Targeted Lymphoma Therapy Using a Gold Nanoframework-Based Drug Delivery System.
Manpreet BarianaBeilu ZhangJingyu SunWeiwei WangJinping WangElena CassellaFaith MyintShaina A AnuncioSamedy OukHsiou-Chi LiouMing TanHongjun WangJohannes L ZakrzewskiPublished in: ACS applied materials & interfaces (2023)
Precision nanomedicine can be employed as an alternative to chemo- or radiotherapy to overcome challenges associated with the often narrow therapeutic window of traditional treatment approaches, while safely inducing effective, targeted antitumor responses. Herein, we report the formulation of a therapeutic nanocomposite comprising a hyaluronic acid (HA)-coated gold nanoframework (AuNF) delivery system and encapsulated IT848, a small molecule with potent antilymphoma and -myeloma properties that targets the transcriptional activity of nuclear factor kappa B (NF-κB). The porous AuNFs fabricated via a liposome-templated approach were loaded with IT848 and surface-functionalized with HA to formulate the nanotherapeutics that were able to efficiently deliver the payload with high specificity to myeloma and lymphoma cell lines in vitro. In vivo studies characterized biodistribution, pharmacokinetics, and safety of HA-AuNFs, and we demonstrated superior efficacy of HA-AuNF-formulated IT848 vs free IT848 in lymphoma mouse models. Both in vitro and in vivo results affirm that the AuNF system can be adopted for targeted cancer therapy, improving the drug safety profile, and enhancing its efficacy with minimal dosing. HA-AuNF-formulated IT848 therefore has strong potential for clinical translation.
Keyphrases
- cancer therapy
- nuclear factor
- drug delivery
- toll like receptor
- hyaluronic acid
- small molecule
- diffuse large b cell lymphoma
- multiple myeloma
- mouse model
- quantum dots
- radiation therapy
- early stage
- signaling pathway
- stem cells
- emergency department
- locally advanced
- transcription factor
- cell proliferation
- immune response
- mass spectrometry
- anti inflammatory
- oxidative stress
- highly efficient
- pi k akt
- heat shock
- gold nanoparticles
- case control