Cancer cells uniquely reprogram their cellular activities to support their rapid proliferation and migration and to coun-teract metabolic and genotoxic stress during cancer progression.In this reprograming,cancer cell...Cancer cells uniquely reprogram their cellular activities to support their rapid proliferation and migration and to coun-teract metabolic and genotoxic stress during cancer progression.In this reprograming,cancer cells’metabolism and other cellular activities are integrated and mutually regulated,and cancer cells modulate metabolic enzymes spatially and temporally so that these enzymes not only have altered metabolic activities but also have modulated subcellular localization and gain non-canonical functions.This review and several others in this issue of Cancer Communications discuss these enzymes’newly acquired functions and the non-canonical functions of some metabolites as features of cancer cell metabolism,which play critical roles in various cellular activities,including gene expression,anabolism,catabolism,redox homeostasis,and DNA repair.展开更多
Engineering DNA logic systems is considered as one of the most promising strategies for next-generation molecular computers.Owing to the inherent features of DNA,such as low cost,easy synthesis,and controllable hybrid...Engineering DNA logic systems is considered as one of the most promising strategies for next-generation molecular computers.Owing to the inherent features of DNA,such as low cost,easy synthesis,and controllable hybridization,various DNA logic devices with different functions have been developed in the recent decade.Besides,a variety of logic-programmed biological applications are also explored,which initiates a new chapter for DNA logic computing.Although this field has gained rapid developments,a systematical review that could not only elaborate the logic principles of diverse DNA logic devices but also outline recent representative works is urgently needed.In this review,we first elaborate the general classification and logical principle of diverse DNA logic devices,in which the operating strategy of these devices and representative examples are selectively presented.Then,we review state-of-the-art advancements in DNA computing based on different non-canonical DNA-nanostructures during the past decade,in which some classical works are summarized.After that,the innovative applications of DNA computing to logic-controlled bioanalysis,cell imaging,and drug load/delivery are selectively presented.Finally,we analyze current obstacles and suggest appropriate prospects for this area.展开更多
基金supported by the National Institute of Neurological Disorders and Stroke grant R01 NS089754(to Z.L.)by the National Cancer Institute(NCI)grant 1R01 CA204996(to Z.L.)+1 种基金by the National Institutes of Health/NCI through MD Anderson’s Cancer Center Support grant P30CA016672Brain Cancer Specialized Program of Research Excellence grant 2P50 CA127001。
文摘Cancer cells uniquely reprogram their cellular activities to support their rapid proliferation and migration and to coun-teract metabolic and genotoxic stress during cancer progression.In this reprograming,cancer cells’metabolism and other cellular activities are integrated and mutually regulated,and cancer cells modulate metabolic enzymes spatially and temporally so that these enzymes not only have altered metabolic activities but also have modulated subcellular localization and gain non-canonical functions.This review and several others in this issue of Cancer Communications discuss these enzymes’newly acquired functions and the non-canonical functions of some metabolites as features of cancer cell metabolism,which play critical roles in various cellular activities,including gene expression,anabolism,catabolism,redox homeostasis,and DNA repair.
基金supported by the National Natural Science Foundation of China(21427811,21675151)starting support from Ocean University of China。
文摘Engineering DNA logic systems is considered as one of the most promising strategies for next-generation molecular computers.Owing to the inherent features of DNA,such as low cost,easy synthesis,and controllable hybridization,various DNA logic devices with different functions have been developed in the recent decade.Besides,a variety of logic-programmed biological applications are also explored,which initiates a new chapter for DNA logic computing.Although this field has gained rapid developments,a systematical review that could not only elaborate the logic principles of diverse DNA logic devices but also outline recent representative works is urgently needed.In this review,we first elaborate the general classification and logical principle of diverse DNA logic devices,in which the operating strategy of these devices and representative examples are selectively presented.Then,we review state-of-the-art advancements in DNA computing based on different non-canonical DNA-nanostructures during the past decade,in which some classical works are summarized.After that,the innovative applications of DNA computing to logic-controlled bioanalysis,cell imaging,and drug load/delivery are selectively presented.Finally,we analyze current obstacles and suggest appropriate prospects for this area.
