Dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier within exogenous near-infrared light stimulation for high-performance imaging in living biosystems
Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activati...
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| Published in | Talanta (Oxford) Vol. 292; p. 128003 |
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| Main Authors | , , , , |
| Format | Journal Article |
| Language | English |
| Published |
Netherlands
Elsevier B.V
01.09.2025
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| Abstract | Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activation during bio-delivery. In this contribution, we have brought the following viable resolutions. First, a catalytic hairpin assembly (CHA) routine is incorporated with a dual-palindrome that works like two pairs of hands to self-link CHA-amplified intermediate nucleic acids units, enabling a streamlined two-round signal intensification to enhance sensitivity. Thereafter, one DNA component is conducted with the insertion of a photocleavage-coupler, by which the biosensor can be precisely stimulated via exogenous 808 nm near-infrared (NIR) light-converted upconversion luminescence to recognize the analysis subjects in a controllable action. With the aim of conceptual presentation, this dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier stimulated by exogenous NIR light exhibits ultra-sensitive solution detection of various cancers-associated microRNA-155. More deeply, the biosensing toolbox can serve for high-performance imaging of low-abundance biomarkers at the real-word context of living cells and in vivo, boosting the advancement of DNA amplifiers in medical diagnostics.
Dual-palindrome is incorporated to construct a hand-in-hand self-linking bidirectional DNA amplifier. Within exogenous near-infrared light stimulation, this biosensor is employed to conduct high-performance microRNA imaging in living biosystems. [Display omitted]
•A hand-in-hand self-linking bidirectional DNA amplifier is constructed.•Exogenous near-infrared light is used to stimulate the DNA amplifier.•The biosensor exhibits ultra-sensitive detection competence for microRNA-155.•High-performance imaging in living cells and in vivo is presented. |
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| AbstractList | Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activation during bio-delivery. In this contribution, we have brought the following viable resolutions. First, a catalytic hairpin assembly (CHA) routine is incorporated with a dual-palindrome that works like two pairs of hands to self-link CHA-amplified intermediate nucleic acids units, enabling a streamlined two-round signal intensification to enhance sensitivity. Thereafter, one DNA component is conducted with the insertion of a photocleavage-coupler, by which the biosensor can be precisely stimulated via exogenous 808 nm near-infrared (NIR) light-converted upconversion luminescence to recognize the analysis subjects in a controllable action. With the aim of conceptual presentation, this dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier stimulated by exogenous NIR light exhibits ultra-sensitive solution detection of various cancers-associated microRNA-155. More deeply, the biosensing toolbox can serve for high-performance imaging of low-abundance biomarkers at the real-word context of living cells and in vivo, boosting the advancement of DNA amplifiers in medical diagnostics.
Dual-palindrome is incorporated to construct a hand-in-hand self-linking bidirectional DNA amplifier. Within exogenous near-infrared light stimulation, this biosensor is employed to conduct high-performance microRNA imaging in living biosystems. [Display omitted]
•A hand-in-hand self-linking bidirectional DNA amplifier is constructed.•Exogenous near-infrared light is used to stimulate the DNA amplifier.•The biosensor exhibits ultra-sensitive detection competence for microRNA-155.•High-performance imaging in living cells and in vivo is presented. Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activation during bio-delivery. In this contribution, we have brought the following viable resolutions. First, a catalytic hairpin assembly (CHA) routine is incorporated with a dual-palindrome that works like two pairs of hands to self-link CHA-amplified intermediate nucleic acids units, enabling a streamlined two-round signal intensification to enhance sensitivity. Thereafter, one DNA component is conducted with the insertion of a photocleavage-coupler, by which the biosensor can be precisely stimulated via exogenous 808 nm near-infrared (NIR) light-converted upconversion luminescence to recognize the analysis subjects in a controllable action. With the aim of conceptual presentation, this dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier stimulated by exogenous NIR light exhibits ultra-sensitive solution detection of various cancers-associated microRNA-155. More deeply, the biosensing toolbox can serve for high-performance imaging of low-abundance biomarkers at the real-word context of living cells and in vivo, boosting the advancement of DNA amplifiers in medical diagnostics. Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activation during bio-delivery. In this contribution, we have brought the following viable resolutions. First, a catalytic hairpin assembly (CHA) routine is incorporated with a dual-palindrome that works like two pairs of hands to self-link CHA-amplified intermediate nucleic acids units, enabling a streamlined two-round signal intensification to enhance sensitivity. Thereafter, one DNA component is conducted with the insertion of a photocleavage-coupler, by which the biosensor can be precisely stimulated via exogenous 808 nm near-infrared (NIR) light-converted upconversion luminescence to recognize the analysis subjects in a controllable action. With the aim of conceptual presentation, this dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier stimulated by exogenous NIR light exhibits ultra-sensitive solution detection of various cancers-associated microRNA-155. More deeply, the biosensing toolbox can serve for high-performance imaging of low-abundance biomarkers at the real-word context of living cells and in vivo, boosting the advancement of DNA amplifiers in medical diagnostics. Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activation during bio-delivery. In this contribution, we have brought the following viable resolutions. First, a catalytic hairpin assembly (CHA) routine is incorporated with a dual-palindrome that works like two pairs of hands to self-link CHA-amplified intermediate nucleic acids units, enabling a streamlined two-round signal intensification to enhance sensitivity. Thereafter, one DNA component is conducted with the insertion of a photocleavage-coupler, by which the biosensor can be precisely stimulated via exogenous 808 nm near-infrared (NIR) light-converted upconversion luminescence to recognize the analysis subjects in a controllable action. With the aim of conceptual presentation, this dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier stimulated by exogenous NIR light exhibits ultra-sensitive solution detection of various cancers-associated microRNA-155. More deeply, the biosensing toolbox can serve for high-performance imaging of low-abundance biomarkers at the real-word context of living cells and in vivo, boosting the advancement of DNA amplifiers in medical diagnostics.Although the potency of DNA amplifiers-constructed biosensors for imaging disease biomarkers in living biosystems, they continue to face two challenges: (i) intricate multi-pathway amplification cascades in biosensing designs and (ii) suboptimal detection precision due to uncontrollable pre-activation during bio-delivery. In this contribution, we have brought the following viable resolutions. First, a catalytic hairpin assembly (CHA) routine is incorporated with a dual-palindrome that works like two pairs of hands to self-link CHA-amplified intermediate nucleic acids units, enabling a streamlined two-round signal intensification to enhance sensitivity. Thereafter, one DNA component is conducted with the insertion of a photocleavage-coupler, by which the biosensor can be precisely stimulated via exogenous 808 nm near-infrared (NIR) light-converted upconversion luminescence to recognize the analysis subjects in a controllable action. With the aim of conceptual presentation, this dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier stimulated by exogenous NIR light exhibits ultra-sensitive solution detection of various cancers-associated microRNA-155. More deeply, the biosensing toolbox can serve for high-performance imaging of low-abundance biomarkers at the real-word context of living cells and in vivo, boosting the advancement of DNA amplifiers in medical diagnostics. |
| ArticleNumber | 128003 |
| Author | Chen, Xiao-Xue Sun, Xiao-Ming Chen, Wei-Lin Li, Cheng-Yu Zhang, Tian-Tian |
| Author_xml | – sequence: 1 givenname: Tian-Tian surname: Zhang fullname: Zhang, Tian-Tian organization: School of Public Health, Wuhan University of Science and Technology, Wuhan, 430065, PR China – sequence: 2 givenname: Xiao-Ming surname: Sun fullname: Sun, Xiao-Ming organization: School of Basic Medical Sciences, Hubei Key Laboratory of Embryonic Stem Cell Research, Hubei University of Medicine, Shiyan, 442000, PR China – sequence: 3 givenname: Wei-Lin surname: Chen fullname: Chen, Wei-Lin organization: School of Public Health, Wuhan University of Science and Technology, Wuhan, 430065, PR China – sequence: 4 givenname: Xiao-Xue surname: Chen fullname: Chen, Xiao-Xue organization: School of Public Health, Wuhan University of Science and Technology, Wuhan, 430065, PR China – sequence: 5 givenname: Cheng-Yu orcidid: 0000-0003-4463-717X surname: Li fullname: Li, Cheng-Yu email: li-chengyu@wust.edu.cn organization: School of Public Health, Wuhan University of Science and Technology, Wuhan, 430065, PR China |
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| SubjectTerms | biomarkers Biosensing Techniques - methods Biosensor biosensors diagnostic techniques DNA DNA - chemistry DNA - genetics DNA amplifier Humans Imaging In vivo Infrared Rays Inverted Repeat Sequences Living cells luminescence MicroRNAs - analysis MicroRNAs - genetics Near-infrared light |
| Title | Dual-palindrome-incorporated hand-in-hand self-linking bidirectional DNA amplifier within exogenous near-infrared light stimulation for high-performance imaging in living biosystems |
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