The combination of the Ce6/PP123 NCs with a novel wearable OLED is a promising platform for effective and safe PDT in cancer treatment and shows optimal spectral characteristics and the highest therapeutic efficacy in vitro.
Abstract
Photodynamic therapy (PDT) is a minimally invasive cancer treatment strategy. Despite numerous studies confirming its potential advantages, the clinical translation of this technique remains limited owing to the impracticality of using conventional light sources and the instability of photosensitizers. This study presents a novel PDT approach that utilizes organic light‐emitting diodes (OLEDs) as compact, low‐thermal, wearable, and flexible light sources to activate chlorin e6 (Ce6)‐loaded Pluronic nanocapsules (Ce6/Plu NCs) for anticancer therapy. Here, different types of Pluronic polymers are used and optimized to synthesize ∼120 nm‐diameter Ce6/Plu NCs. Among the formulated systems, the Ce6/PP123 NCs show optimal spectral characteristics and the highest therapeutic efficacy in vitro, and efficient tumor accumulation after intravenous injection and significant antitumor efficacy upon OLED irradiation with minimal off‐target toxicity in vivo. Tissue‐attachable OLEDs for PDT can be placed in close proximity to tumor tissue for efficient light delivery. The combination of the Ce6/PP123 NCs with a novel wearable OLED is a promising platform for effective and safe PDT in cancer treatment.
This review highlights mechanisms, recent advances, and translational challenges of natural PS‐based nanotherapeutics across multiple cancers, emphasizing strategies to improve delivery, selectivity, and therapeutic outcomes for next‐generation PDT.
Nanomedicine has reshaped healthcare, especially in targeted drug delivery systems (DDSs) and diagnostics, addressing the limitations of traditional cancer therapies. Integration of photodynamic therapy (PDT) with nanoparticle‐based DDSs has significantly improved the targeted accumulation and pharmacokinetic propert...
Athira Narayanan, Benedetta di Chiara Stanca, Daniela Pinheiro et al.· Visual Information Expert Wo...· 0 citations
Cancer phototherapies, such as photodynamic therapy (PDT) and photothermal therapy (PTT), are often limited by poor tumor accumulation, insufficient penetration, and lack of real-time adaptability to the tumor microenvironment. To address these challenges, we developed an intelligent nanoscale theranostic nanoplatfor...
Zhuoran Lin, Wenjing Wu, Hang Zhao et al.· ACS Applied Nano Materials· 0 citations
Urothelial carcinoma is a common urinary malignancy with high recurrence, easy progression to muscle-invasive disease, and resistance to conventional therapies. To address the clinical challenges of poor drug retention, low bioavailability, severe toxicity, and the inability of monotherapy to inhibit tumor recurrence a...
Fa-You Zhou, Jun Wang, Rui Xu et al.· Colloids and Surfaces B: Bio...· 0 citations
Photodynamic therapy (PDT) faces significant challenges in treating solid tumors due to the hypoxic tumor microenvironment and high degree of tumor heterogeneity. To address this issue, this study employed a strategy of acceptor planarization coupled with tunable terminal aryl modulation to design and synthesize a seri...
Xuemei Dong, Lingan Zeng, Yunlong Liu et al.· Advanced Healthcare Material...· 1 citation
In this study, we investigated the tumor-accumulating efficacy of photodynamic therapy (PDT) mediated by an aluminum chloride phthalocyanine-loaded nanoemulsion (AlClPc-NE) against breast cancer (MCF-7 and MDA-MB-231) and non-tumorigenic (MCF-10A) cell lines. The optimized AlClPc-NE formulation exhibited a mean hydrody...
C. C. Jayme, D. S. Fernandes, F. S. Matsuo et al.· Discover Nano· 0 citations
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