Tumor microenvironment-responsive touch sensor-based pH-triggered controllable conductive hydrogel AITranslate
Abstract AITranslate
A tumor microenvironment-responsive wireless strain-pressure hydrogel sensor based on pH-induced controllable nanoparticles was designed for cancer detection in vitro–in vivo model, with excellent ability to distinguish between cancer and normal cells. The pH-responsive nanoparticles (CD-PNB), comprising diol–diol crosslinked semiconducting carbon dots (CDs) and non-conductive polymer (PNB), are sensitive to acidic tumor microenvironments and play crucial role in demonstrating tumor-selective strain-pressure responses. Upon application of strain and pressure, CD-PNB@PVA hydrogel produced distinct electronic signals in the presence of cancer cells (HeLa, PC-3), exhibiting higher strain–pressure sensitivity compared to the normal cells (MDCK, CHO-K1). The strain and pressure gage factors for cancer-cell-treated CD-PNB@PVA hydrogel were found to be 0.7439 and 5.3052 kPa−1, which were higher than normal-cell-treated CD-PNB@PVA hydrogel (0.5009 and 4.2720 kPa−1). CD-PNB@PVA hydrogel demonstrated excellent response in tumor-bearing mice based on in situ and ex situ measurements, with no inflammation during hydrogel implantation. Moreover, wireless sensing system was used along with CD-PNB@PVA hydrogel to simplify monitoring process and obtain real-time conductivity and strain–pressure profiles on smartphone. Thus, this approach constructs a tumor microenvironment-responsive strain–pressure hydrogel sensor and presents potential for sensitive and selective tumor detection in point-of-care diagnostic applications. Graphical abstract Download : Download high-res image (189KB) Download : Download full-size image
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DOI:https://doi.org/10.1016/j.apmt.2021.101259
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A tumor microenvironment-responsive wireless strain-pressure hydrogel sensor based on pH-induced controllable nanoparticles was designed for cancer detection in vitro–in vivo model, with excellent ability to distinguish between cancer and normal cells. The pH-responsive nanoparticles (CD-PNB), comprising diol–diol crosslinked semiconducting carbon dots (CDs) and non-conductive polymer (PNB), are sensitive to acidic tumor microenvironments and play crucial role in demonstrating tumor-selective strain-pressure responses. Upon application of strain and pressure, CD-PNB@PVA hydrogel produced distinct electronic signals in the presence of cancer cells (HeLa, PC-3), exhibiting higher strain–pressure sensitivity compared to the normal cells (MDCK, CHO-K1). The strain and pressure gage factors for cancer-cell-treated CD-PNB@PVA hydrogel were found to be 0.7439 and 5.3052 kPa−1, which were higher than normal-cell-treated CD-PNB@PVA hydrogel (0.5009 and 4.2720 kPa−1). CD-PNB@PVA hydrogel demonstrated excellent response in tumor-bearing mice based on in situ and ex situ measurements, with no inflammation during hydrogel implantation. Moreover, wireless sensing system was used along with CD-PNB@PVA hydrogel to simplify monitoring process and obtain real-time conductivity and strain–pressure profiles on smartphone. Thus, this approach constructs a tumor microenvironment-responsive strain–pressure hydrogel sensor and presents potential for sensitive and selective tumor detection in point-of-care diagnostic applications. Graphical abstract Download : Download high-res image (189KB) Download : Download full-size image
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| GB/T 7714-2015 | [1] Akhmad Irhas Robby, Seul Gi Kim, Hyeong Jun Jo, et al. Applied Materials Today, 2021(25). DOI:10.1016/j.apmt.2021.101259. |
| MLA | [1] Akhmad Irhas Robby, et al., Applied Materials Today, no. 25, 2021, https://doi.org/10.1016/j.apmt.2021.101259. |
| APA | [1] Akhmad Irhas Robby, Seul Gi Kim, Hyeong Jun Jo, Gibaek Lee, Hyoung Sin Lee, Kang Dae Lee, Ji Hyun Ryu, & Sung Young Park. (2021). Applied Materials Today(25). https://doi.org/10.1016/j.apmt.2021.101259 |
| IEEE | [1] Akhmad Irhas Robby, Seul Gi Kim, Hyeong Jun Jo, Gibaek Lee, Hyoung Sin Lee, Kang Dae Lee, Ji Hyun Ryu, and Sung Young Park, Applied Materials Today, no. 25, 2021, doi: 10.1016/j.apmt.2021.101259. |
