C. Li, X. Ma, S. Fang, et al., “Mitochondria‐Targeted Nanomotor: H2S‐Driven Cascade Therapy for Hepatocellular Carcinoma,” Advanced Materials, 38, no. 8, (2026): e13757, https://doi.org/10.1002/adma.202513757.
1. The authors identified a figure preparation oversight involving the photothermal conversion measurement data presented in Figures 2c,d and S6. These panels have now been corrected using the appropriate dataset, and Figure S6 has also been updated in the revised Supporting Information. The corresponding text in Section 2.3 has been revised accordingly. This correction is for the sake of accuracy in the academic record, and the error does not change any of the conclusions drawn in this work. We sincerely apologize to the readers for this error.
2. Some minor figure‐labeling/layout inconsistencies were identified in Figure 2g–j and have now been corrected. In Figure 6a–c, the nuclear counterstaining was mistakenly labeled as “DAPI” and has now been corrected to “Hoechst”. In addition, the “with CM” and “without CM” labels in Figure 7a were inadvertently reversed during figure assembly and have also been corrected. These corrections are limited to figure labeling/layout and do not affect the underlying experimental data, quantitative results, data interpretation, or any conclusions drawn in this work. We sincerely apologize to the readers for the errors.
The corresponding text in Section 2.3 has been corrected as follows:
“… with a maximum rise of 31.5°C at 0.5 mg/mL, whereas DI water showed only a minor increase of 2.1°C, …”
The corrected Figure 2 is shown here.
FIGURE 2 Characterization of GT, mPTT, and EDT mediated by Au2Pt@4sMSN/PS‐TPP@CM in vitro. (a) GSH depletion ability of Au2Pt@4sMSN/PS‐TPP@CM. (b) Fluorescence intensity detection of H2S generation. (c) Temperature change curve of Au2Pt@4sMSN/PS‐TPP@CM at various concentrations. (d) Temperature variation curve during the three turn‐on/off cycles of Au2Pt@4sMSN/PS‐TPP@CM. (e) Infrared thermography images of Au2Pt@4sMSN/PS‐TPP@CM under 808 nm laser irradiation. (f) POD‐like enzyme activity of Au2Pt@4sMSN and Au2Pt@WO. (g) POD‐like enzyme activity of Au2Pt@WO under different pH values. (h) POD‐like enzyme activity of Au2Pt@WO under 808 nm laser irradiation. (i) Fluorescence spectrum of oxygen generation of Au2Pt@WO. (j) Oxygen generation curve of Au2Pt@WO at different concentrations or under 808 nm laser irradiation. (k) Glucose consumption ability of Au2Pt@WO. (l) H2O2 generation after the incubation of Au2Pt@WO with glucose solution. (m) pH change curve following the incubation of Au2Pt@WO with glucose solution. (n) Schematic of the three‐enzyme cascade activity of Au2Pt@WO.
The revised Figures 6a–c and 7a with corrected labels are shown here.
FIGURE 6 H2S‐driven multimodal cascade therapy in vitro. (a) Fluorescence images and analysis of ROS staining. (b) Fluorescence images and analysis of JC‐1 staining. (c) Fluorescence images and analysis of MPTP detection.
FIGURE 7 (a) In vivo biodistribution fluorescence images of Au2Pt@4sMSN/Cy5.5‐TPP@CM and Au2Pt@4sMSN/Cy5.5‐TPP at different time points.
The corrected Figure S6 is shown here.
FIGURE S6 The temperature change curves of the 0.5 mg/mL solution under 808 nm laser irradiation at 0.5, 0.75, and 1 W.
We apologize for these errors.
