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ABSTRACT Precise transgene‐free gene upregulation remains a challenge in crop biotechnology, as conventional enhancers often exceed CRISPR‐mediated knock‐in size constraints and face regulatory hurdles. Here we establish a foundational cross‐species resource of compact transcriptional enhancers developed via STEM‐seq, a high‐throughput screening ...
Qi Yao +14 more
wiley +1 more source
Unveiling synchronization transitions in networks of coupled oscillators through persistent homology of local structures. [PDF]
Zabaleta-Ortega Á +2 more
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Mini Review: Synergizing Driven Quantum Dynamics, AI, and Quantum Computing for Next-Gen Materials Science. [PDF]
Akanbi OS +3 more
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A unified framework to explore soliton boundary interaction using topological magnetic soliton spring oscillators. [PDF]
Qiao S, Zhou Y, Yan S, Quan Z, Yang W.
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A novel approach integrating topological deep learning from EEG Data in Alzheimer's disease. [PDF]
Esteve M +4 more
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Topology Assisted Clustering of Temporal fMRI Brain Networks With Use-Case in Mitigating Non-Neural Multi-Site Variability. [PDF]
Shovon AR, Kumar S, Deshpande G.
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The Journal of Physical Chemistry Letters, 2020
The principles of topology in condensed matter physics have expanded to areas such as photonics, acoustics, electronics, and mechanics. Their extension to dynamic (soft) matter could enable the control and design of topological thermodynamic (micro)states and nonreciprocal dynamics, potentially leading to paradigmatic applications in molecular and ...
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The principles of topology in condensed matter physics have expanded to areas such as photonics, acoustics, electronics, and mechanics. Their extension to dynamic (soft) matter could enable the control and design of topological thermodynamic (micro)states and nonreciprocal dynamics, potentially leading to paradigmatic applications in molecular and ...
openaire +2 more sources
Dynamic topology representing networks
Neural Networks, 2000In the present paper, we propose a new algorithm, namely the Dynamic Topology Representing Networks (DTRN) for learning both topology and clustering information from input data. In contrast to other models with adaptive architecture of this kind, the DTRN algorithm adaptively grows the number of output nodes by applying a vigilance test. The clustering
J, Si, S, Lin, M A, Vuong
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