Home / Articles / Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors

Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors

Lyubov Yur'evna Filatova 1
Lyubov Yur'evna Filatova
,  , 
Elena Vadimovna Kudryashova 1
Elena Vadimovna Kudryashova
1 Lomonosov Moscow State University, Faculty of Chemistry
Published 30 November 2017
33
Share
Cite this
GOST
 | 
Cite this
GOST
Filatova L. Y., Klyachko N. L., Kudryashova E. V. Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors // Russian Chemical Reviews. 2017. Vol. 87. No. 4. pp. 374-391.
GOST all authors (up to 50)
Filatova L. Y., Klyachko N. L., Kudryashova E. V. Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors // Russian Chemical Reviews. 2017. Vol. 87. No. 4. pp. 374-391.
RIS
 | 
Cite this
RIS
TY - JOUR
DO - 10.1070/RCR4740
UR - https://rcr.colab.ws/publications/10.1070/RCR4740
TI - Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors
T2 - Russian Chemical Reviews
AU - Filatova, Lyubov Yur'evna
AU - Klyachko, Natalya L'vovna
AU - Kudryashova, Elena Vadimovna
PY - 2017
DA - 2017/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 374-391
IS - 4
VL - 87
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
@article{2017_Filatova,
author = {Lyubov Yur'evna Filatova and Natalya L'vovna Klyachko and Elena Vadimovna Kudryashova},
title = {Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors},
journal = {Russian Chemical Reviews},
year = {2017},
volume = {87},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4740},
number = {4},
pages = {374--391},
doi = {10.1070/RCR4740}
}
MLA
Cite this
MLA
Filatova, Lyubov Yur'evna, et al. “Targeted delivery of anti-tuberculosis drugs to macrophages: targeting mannose receptors.” Russian Chemical Reviews, vol. 87, no. 4, Nov. 2017, pp. 374-391. https://rcr.colab.ws/publications/10.1070/RCR4740.
Views / Visits / Downloads
27 / 26 / 6

Abstract

The development of systems for targeted delivery of anti-tuberculosis drugs is a challenge of modern biotechnology. Currently, these drugs are encapsulated in a variety of carriers such as liposomes, polymers, emulsions and so on. Despite successful \textit{in vitro} testing of these systems, virtually no success was achieved \textit{in vivo}, because of low accessibility of the foci of infection located in alveolar macrophage cells. A promising strategy for increasing the efficiency of therapeutic action of anti-tuberculosis drugs is to encapsulate the agents into mannosylated carriers targeting the mannose receptors of alveolar macrophages. The review addresses the methods for modification of drug substance carriers, such as liposomes and biodegradable polymers, with mannose residues. The use of mannosylated carriers to deliver anti-tuberculosis agents increases the drug circulation time in the blood stream and increases the drug concentration in alveolar macrophage cells.

The bibliography includes 113 references.

Funders

Russian Science Foundation
15-13-00063

References

1.
rcr_87_4_374_bib1
Mohajan
Am. J. Infect. Dis. , 2015
2.
rcr_87_4_374_bib2
Sanzhakov
Ann. Russ. Acad. Med. Sci. , 2013
3.
Pulmonary drug delivery systems for tuberculosis treatment
Pham D., Fattal E., Tsapis N.
International Journal of Pharmaceutics , 2015
4.
rcr_87_4_374_bib4
Griffiths
Nat. Rev.: Microbiol. , 2010
5.
rcr_87_4_374_bib5
Brazhenko
2011
6.
New old challenges in tuberculosis: Potentially effective nanotechnologies in drug delivery
Sosnik A., Carcaboso Á.M., Glisoni R.J., Moretton M.A., Chiappetta D.A.
Advanced Drug Delivery Reviews , 2010
7.
Macrophage-Specific Targeting of Isoniazid Through Mannosylated Gelatin Microspheres
Tiwari S., Chaturvedi A.P., Tripathi Y.B., Mishra B.
AAPS PharmSciTech , 2011
8.
Association of the anti-tuberculosis drug rifampicin with a PAMAM dendrimer
Bellini R.G., Guimarães A.P., Pacheco M.A., Dias D.M., Furtado V.R., de Alencastro R.B., Horta B.A.
Journal of Molecular Graphics and Modelling , 2015
9.
State of the art and future directions in nanomedicine for tuberculosis
Dube A., Lemmer Y., Hayeshi R., Balogun M., Labuschagne P., Swai H., Kalombo L.
Expert Opinion on Drug Delivery , 2013
10.
Liposomes as drug delivery systems for the treatment of TB
Pinheiro M., Lúcio M., Lima J.L., Reis S.
Nanomedicine , 2011
12.
Effect of surface-mannose modification on aerosolized liposomal delivery to alveolar macrophages
Chono S., Kaneko K., Yamamoto E., Togami K., Morimoto K.
Drug Development and Industrial Pharmacy , 2010
13.
rcr_87_4_374_bib13
Zhuravleva
Okhrana Materinstva i Detstva. , 2016
14.
rcr_87_4_374_bib14
Erokhin
2013
16.
Rifampicin-loaded liposomes for the passive targeting to alveolar macrophages:in vitroandin vivoevaluation
Zaru M., Sinico C., De Logu A., Caddeo C., Lai F., Manca M.L., Fadda A.M.
Journal of Liposome Research , 2009
18.
Design of liposomal aerosols for improved delivery of rifampicin to alveolar macrophages
Vyas S.P., Kannan M.E., Jain S., Mishra V., Singh P.
International Journal of Pharmaceutics , 2004
20.
Rifabutin encapsulated in liposomes exhibits increased therapeutic activity in a model of disseminated tuberculosis
Gaspar M.M., Cruz A., Penha A.F., Reymão J., Sousa A.C., Eleutério C.V., Domingues S.A., Fraga A.G., Filho A.L., Cruz M.E., Pedrosa J.
International Journal of Antimicrobial Agents , 2008
22.
Biological evaluation of pyrazinamide liposomes for treatment of Mycobacterium tuberculosis
El-Ridy M.S., Mostafa D.M., Shehab A., Nasr E.A., Abd El-Alim S.
International Journal of Pharmaceutics , 2007
23.
Nebulization of liposome encapsulated antitubercular drugs in guinea pigs
Pandey R., Sharma S., Khuller G.K.
International Journal of Antimicrobial Agents , 2004
25.
Oral solid lipid nanoparticle-based antitubercular chemotherapy
26.
Inhaled Solid Lipid Microparticles to target alveolar macrophages for tuberculosis
Maretti E., Rossi T., Bondi M., Croce M.A., Hanuskova M., Leo E., Sacchetti F., Iannuccelli V.
International Journal of Pharmaceutics , 2014
27.
Nanoparticles: Characteristics, Mechanisms of Action, and Toxicity in Pulmonary Drug Delivery—A Review
Gill S., Löbenberg R., Ku T., Azarmi S., Roa W., Prenner E.J.
Journal of Biomedical Nanotechnology , 2007
28.
Nanomedicine and experimental tuberculosis: facts, flaws, and future
Pandey R., Ahmad Z.
Nanomedicine: Nanotechnology, Biology, and Medicine , 2011
29.
Inhaled drug therapy for treatment of tuberculosis
Misra A., Hickey A.J., Rossi C., Borchard G., Terada H., Makino K., Fourie P.B., Colombo P.
Tuberculosis , 2011
30.
Investigation of polymeric nanoparticles as carriers of enalaprilat for oral administration
Ahlin P., Kristl J., Kristl A., Vrečer F.
International Journal of Pharmaceutics , 2002
31.
Isoniazid conjugated poly(lactide-co-glycolide): Long-term controlled drug release and tissue regeneration for bone tuberculosis therapy
Huang D., Li D., Wang T., Shen H., Zhao P., Liu B., You Y., Ma Y., Yang F., Wu D., Wang S.
Biomaterials , 2015
32.
Encapsulation of moxifloxacin within poly(butyl cyanoacrylate) nanoparticles enhances efficacy against intracellular Mycobacterium tuberculosis
KISICH K., GELPERINA S., HIGGINS M., WILSON S., SHIPULO E., OGANESYAN E., HEIFETS L.
International Journal of Pharmaceutics , 2007
33.
Development of a nanosomal formulation of moxifloxacin based on poly(butyl-2-cyanoacrylate)
Shipulo E.V., Lyubimov I.I., Maksimenko O.O., Vanchugova L.V., Oganesyan E.A., Sveshnikov P.G., Biketov S.F., Severin E.S., Heifets L.B., Gel’perina S.E.
Pharmaceutical Chemistry Journal , 2008
35.
Enantiomeric PLA–PEG block copolymers and their stereocomplex micelles used as rifampin delivery
Chen L., Xie Z., Hu J., Chen X., Jing X.
Journal of Nanoparticle Research , 2006
37.
Potential Tuberculostatic Agent: Micelle-forming Pyrazinamide Prodrug
Silva M., Ricelli N.L., El Seoud O., Valentim C.S., Ferreira A.G., Sato D.N., Leite C.Q., Ferreira E.I.
Archiv der Pharmazie , 2006
40.
rcr_87_4_374_bib40
Dutt
Indian J. Exp. Biol. , 2000
47.
Inhalable alginate nanoparticles as antitubercular drug carriers against experimental tuberculosis
Zahoor A., Sharma S., Khuller G.K.
International Journal of Antimicrobial Agents , 2005
51.
Development of a three component complex to increase isoniazid efficacy against isoniazid resistant and nonresistant Mycobacterium tuberculosis
Manning T., Plummer S., Baker T., Wylie G., Clingenpeel A.C., Phillips D.
Bioorganic and Medicinal Chemistry Letters , 2015
52.
Structural measurements and cell line studies of the copper–PEG–Amikacin complex against Mycobacterium tuberculosis
Manning T., Patel H., Wylie G., Phillips D., Jarvis J.
Bioorganic and Medicinal Chemistry Letters , 2015
53.
Structural measurements and cell line studies of the copper–PEG–Rifampicin complex against Mycobacterium tuberculosis
Manning T., Mikula R., Wylie G., Phillips D., Jarvis J., Zhang F.
Bioorganic and Medicinal Chemistry Letters , 2015
54.
The copper (II) ion as a carrier for the antibiotic capreomycin against Mycobacterium tuberculosis
Manning T., Mikula R., Lee H., Calvin A., Darrah J., Wylie G., Phillips D., Bythell B.J.
Bioorganic and Medicinal Chemistry Letters , 2014
55.
Fabrication of plant protein microspheres for encapsulation, stabilization and in vitro release of multiple anti-tuberculosis drugs
56.
rcr_87_4_374_bib56
Ahmed
Pharmazie , 2008
58.
Niosomal system for delivery of rifampicin to lymphatics
Jain C., Vyas S., Dixit V.
Indian Journal of Pharmaceutical Sciences , 2006
60.
rcr_87_4_374_bib60
Sukhoverkov
2016
61.
Micronization of levofloxacin by supercritical antisolvent precipitation
Kudryashova E.V., Deygen I.M., Sukhoverkov K.V., Filatova L.Y., Klyachko N.L., Vorobei A.M., Pokrovskiy O.I., Ustinovich K.B., Parenago O.O., Antonov E.N., Dunaev A.G., Krotova L.I., Popov V.K., Egorov A.M.
Russian Journal of Physical Chemistry B , 2016
62.
rcr_87_4_374_bib62
Kudryashova
Sverkhkritich. Flyuidy: Teor. Prakt. , 2016
63.
The immunology of tuberculosis: From bench to bedside
DHEDA K., SCHWANDER S.K., ZHU B., van ZYL-SMIT R.N., ZHANG Y.
Respirology , 2010
64.
rcr_87_4_374_bib64
Lyalikov
2005
65.
Macrophage and Mycobacterium: The war without beginning or end
Zenkov N.K., Chechushkov A.V., Kozhin P.M., Kolpakova T.A., Menshchikova E.B.
Biology Bulletin Reviews , 2016
66.
MACROPHAGE RECEPTORS AND IMMUNE RECOGNITION
Taylor P.R., Martinez-Pomares L., Stacey M., Lin H., Brown G.D., Gordon S.
Annual Review of Immunology , 2005
67.
Dectin-2 Is a Direct Receptor for Mannose-Capped Lipoarabinomannan of Mycobacteria
Yonekawa A., Saijo S., Hoshino Y., Miyake Y., Ishikawa E., Suzukawa M., Inoue H., Tanaka M., Yoneyama M., Oh-hora M., Akashi K., Yamasaki S.
Immunity , 2014
69.
rcr_87_4_374_bib69
Svirshchevskaya
Problemy Med. Mikolog. , 2005
70.
Macrophage—Mycobacterium tuberculosis interactions: role of complement receptor 3
Velasco-Velázquez M.A., Barrera D., González-Arenas A., Rosales C., Agramonte-Hevia J.
Microbial Pathogenesis , 2003
71.
rcr_87_4_374_bib71
Kokryakov
2006
72.
Mannose-targeted systems for the delivery of therapeutics
Irache J.M., Salman H.H., Gamazo C., Espuelas S.
Expert Opinion on Drug Delivery , 2008
73.
Dectin-1 and Dectin-2 in innate immunity against fungi
Saijo S., Iwakura Y.
International Immunology , 2011
74.
Sensing necrosis with Mincle
Brown G.D.
Nature Immunology , 2008
75.
Direct recognition of the mycobacterial glycolipid, trehalose dimycolate, by C-type lectin Mincle
Ishikawa E., Ishikawa T., Morita Y.S., Toyonaga K., Yamada H., Takeuchi O., Kinoshita T., Akira S., Yoshikai Y., Yamasaki S.
Journal of Experimental Medicine , 2009
78.
The Cysteine-Rich Domain of the Macrophage Mannose Receptor Is a Multispecific Lectin That Recognizes Chondroitin Sulfates a and B and Sulfated Oligosaccharides of Blood Group Lewisa and Lewisx Types in Addition to the Sulfated N-Glycans of Lutropin
Leteux C., Chai W., Loveless R.W., Yuen C., Uhlin-Hansen L., Combarnous Y., Jankovic M., Maric S.C., Misulovin Z., Nussenzweig M.C., Feizi T.
Journal of Experimental Medicine , 2000
79.
rcr_87_4_374_bib79
Torchilin
2003
80.
Surface engineering of Solid Lipid Nanoparticle assemblies by methyl α- d -mannopyranoside for the active targeting to macrophages in anti-tuberculosis inhalation therapy
Maretti E., Costantino L., Rustichelli C., Leo E., Croce M.A., Buttini F., Truzzi E., Iannuccelli V.
International Journal of Pharmaceutics , 2017
81.
Mannosylated nanoparticulate carriers of rifabutin for alveolar targeting
Nimje N., Agarwal A., Saraogi G.K., Lariya N., Rai G., Agrawal H., Agrawal G.P.
Journal of Drug Targeting , 2009
83.
Efficient targeting to alveolar macrophages by intratracheal administration of mannosylated liposomes in rats
Wijagkanalan W., Kawakami S., Takenaga M., Igarashi R., Yamashita F., Hashida M.
Journal of Controlled Release , 2008
85.
Biodistribution characteristics of mannosylated, fucosylated, and galactosylated liposomes in mice
Kawakami S., Wong J., Sato A., Hattori Y., Yamashita F., Hashida M.
Biochimica et Biophysica Acta - General Subjects , 2000
86.
Optimization of cell receptor-specific targeting through multivalent surface decoration of polymeric nanocarriers
D'Addio S.M., Baldassano S., Shi L., Cheung L., Adamson D.H., Bruzek M., Anthony J.E., Laskin D.L., Sinko P.J., Prud'homme R.K.
Journal of Controlled Release , 2013
87.
Intracellular macrophage uptake of rifampicin loaded mannosylated dendrimers
Kumar P.V., Asthana A., Dutta T., Jain N.K.
Journal of Drug Targeting , 2006
88.
The potential of chitosan for pulmonary drug delivery
Grenha A., Al-Qadi S., Seijo B., Remuñán-López C.
Journal of Drug Delivery Science and Technology , 2010
90.
Controlled release of PEI/DNA complexes from mannose-bearing chitosan microspheres as a potent delivery system to enhance immune response to HBV DNA vaccine
Zhou X., Liu B., Yu X., Zha X., Zhang X., Chen Y., Wang X., Jin Y., Wu Y., Chen Y., Shan Y., Chen Y., Liu J., Kong W., Shen J., et. al.
Journal of Controlled Release , 2007
91.
Practical synthesis and characterization of mannose-modified chitosan
Yao W., Jiao Y., Luo J., Du M., Zong L.
International Journal of Biological Macromolecules , 2012
92.
(Oligo)mannose functionalized hydroxyethyl starch nanocapsules: en route to drug delivery systems with targeting properties
Freichels H., Wagner M., Okwieka P., Meyer R.G., Mailänder V., Landfester K., Musyanovych A.
Journal of Materials Chemistry B , 2013
93.
rcr_87_4_374_bib93
Asthana
2014
94.
Chitosan-modifications and applications: Opportunities galore
Mourya V.K., Inamdar N.N.
Reactive and Functional Polymers , 2008
95.
Nanomedicine
Parveen S., Sahoo S.K.
Clinical Pharmacokinetics , 2006
96.
rcr_87_4_374_bib96
Rajan
Int. J. Pharm. Pharm. Sci. , 2012
97.
Mannose-poly(ethylene glycol)-linked SPION targeted to antigen presenting cells for magnetic resonance imaging on lymph node
Muthiah M., Vu-Quang H., Kim Y., Rhee J.H., Kang S.H., Jun S.Y., Choi Y., Jeong Y.Y., Cho C., Park I.
Carbohydrate Polymers , 2013
98.
Carbohydrate PEGylation, an approach to improve pharmacological potency
Giorgi M.E., Agusti R., de Lederkremer R.M.
Beilstein Journal of Organic Chemistry , 2014
100.
Synthesis and characterization of mannosylated pegylated polyethylenimine as a carrier for siRNA
Kim N., Jiang D., Jacobi A.M., Lennox K.A., Rose S.D., Behlke M.A., Salem A.K.
International Journal of Pharmaceutics , 2012
101.
Optimal structural design of mannosylated nanocarriers for macrophage targeting
Chen P., Zhang X., Jia L., Prud'homme R.K., Szekely Z., Sinko P.J.
Journal of Controlled Release , 2014
103.
Synthesis, characterization, molecular docking and anti-tubercular activity of Plumbagin–Isoniazid Analog and its β-cyclodextrin conjugate
Dandawate P., Vemuri K., Venkateswara Swamy K., Khan E.M., Sritharan M., Padhye S.
Bioorganic and Medicinal Chemistry Letters , 2014
104.
Drug delivery systems for fluoroquinolones: New prospects in tuberculosis treatment
Le-Deygen I.M., Skuredina A.A., Kudryashova E.V.
Russian Journal of Bioorganic Chemistry , 2017
106.
A study of the physicochemical properties and structure of moxifloxacin complex with methyl-β-cyclodextrin
Skuredina A.A., Le-Deygen I.M., Uporov I.V., Kudryashova E.V.
Colloid Journal , 2017
107.
Conjugates of cyclooligosaccharide scaffolds and carbohydrate ligands: Methods for synthesis and the interaction with lectins
Titov D.V., Gening M.L., Tsvetkov Y.E., Nifantiev N.E.
Russian Journal of Bioorganic Chemistry , 2013
109.
Synthesis of ClusterN-Glycosides Based on aβ-Cyclodextrin Core
García-López J.J., Santoyo-González F., Vargas-Berenguel A., Giménez-Martínez J.J.
Chemistry - A European Journal , 1999
111.
The complexation of glucose and other monosaccharides with cyclodextrins
Hacket F., Coteron J., Schneider H., Kazachenko V.P.
Canadian Journal of Chemistry , 1997
112.
Nanoparticle-based local antimicrobial drug delivery
Gao W., Chen Y., Zhang Y., Zhang Q., Zhang L.
Advanced Drug Delivery Reviews , 2018
113.
Drug delivery to macrophages: Challenges and opportunities