Potential Use of Nitrogen-Doped Carbon Nanotube Sponges as Payload Carriers Against Malignant Glioma
Authors:
- Alelí SalazarASAlelí Salazar
- Verónica Pérez-De la CruzVerónica Pérez-De la Cruz
- Emilio Muñoz-SandovalEMEmilio Muñoz-Sandoval
- Víctor ChavarriaVCVíctor Chavarria
- María de Lourdes García MoralesMMMaría de Lourdes García Morales
- Alejandra Espinosa-BonillaAEAlejandra Espinosa-Bonilla
- Julio SoteloJSJulio Sotelo
- Anabel Jiménez-AnguianoAnabel Jiménez-Anguiano
- Benjamín PinedaBPBenjamín Pineda
Open Access
- 8 May 2021
- journal article
- research article
- Published by MDPI AG in Nanomaterials
- Vol. 11 (5) , 1244
Abstract
Glioblastoma is the most aggressive brain tumor with a low median survival of 14 months. The only Food and Drug Administration (FDA)-approved treatment for topical delivery of the cancer drug carmustine is Gliadel. However, its use has been associated with several side-effects, mainly provoked by a mass effect. Nitrogen-doped carbon nanotube sponges (N-CNSs) are a new type of nanomaterial exhibiting high biocompatibility, and they are able to load large amounts of hydrophobic drugs, reducing the amount of carriers. This study evaluated the use of N-CNSs as potential carmustine carriers using malignant glioma cell lines. N-CNSs were characterized by nanoparticle tracking analysis and transmission electron microscopy. The biocompatibility of N-CNSs was determined in glioma cell lines and in primary astrocytes. Afterward, N-CNSs were loaded with carmustine (1:10 w/w), and the drug and liberation efficiency, as well as cytotoxicity induction, were determined. N-CNSs presented a homogeneous size distribution formed by round nanotubes, without induced cytotoxicity, at concentrations below 40 µg/mL. The N-CNSs loaded with carmustine exhibited a continuous kinetic release of carmustine with a maximum release after 72 h. The cytotoxic effect of N-CNSs loaded with carmustine was similar to that of carmustine alone. The results demonstrated that N-CNSs are a biocompatible nanostructure that could be used as carriers for the tumoral load of large amounts of chemotherapeutic agents.Keywords
Funding Information
- Consejo de Investigación sobre Salud y Cerveza de México, A. C. Fomento a la Investigación 2019 (110-19)
This publication has 23 references indexed in Scilit:
- A Review of the Economic Burden of Glioblastoma and the Cost Effectiveness of Pharmacologic TreatmentsPharmacoEconomics, 2014
- Colloidal RBC‐Shaped, Hydrophilic, and Hollow Mesoporous Carbon Nanocapsules for Highly Efficient Biomedical EngineeringAdvanced Materials, 2014
- The role of Gliadel wafers in the treatment of high-grade gliomasExpert Review of Anticancer Therapy, 2013
- Carbon nanotubes functionalized with fibroblast growth factor accelerate proliferation of bone marrow-derived stromal cells and bone formationNanotechnology, 2013
- Drug delivery strategies for the treatment of malignant gliomasInternational Journal of Pharmaceutics, 2012
- Space-occupying cyst development in the resection cavity of malignant gliomas following Gliadel® implantation – incidence, therapeutic strategies, and outcomeJournal of Clinical Neuroscience, 2011
- Biodegradable Carmustine Wafers (Gliadel) Alone or in Combination with Chemoradiotherapy: The French ExperienceAnnals of Surgical Oncology, 2010
- Overall survival of newly diagnosed glioblastoma patients receiving carmustine wafers followed by radiation and concurrent temozolomide plus rotational multiagent chemotherapyCancer, 2009
- Retinoblastoma Loss Modulates DNA Damage Response Favoring Tumor ProgressionPLOS ONE, 2008
- Use of Gliadel (BCNU) Wafer in the Surgical Treatment of Malignant Glioma: A 10-Year Institutional ExperienceAnnals of Surgical Oncology, 2008