Kirbas Cilingir Emel, Besbinar Omur, Giro Linda, Bartoli Mattia, Hueso Jose L, Mintz Keenan J, Aydogan Yagmur, Garber Jordan M, Turktas Mine, Ekim Okan, Ceylan Ahmet, Unal Mehmet Altay, Ensoy Mine, Arı Fikret, Ozgenç Çinar Ozge, Ozturk Berfin Ilayda, Gokce Cemile, Cansaran-Duman Demet, Braun Markus, Wachtveitl Josef, Santamaria Jesus, Delogu Lucia Gemma, Tagliaferro Alberto, Yilmazer Açelya, Leblanc Roger M
Department of Chemistry, University of Miami, 1301 Memorial Drive, Coral Gables, FL, 33146, USA.
Department of Biomedical Engineering, Faculty of Engineering, Ankara University, Ankara, 06830, Turkey.
Small. 2024 May;20(18):e2309283. doi: 10.1002/smll.202309283. Epub 2024 Jan 17.
The appeal of carbon dots (CDs) has grown recently, due to their established biocompatibility, adjustable photoluminescence properties, and excellent water solubility. For the first time in the literature, copper chlorophyllin-based carbon dots (Chl-D CDs) are successfully synthesized. Chl-D CDs exhibit unique spectroscopic traits and are found to induce a Fenton-like reaction, augmenting photodynamic therapy (PDT) efficacies via ferroptotic and apoptotic pathways. To bolster the therapeutic impact of Chl-D CDs, a widely used cancer drug, temozolomide, is linked to their surface, yielding a synergistic effect with PDT and chemotherapy. Chl-D CDs' biocompatibility in immune cells and in vivo models showed great clinical potential.Proteomic analysis was conducted to understand Chl-D CDs' underlying cancer treatment mechanism. The study underscores the role of reactive oxygen species formation and pointed toward various oxidative stress modulators like aldolase A (ALDOA), aldolase C (ALDOC), aldehyde dehydrogenase 1B1 (ALDH1B1), transaldolase 1 (TALDO1), and transketolase (TKT), offering a deeper understanding of the Chl-D CDs' anticancer activity. Notably, the Chl-D CDs' capacity to trigger a Fenton-like reaction leads to enhanced PDT efficiencies through ferroptotic and apoptotic pathways. Hence, it is firmly believed that the inherent attributes of Chl-CDs can lead to a secure and efficient combined cancer therapy.
近年来,碳点(CDs)因其已确立的生物相容性、可调节的光致发光特性和出色的水溶性而备受关注。在文献中首次成功合成了基于叶绿素铜钠的碳点(Chl-D CDs)。Chl-D CDs表现出独特的光谱特征,并被发现可引发类芬顿反应,通过铁死亡和凋亡途径增强光动力疗法(PDT)的疗效。为了增强Chl-D CDs的治疗效果,一种广泛使用的癌症药物替莫唑胺被连接到其表面,与PDT和化疗产生协同效应。Chl-D CDs在免疫细胞和体内模型中的生物相容性显示出巨大的临床潜力。进行了蛋白质组学分析以了解Chl-D CDs潜在的癌症治疗机制。该研究强调了活性氧形成的作用,并指向了各种氧化应激调节因子,如醛缩酶A(ALDOA)、醛缩酶C(ALDOC)、醛脱氢酶1B1(ALDH1B1)、转醛缩酶1(TALDO1)和转酮醇酶(TKT),从而更深入地了解Chl-D CDs的抗癌活性。值得注意的是,Chl-D CDs引发类芬顿反应的能力通过铁死亡和凋亡途径提高了PDT效率。因此,人们坚信Chl-CDs的固有属性能够带来安全有效的联合癌症治疗。