Regulating Twisted Skeleton to Construct Organ‐Specific Perylene for Intensive Cancer Chemotherapy
The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ‐specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ‐specific delivery is thus desperately d...
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Published in | Angewandte Chemie International Edition Vol. 60; no. 29; pp. 16215 - 16223 |
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Main Authors | , , , , , , , , , , , |
Format | Journal Article |
Language | English |
Published |
WEINHEIM
Wiley
12.07.2021
Wiley Subscription Services, Inc |
Edition | International ed. in English |
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Abstract | The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ‐specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ‐specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ‐specificity and present an example of lung‐specific distribution on the basis of bay‐twisted PDIC‐NC. We further demonstrate that PDIC‐NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H2O2 and .OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC‐NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof‐of‐concept demonstration of twisted perylene to well attain lung‐specific distribution, and meanwhile achieves intensive lung cancer chemotherapy.
Herein we modulate the perylene skeleton to effect organ‐specificity and present an example of lung‐specific distribution on the basis of a twisted perylene PDIC‐NC. The in vitro and in vivo biological functions of PDIC‐NC are demonstrated and its molecular mechanism for the inhibiting activity on tumour cells is revealed. |
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AbstractList | The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ‐specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ‐specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ‐specificity and present an example of lung‐specific distribution on the basis of bay‐twisted PDIC‐NC. We further demonstrate that PDIC‐NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H2O2 and .OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC‐NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof‐of‐concept demonstration of twisted perylene to well attain lung‐specific distribution, and meanwhile achieves intensive lung cancer chemotherapy.
Herein we modulate the perylene skeleton to effect organ‐specificity and present an example of lung‐specific distribution on the basis of a twisted perylene PDIC‐NC. The in vitro and in vivo biological functions of PDIC‐NC are demonstrated and its molecular mechanism for the inhibiting activity on tumour cells is revealed. The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ‐specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ‐specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ‐specificity and present an example of lung‐specific distribution on the basis of bay‐twisted PDIC‐NC. We further demonstrate that PDIC‐NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H 2 O 2 and . OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC‐NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof‐of‐concept demonstration of twisted perylene to well attain lung‐specific distribution, and meanwhile achieves intensive lung cancer chemotherapy. The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ-specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ-specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ-specificity and present an example of lung-specific distribution on the basis of bay-twisted PDIC-NC. We further demonstrate that PDIC-NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H2 O2 and . OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC-NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof-of-concept demonstration of twisted perylene to well attain lung-specific distribution, and meanwhile achieves intensive lung cancer chemotherapy.The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ-specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ-specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ-specificity and present an example of lung-specific distribution on the basis of bay-twisted PDIC-NC. We further demonstrate that PDIC-NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H2 O2 and . OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC-NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof-of-concept demonstration of twisted perylene to well attain lung-specific distribution, and meanwhile achieves intensive lung cancer chemotherapy. The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ-specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ-specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ-specificity and present an example of lung-specific distribution on the basis of bay-twisted PDIC-NC. We further demonstrate that PDIC-NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H2O2 and (OH)-O-. burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC-NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof-of-concept demonstration of twisted perylene to well attain lung-specific distribution, and meanwhile achieves intensive lung cancer chemotherapy. The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ‐specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ‐specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ‐specificity and present an example of lung‐specific distribution on the basis of bay‐twisted PDIC‐NC. We further demonstrate that PDIC‐NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H2O2 and .OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC‐NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof‐of‐concept demonstration of twisted perylene to well attain lung‐specific distribution, and meanwhile achieves intensive lung cancer chemotherapy. The systemic use of pharmaceutical drugs for cancer patients is a compromise between desirable therapy and side effects because of the intrinsic shortage of organ-specific pharmaceutical drug. Design and construction of pharmaceutical drug to achieve the organ-specific delivery is thus desperately desirable. We herein regulate perylene skeleton to effect organ-specificity and present an example of lung-specific distribution on the basis of bay-twisted PDIC-NC. We further demonstrate that PDIC-NC can target into mitochondria to act as cellular respiration inhibitor, inducing insufficient production of adenosine triphosphate, promoting endogenous H O and OH burst, elevating calcium overload, efficiently triggering the synergistic apoptosis, autophagy and endoplasmic reticulum stress of lung cancer cells. The antitumor performance of PDIC-NC is verified on in vivo xenografted, metastasis and orthotopic lung cancer, presenting overwhelming evidences for potentially clinical application. This study contributes a proof-of-concept demonstration of twisted perylene to well attain lung-specific distribution, and meanwhile achieves intensive lung cancer chemotherapy. |
Author | Ma, Feiyan Deng, Qingyuan Wang, Xuejuan Huang, Yongwei Gao, Yijian Qiao, Zeng‐Ying Liu, Zhonghua Zhu, Jianling Chen, Qing Xing, Xiaoyi Lu, Feng Wang, Hao |
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BackLink | https://www.ncbi.nlm.nih.gov/pubmed/33971079$$D View this record in MEDLINE/PubMed |
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Keywords | CELLS APOPTOSIS fluorescence image ER-STRESS MITOCHONDRIA MECHANISMS chemotherapy DELIVERY perylene LUNG-CANCER molecular mechanism IMPACT twisted skeleton AGENTS PROBE |
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SubjectTerms | Adenosine triphosphate Animals Antineoplastic Agents - chemistry Antineoplastic Agents - pharmacology Antineoplastic Agents - therapeutic use Apoptosis Apoptosis - drug effects ATP Autophagy Calcium Cell Line, Tumor Cell Proliferation - drug effects Chemistry Chemistry, Multidisciplinary Chemotherapy Drug development Drug Screening Assays, Antitumor Endoplasmic reticulum fluorescence image Humans Hydrogen peroxide Lung cancer Lung Neoplasms - drug therapy Lung Neoplasms - metabolism Lung Neoplasms - pathology Metastases Mice Mitochondria molecular mechanism perylene Perylene - analogs & derivatives Perylene - chemistry Perylene - pharmacology Phagocytosis Pharmaceuticals Physical Sciences Science & Technology Side effects twisted skeleton Xenografts |
Title | Regulating Twisted Skeleton to Construct Organ‐Specific Perylene for Intensive Cancer Chemotherapy |
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