Abstract

Simple SummaryDespite the existence of powerful therapeutic agents, cancer is still an incurable disease in many clinical scenarios. In this regard, nanomedicine and particularly polymeric nanoparticles have raised attention as a manner to improved drug delivery. Polymeric nanoparticles can optimize existent compounds or be used to improve the formulation for novel therapeutics. In this article the advantages and disadvantages of polymeric nanoparticles will be discussed, and current nanodevices, raw materials for their formulation, methods of formulation, and polymeric nanoparticles in clinical investigations will be reviewed. Finally, options for improvement and clinical applications will be suggested.Many therapeutic agents have failed in their clinical development, due to the toxic effects associated with non-transformed tissues. In this context, nanotechnology has been exploited to overcome such limitations, and also improve navigation across biological barriers. Amongst the many materials used in nanomedicine, with promising properties as therapeutic carriers, the following one stands out: biodegradable and biocompatible polymers. Polymeric nanoparticles are ideal candidates for drug delivery, given the versatility of raw materials and their feasibility in large-scale production. Furthermore, polymeric nanoparticles show great potential for easy surface modifications to optimize pharmacokinetics, including the half-life in circulation and targeted tissue delivery. Herein, we provide an overview of the current applications of polymeric nanoparticles as platforms in the development of novel nanomedicines for cancer treatment. In particular, we will focus on the raw materials that are widely used for polymeric nanoparticle generation, current methods for formulation, mechanism of action, and clinical investigations.

Highlights

  • At the end of the nineties, nanomedicine arose as a panacea for the diagnosis and treatment of diseases

  • The mechanism of action of polymeric NPs is based on the enhanced permeability and retention (EPR) effect

  • There are more than 15 nanomedicines on the market for cancer treatment [98]

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Summary

Introduction

At the end of the nineties, nanomedicine arose as a panacea for the diagnosis and treatment of diseases. These NPs are stable during storage, and large-scale production is feasible They show great potential for easy surface modifications to optimize pharmacokinetics, including the half-life in circulation and tissue delivery, and, by modulating the polymer structure, loading and release kinetics can be controlled [27,28,29]. It is worth noting other advantages of polymeric NPs, such as the ease of customized surfaces to be constructed to recognize target proteins and cells [30], along with the generation of stimuli-responsive nanodevices [31,32]. Urothelial carcinoma, cholangiocarcinoma, cervical cancer and squamous cell carcinoma of the head and neck

From Raw Materials to Polymeric NPs
Other Synthetic Polymers
Mechanism of Action of Polymeric NPs
Representative release for polymeric
The Release of stage the Therapeutic
Cellular
Stage III
Cellular and Intracellular Barriers
Crystallinity
Degradability
Type of Surfactants
Systemic Administration of Polymeric NPs Is Common for Cancer Treatment
The mechanism of of action of of polymeric
Methods to Formulate
Polymeric NPs in Clinical Investigations
Guided and Smart NPs
Conclusions
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