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Li Yingguang

Researcher at Industrial Technology Research Institute

Publications -  7
Citations -  33

Li Yingguang is an academic researcher from Industrial Technology Research Institute. The author has contributed to research in topics: Blood flow & Signal. The author has an hindex of 2, co-authored 7 publications receiving 15 citations.

Papers
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Automatic stent reconstruction in optical coherence tomography based on a deep convolutional model.

TL;DR: The deep-convolutional model can accurately detect stent struts in IVOCT images, thus enabling the fully-automatic quantification of stent parameters in an extremely short time, and might facilitate the application of quantitative IVO CT analysis in real-world clinical scenarios.
Patent

Method and system for lumen modeling and vascular pressure difference calculation based on main branch vessel and side branch vessel parameters

TL;DR: In this article, a method and system for lumen modeling and vascular pressure difference calculation based on main branch vessel and side branch vessel parameters is presented, which includes a parameter acquisition module, a lumen model establishment module, an ideal vascular lumen geometric model, a vascular pressure calculation module and a result display module.
Patent

Coronary heart disease screening device and system, and signal feature extraction method

TL;DR: In this article, a coronary heart disease screening device consisting of a pickup for obtaining a heart sound signal, a pulse wave sensor, an electrocardio sensor, and a microprocessor connected with output ends of the pickup, was used to obtain the heart sound, pulse wave and electrocardiogram (ECG) signals.
Patent

Method and device for obtaining vascular pressure difference

TL;DR: In this paper, a method and device for obtaining a vascular pressure difference is presented, which comprises: receiving anatomical data of a portion of a vessel segment, and obtaining a geometric model of a target vessel according to the anatomical data; obtaining a blood flow model of the target vessel and the blood flow velocity V of the targets according to anatomical data in combination with individual data; preprocessing the geometric model to establish a cross section morphological model, calculating a morphological difference function f(x) of target vessel lumen, and calculating a pressure difference value ΔP at any two