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- Applications of innovative synthetic strategies in anticancer . . .
This review summarizes the novel synthetic strategies employed in the development of anticancer drugs over the past five years, particularly focusing on new molecular structures discovered through innovative methods such as C H activation, cyclization reactions, multicomponent reactions, cross-coupling reactions, and photo- and electro- catalytic reactions
- Emerging Techniques in Cancer Therapy: Precision Targeting . . .
The continuous evolution of cancer therapy has driven the exploration of novel strategies to improve treatment specificity and efficacy while minimizing adverse effects This article examines two innovative approaches that offer new directions in targeting cancer cells The first approach focuses on developing antibodies that specifically bind to peptide major histocompatibility complex (MHC
- Mesenchymal stem cells - the secret agents of cancer . . .
For example, MSCs can be loaded with chemotherapeutic drugs, oncolytic viruses, or genetic material that encodes for anti-cancer proteins This targeted approach ensures that the therapeutic agents are concentrated at the tumor site, enhancing their efficacy while minimizing systemic exposure and reducing side effects
- Small molecules in targeted cancer therapy: advances . . . - Nature
Due to the advantages in efficacy and safety compared with traditional chemotherapy drugs, targeted therapeutic drugs have become mainstream cancer treatments Since the first tyrosine kinase
- 2 NANOTECHNOLOGY IN DRUG DELIVERY SYSTEMS - Wiley Online Library
Using nanotechnology for anthocyanins can protect them from various types of degradation and increase bioavailability for effective therapeutic activity at target sites 40 Through encapsulation, anthocyanins can be efficiently delivered to cancer cells, exerting their anticancer effects more effectively while minimizing systemic toxicity
- Innovative Strategies in Cancer Therapy: Overcoming . . .
The structural rigidity of molecules is key in creating compounds that can precisely bind to cancer-related proteins sites improving accuracy while minimizing side effects Strategies like cyclization, backbone modifications, and conjugation with polymers can improve the stability and efficacy of therapeutic peptides
- Use of nanosystems to improve the anticancer effects of . . .
Curcumin in cancer therapy Figure 1 summarizes the effects of CUR on cancerous processes, according to information generated from clinical trials In vitro studies have revealed that the anticancer effects of CUR are mainly due to proapoptotic and antiangiogenic actions, which are regulated by different cell signaling pathways, such as Wnt β-catenin, PI3K Akt, JAK STAT, MAPK, p53, and NF-ĸB []
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