Targeted Hybrid Nanocarriers as Co-Delivery Systems for Enhanced Cancer Therapy
Joan Onyebuchi Erebor1, Elizabeth Oladoyin Agboluaje2, Ava M Perkins3
1MAFEREB, LLC, 46701 Commerce Center Dr. Plymouth, MI 48170-2475 USA.
Abstract:
Hybrid nanocarriers have realized a growing interest in drug delivery research because of the potential of being able to treat, manage or cure diseases that previously had limited therapy or cure. Cancer is currently considered the second leading cause of death globally. This makes cancer therapy a major focus in terms of the need for efficacious and safe drug formulations that can be used to reduce the rate of morbidity and mortality globally. The major challenge encountered over the years with cancer chemotherapy is the non-selectivity of anticancer drugs, leading to severe adverse effects in patients. Multidrug resistance has also resulted in treatment failure in cancer chemotherapy over the years. Hybrid nanocarriers can be targeted to the site and offer co-delivery of two or more chemotherapeutics, thus leading to synergistic or additive results. This makes hybrid nanocarriers an extremely attractive type of drug delivery system for cancer therapy. Hybrid nanocarrier systems are also attracting attention as possible non-viral gene vectors that could have a higher level of transfection, and be efficacious, with the added advantage of being safer than viral vectors in clinical settings. An extensive review of various aspects of hybrid nanocarriers was discussed in this paper. It is envisaged that in the future, metastatic cancers, multi-drug resistant cancers, and low prognosis cancers like pancreatic cancers, will have a lasting solution via hybrid nanocarrier formulations with targeted co-delivery of therapeutics.
Insights
Hybrid nanocarriers offer targeted drug delivery for cancer therapy, addressing challenges like non-selectivity and multidrug resistance. These advanced systems show promise for treating difficult cancers and as safer gene vectors.
Area of Science:
- Biomedical Engineering
- Nanotechnology
- Drug Delivery
Background:
- Cancer remains a leading global cause of death, necessitating improved therapeutic strategies.
- Conventional chemotherapy faces challenges including poor drug selectivity and multidrug resistance, leading to severe side effects and treatment failures.
- Hybrid nanocarriers are emerging as a promising solution in drug delivery research.
Purpose of the Study:
- To review the multifaceted aspects of hybrid nanocarriers in the context of drug delivery.
- To highlight the potential of hybrid nanocarriers in overcoming limitations of current cancer therapies.
- To explore their application as non-viral gene vectors.
Main Methods:
- Extensive literature review on hybrid nanocarrier systems.
- Analysis of their properties for targeted drug delivery and gene transfection.
- Discussion of their advantages over conventional therapies and viral vectors.
Main Results:
- Hybrid nanocarriers enable targeted delivery of therapeutics to specific sites.
- They facilitate co-delivery of multiple drugs, potentially leading to synergistic effects.
- These systems demonstrate potential for enhanced transfection efficiency and safety as non-viral gene vectors.
Conclusions:
- Hybrid nanocarriers represent a significant advancement in drug delivery for cancer treatment.
- They offer a viable strategy to combat challenges like multidrug resistance and non-selectivity in cancer chemotherapy.
- Future applications may include effective treatments for metastatic, multidrug-resistant, and low-prognosis cancers.
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