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Challenges in cancer treatment: Cancer is a deadly disease. Traditional treatment methods include surgery, chemotherapy, and radiotherapy, which have problems such as nonspecific distribution and low tumor target levels.
Electrospinning technology: The technology of using electrostatic force to spray polymer solutions into nanofibers has the characteristics of large surface area, high load capacity, and easy modification.
Characteristics of nanofibers: Electrospun nanofibers have a microstructure similar to the extracellular matrix (ECM), which promotes cell adhesion and proliferation and is beneficial to tissue regeneration.
Cancer treatment platform: Electrospun nanofiber-derived scaffolds are a promising cancer treatment platform that allows the delivery of therapeutic ingredients at the target site and reduces adverse effects on normal tissues.
Review content: The latest research on electrospun nanofibers and their derived composite scaffolds in the field of cancer treatment, including chemotherapy, photodynamic therapy, thermal therapy, gene therapy, etc. is reviewed.
Technical advantages: Electrospinning technology can produce nanofibers with high porosity and large surface area, which are suitable as drug carriers to improve therapeutic effects.
Therapeutic efficiency and multifunctionality: Electrospun nanofiber-derived scaffolds can achieve controlled release of drugs and have multifunctional properties such as anti-adhesion and hemostasis.
Challenges in clinical translation: Although electrospun nanofiber-derived scaffolds have shown potential in cancer treatment, they still face challenges in clinical translation, such as effective drug penetration and drug resistance issues.
Future directions: Optimize synergistic effects and develop innovative scaffold-based strategies to achieve precise and effective cancer treatment while reducing systemic toxic side effects.
Unique properties of nanofibers: Electrospun nanofibers have a large surface area, a variety of matrix materials, the ability to load and deliver a variety of drugs, and high porosity.
Potential for cancer treatment: These properties make electrospun nanofibers have great potential in a variety of cancer treatments, including chemotherapy, PDT, hyperthermia, gene therapy, etc.
Combination therapy and multifunctional therapy: Electrospun nanofiber-derived scaffolds can serve as a multimodal combination therapy platform, allowing the co-delivery of multiple therapeutic drugs.
New strategies and optimization: Researchers are committed to optimizing drug loading and release properties and developing new strategies to control drug release to achieve sustained and localized delivery of therapeutic drugs to tumor sites.