Exploration of Biogenic Nano-chemobiotics Fabricated by Silver Nanoparticle and Galactoxyloglucan with an Efficient Biodistribution in Solid Tumor Investigated by SERS Fingerprinting.
Manu M JosephJyothi B NairRamya N AdukkadanNeethu HariRaveendran K PillaiAnanthakrishnan J NairKaustabh Kumar MaitiSreelekha T Thankappan NairPublished in: ACS applied materials & interfaces (2017)
An incredible exploration ensued of a dual modality nanocomposite wherein chemotherapy in fusion with antibacterial efficacy is obtained in a biogenic fabrication, which transformed as a novel nano-chemobiotics (NCB) prevailing fundamental molecular level investigation by surface-enhanced Raman scattering (SERS) platform. The nanocomposite is a facile, robust, and ecofriendly constitution between silver nanoparticles (SNPs) and a naturally occurring galactoxyloglucan (PST001) denoted as SNP@PST, which displayed biocompatibility with an upgraded selective cytotoxicity toward cancer cells. The relatively nontoxic nature of the SNP@PST on normal cells and red blood cells was further proved by detailed toxicological profiling on BALB/c mice. As a unique outcome, we observed excellent antibacterial activity, which is complementary to the greater cytotoxicity by the NCB. In diagnostic aspect, SNP@PST was revealed to be a superior SERS substrate with multiscale Raman signal enhancement contributed by homogeneous hot-spot distribution. Finally, the inherent SERS feature enabled us to investigate the biodistribution of the NCB in tumor-challenged mice using Raman fingerprinting and mapping analysis. Hence, the unrevealed SNP@PST orchestrated with the surfactant-free green method resembled a potential theransonstic NCB construct with synergistic anticancer and antibacterial potential in a single platform.
Keyphrases
- silver nanoparticles
- genome wide
- gold nanoparticles
- raman spectroscopy
- reduced graphene oxide
- sensitive detection
- high density
- quantum dots
- label free
- red blood cell
- dna methylation
- induced apoptosis
- high throughput
- high fat diet induced
- genetic diversity
- single cell
- machine learning
- highly efficient
- pet imaging
- deep learning
- cell cycle arrest
- high resolution
- carbon nanotubes
- squamous cell carcinoma
- mass spectrometry
- human health
- adipose tissue
- endoplasmic reticulum stress
- cancer therapy
- drug delivery
- type diabetes
- gene expression
- tissue engineering
- locally advanced
- cell death
- anti inflammatory
- liquid chromatography
- insulin resistance
- tandem mass spectrometry
- genome wide analysis