Recent Advances in the Design of Biomedical Materials for Cancer Theranostics

References

1. ZhangX. Recent strategies and challenges in immunity and nanomaterials for cancer therapy.Curr. Top. Med. Chem.20232310878879
   [Google Scholar]
2. AnJ. HongH. WonM. RhaH. DingQ. KangN. KangH. KimJ.S. Mechanical stimuli-driven cancer therapeutics.Chem. Soc. Rev.20235213046
   [Google Scholar]
3. YangW. ShiX. ShiY. YaoD. ChenS. ZhouX. ZhangB. Beyond the roles in biomimetic chemistry: an insight into the intrinsic catalytic activity of an enzyme for tumour-selective phototheranostics.ACS Nano201812121216912180
   [Google Scholar]
4. ZhangX. YangY. KangT. WangJ. YangG. YangY. LinX. WangL. LiK. LiuJ. NiJ.S. NIR-II absorbing semiconducting polymer-triggered gene-directed enzyme prodrug therapy for cancer treatment.Small20211723e2100501
   [Google Scholar]
5. WangJ. LiJ. YuJ. ZhangH. ZhangB. Large hollow cavity luminous nanoparticles with near-infrared persistent luminescence and tunable sizes for tumour afterglow imaging and chemo-/photodynamic therapies.ACS Nano201812542464258
   [Google Scholar]
6. AthanasiouE. PapageorgiouS. DafniM.F. KelesisI. VasileiouM. TatsiouT. KouveloglouV. KanatasP. StourasI. GatsisA. AgiassotiV.T. NasimpianP. DafnoudisD. DegaitaK. VerrasG.I. AlexiouA. PapadakisM. KamalM.A. The use of isoflavones as lung cancer chemoprevention agents and their implications in treatment through radio sensitization.Curr. Med. Chem.202432221423710.2174/0109298673278897231229121524
   [Google Scholar]
7. XingY. JingR. KangJ. LiY. ZhangH. TangX. JiangZ. Carbon-based nanomaterials in photothermal therapy guided by photoacoustic imaging: state of knowledge and recent advances.Curr. Med. Chem.2024322238257
   [Google Scholar]
8. KumarL. RanaR. KomalK. AggarwalV. KumarS. ChoudharyN. FathimaH.A. LakhanpalS. Exploring the therapeutic potential of vesicular nanocarrier systems for elimination of skin cancer.Curr. Med. Chem.202432225828510.2174/0109298673297695240328074724
   [Google Scholar]
9. KanungoA. MohantyC. AcharyaS. Smart cancer nanomedicine for synergetic therapy.Curr. Med. Chem.202432228630010.2174/0109298673300897240602130258
   [Google Scholar]
10. LiuH. ZhenZ. ChenF. ChenJ. ChenW. Advancements in iron oxide nanoparticles for multimodal imaging and tumour theranostics.Curr. Med. Chem.202432230132110.2174/0109298673301359240705063544
    [Google Scholar]
11. GongY. HuX. ChenM. WangJ. Recent progress of iron-based nanomaterials in gene delivery and tumour gene therapy.J. Nanobiotechnology202422130910.2174/0109298673287448240311112523
    [Google Scholar]
12. ZhaoZ. DuR. FengX. WangZ. WangT. XieZ. YuanH. TanY. OuH. Regulating triplet excitons of organic luminophores for promoted bioimaging.Curr. Med. Chem.202432232234210.2174/0109298673301552240305064259
    [Google Scholar]
13. LaiF. FangY. ChengC. ZhongX. ZhengW. LanS. PengQ. CaiX. CaoT. ZhongC. GaoY. CDK4 as a prognostic marker of hepatocellular carcinoma and CDK4 inhibitors as potential therapeutics.Curr. Med. Chem.202432234335810.2174/0109298673279399240102095116
    [Google Scholar]
14. BorgesA.A. OuverneyG. ArrudaA.T.S. RibeiroA.V. RibeiroR.C.B. SouzaA.S. da FonsecaA.C.C. Nicolau de QueirozL.N. de AlmeidaE.C.P. PontesB. RabeloV.W. FerreiraV.F. AbreuP.A. da SilvaF.C. ForeziL. RobbsB.K. Determination of inhibitory effect of PKM2 enzyme and antitumoural activity of novel coumarin-naphthoquinone hybrids.Curr. Med. Chem.202432235937910.2174/0109298673298471240605072658
    [Google Scholar]
15. LiX. SunY. WangY. ZhouY. BaoY. ZhangZ. LiuS. YangH. ZhangR. XiaP. JiM. HouP. ChenC. Amplifying radiotherapy by evoking mitochondrial oxidative stress using a high-performance aggregation-induced emission sonosensitizer.Curr. Med. Chem.202432238039510.2174/0109298673300702240805055930
    [Google Scholar]