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42 results about "Tiered approach" patented technology

The most common form of the Tiered Approach to Intervention is called Response to Intervention (RTI), and is a process whereby all students are taught using sound, evidence-based teaching practices designed to allow all students to succeed.

Risk stratification method for myocardial ischemia based on deterministic learning and deep learning

The invention discloses a risk stratification method for myocardial ischemia based on deterministic learning and deep learning. The method includes the steps that conventional 12-lead electrocardiogram signals are collected, based on the deterministic learning theory, neural network modeling and identification are conducted on intrinsic electrocardiodynamic characteristics of the shallow electrocardiogram signals, and the intrinsic dynamic characteristics of ECG signals are obtained; the convolutional neural network under the framework of deep learning is used for achieving the risk stratification of myocardial ischemia. The method combines the deterministic learning dynamic modeling method and the deep learning classification method for the first time, the method is applied to early riskstratification of myocardial ischemia based on the conventional 12-lead electrocardiogram signals, no additional detection equipment is needed, and the method is easy and convenient to use and easy tooperate. Through the deterministic learning method, the dynamic characteristics more sensitive to the ischemic state are extracted, the deep neural network can learn data features independently without further data characterization, and the complexity of the system is reduced.
Owner:HANGZHOU DIANZI UNIV

Accurate pelvic fracture detection for X-ray and CT images

Accurate pelvic fracture detection is accomplished with automated X-ray and Computed Tomography (CT) images for diagnosis and recommended therapy. The system combines computational methods to process images from two different modalities, using Active Shape Model (ASM), spline interpolation, active contours, and wavelet transform. By processing both X-ray and CT images, features which may be visible under one modality and not under the other are extracted and validates and confirms information visible in both. The X-ray component uses hierarchical approach based on directed Hough Transform to detect pelvic structures, removing the need for manual initialization. The X-ray component uses cubic spline interpolation to regulate ASM deformation during X-ray image segmentation. Key regions of the pelvis are first segmented and identified, allowing detection methods to be specialized to each structure using anatomical knowledge. The CT processing component is able to distinguish bone from other non-bone objects with similar visual characteristics, such a blood and contrast fluid, permitting detection and quantification of soft tissue hemorrhage. The CT processing component draws attention to slices where irregularities are detected, reducing the time to fully examine a pelvic CT scan. The quantitative measurement of bone displacement and hemorrhage area are used as input for a trauma decision-support system, along with physiological signals, injury details and demographic information.
Owner:VIRGINIA COMMONWEALTH UNIV

Cold cloud artificial precipitation enhancement work condition identification and work effect analysis method

The invention relates to a cold cloud artificial precipitation enhancement work condition identification and work effect analysis method. The method comprises the steps that the horizontal range and the vertical layers of work clouds and the content of cloud radar echo parameter distribution are determined through samples; the work clouds are the clouds meeting the work indicators; the horizontal range of the work clouds can be determined by drawing a closed polygon; and the radar echo parameter distribution data of three different temperature layers are extracted in the determined range of the polygon, the macro effect change after the cold cloud artificial precipitation enhancement work is judged through continuous analysis of radar echo parameter distribution before and after the work, and the original work indicator system is further corrected through the result of effect analysis. The layering method determined by the method is convenient to operate and convenient for statistical test of the cold cloud artificial precipitation enhancement work effect; and analysis of the original radar echo parameter work indicators and the work cloud radar echo parameter change before and after the work is further refined, and the analysis result is more scientific.
Owner:福建省气象科学研究所 +1

Multi-objective optimization Pareto set non-inferiority stratification method based on subspace statistics

InactiveCN103679290ASave time for non-inferior layeringGenetic modelsForecastingNon inferiorityMulti objective optimization algorithm
A multi-objective optimization Pareto set non-inferiority stratification method based on subspace statistics comprises the following steps: (1) constructing multidimensional space, (2) performing subspace division and equipotential distribution sector determination, (3) performing population-individual subspace mapping, (4) performing dominant individual statistics on subspaces, (5) calculating individual ranks, and (6) performing Pareto set non-inferiority stratification. The multi-objective optimization Pareto set non-inferiority stratification method has the advantages that it is not necessary that global traversal is performed on each individual in a population in a set to count the number of the dominant individuals; after high-dimensional solution space is discretized into the subspaces, the whole space can be divided into a dominant subspace set, an equivalently dominant subspace set and an inferior subspace set according to each subspace; all the individuals only need to be counted at a time according to the dominant subspaces or the inferior subspaces of equipotential distribution sectors, so that fast Pareto set non-inferiority stratification is achieved. In this way, the method provides a basis for real-time and quasi real-time engineering application of the evolutionary multi-objective optimization algorithm.
Owner:NO 709 RES INST OF CHINA SHIPBUILDING IND CORP
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