Gupta V, Brandwein J, Jitkova Yu, Gronda M, Hurren R, Shamas-Din A, Schuh AC, Skrtic M, Sriskanthadevan S, Jhas B, Gebbia M, Wang X, Wang Z, et al. 2011. Inhibition of mitochondrial translation as a therapeutic strategy for human acute myeloid leukemia. Cancer Cell; 20:674-688.
28. Skrtic M, Sriskanthadevan S, Jhas B, Gebbia M, Wang X, Wang Z, Hurren R, Jitkova Y, Gronda M, Maclean N, Lai CK, Eberhard Y, Bartoszko J, Spagnuolo P, Rutledge AC, Dat-ti A, Ketela T, Moffat J, Robinson BH, Cameron JH, Wrana J, Eaves CJ, Minden MD, Wang JC, Dick JE, Humphries K, Nislow C, Giaever G, Schimmer AD. Inhibition of mito-
chondrial translation as a therapeutic strategy for human acute myeloid leukemia. Cancer Cell. 2011; 20(5):674-88. doi: 10.1016/j.ccr.2011.10.015.
29. Schimmer AD. A phase 1 study of intravenous infusions of tigecycline in patients with acute myeloid leukemia. Cancer Medicine, 2016; 5(11):3031-3040.
30. Ferreri AJ, Ponzoni M, Guidoboni M, Resti AG, Politi LS, Cortelazzo S, Demeter J, Zallio F, Palmas A, Muti G, Dognini GP, Pasini E, Lettini AA, Sacchetti F, De Conciliis C, Doglio-ni C, Dolcetti R. Bacteria-eradicating therapy with doxycy-cline in ocular adnexal MALT lymphoma: a multicenter prospective trial. J Natl Cancer Inst. 2006; 98(19): 1375-1382.
31. Sassa K, Mizushima Y, Fujishita T, Oosaki R, Kobayas-hi M. Therapeutic effect of clarithromycin on a transplanted tumor in rats. Antimicrob Agents Chemother. 1999; 43(1):67-72.
32. Iwamoto S., Azuma E., Kumamoto T., Hirayama M., Yoshida T., Ito M., Amano K., Ido M., Komada Y. Efficacy of azithromycin in preventing lethal graft-versus-host disease. Clinical and Experimental Immunology, 2012;171:338-345.
33. Radhakrishnan SV, Palaniyandi S, Mueller G, Mik-los S, Hager M, Spacenko E, Karlsson FG, Huber E, Kittan NA, Hildebrandt GC. Preventive azithromycin treatment reduces noninfectious lung injury and acute graft-versus-host disease in a murine model of allogeneic hematopoietic cell transplantation. Biol Blood Marrow Transplant. 2015; 21:30-38.
34. Barkhordar M, Mohammadi M, Hadjibabaie M, Gha-vamzadeh A. SupplAzithromycin for prevention of graft-versus-host disease: A randomized placebo-controlled trial. Int J Hematol Oncol Stem Cell Res. 2018;12(2):77-83.
35. Tsubamoto H, Ueda T, Inoue K, Sakata K, Shibaha-ra H, Sonoda T. Repurposing itraconazole as an anticancer agent. Oncol Lett. 2017;14(2):1240-1246. doi: 10.3892/ ol.2017.6325.
36. Shono Y, Docampo MD, Peled JU, Perobelli SM, Velar-di E, Tsai JJ, Slingerland AE, Smith OM, Young LF, Gupta J, Lieberman SR, Jay HV, Ahr KF, Porosnicu Rodriguez KA, Xu K, Calarfiore M, Poeck H, Caballero S, Devlin SM, Rapaport F, Dudakov JA, Hanash AM, Gyurkocza B, Murphy GF, Gomes C, Liu C, Moss EL, Falconer SB, Bhatt AS, Taur Y, Pamer EG, van den Brink MRM, Jenq RR. Increased GVHD-related mortality with broad-spectrum antibiotic use after allogeneic hematopoietic stem cell transplantation in human patients and mice. Sci Transl Med. 2016 May 18; 8(339): 339ra71.
37. Goloshchapov OV, Kucher MA, Chukhlovin AB. Gut mi-crobiome in hematopoietic stem cell transplantation: patient and treatment-related factors. Cell Ther Transpant. 2018; 7(4): 16-28.
«Переназначение» лекарственных препаратов в лечении лейкозов и при трансплантации гемопоэтических стволовых клеток
Алексей Б. Чухловин
НИИ детской онкологии, гематологии и трансплантологии им. Р. М. Горбачевой, Первый Санкт-Петербургский государственный медицинский университет им. И. П. Павлова, Санкт-Петербург, Россия
Резюме
В течение последнего десятилетия появился целый ряд исследований, касающихся возможного применения «старых» медицинских препаратов в качестве дополнительных средств для лечения злокачественных новообразований. Есть следующие главные причины подобного расширения показаний для этих препаратов: (1) ограниченная эффективность и высокая стоимость новых таргетных ингибиторов онкогенных белков, или моноклональных антител для терапии; (2) выявление новых молекулярных мишеней для ряда препаратов, ранее внедренных по другим показаниям; (3) существенное снижение затрат на разработку новых средств терапии, осуществляемой «старыми» препаратами. Перечень таких «перенацеленных» препаратов сейчас включает десятки лекарств, которые часто используются, в частности, для лечения сердечно-сосудистых заболеваний, сахарного диабета, эпилепсии, различных воспалительных заболеваний. Данный обзор касается, главным образом, «переназначения» антиинфекционных препаратов, в т.ч. тех, которые используются для профилактики и лечения инфекционных осложнений, возникающих при цитоста-тической терапии лейкозов и лимфом, в частности -тетрациклинов, производных эритромицина, а также фторхинолонов, антивирусных препаратов и др.
Противоопухолевые эффекты этих препаратов-кандидатов для «переназначение» были показаны при скрининге их цитостатических эффектов на линиях лейкозных и других злокачественных клеток. Некоторые исследования проведены на экспериментальных животных-опухоленосителях. Немногие клинические испытания были проведеные в группах пациентов с лейкозами и лимфомами после трансплантации гемопоэтических стволовых клеток (ТГСК), которые показали некоторые позитивные эффекты антибактериальных препаратов в плане профилактики реакции «трансплантат против хозяина» (РТПХ) или увеличения продолжительности жизни пациентов. В этих целях необходимы контролируемые клинические исследования часто применяемых антиинфекционных препаратов.
Ключевые слова
Антибактериальные препараты, переназначение, противоопухолевые эффекты, терапия лейкозов, трансплантация гемопоэтических стволовых клеток.
