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CN120108741A - A big data-based prediction and analysis platform and method for the treatment effect of femoral head necrosis - Google Patents

A big data-based prediction and analysis platform and method for the treatment effect of femoral head necrosis
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CN120108741A
CN120108741ACN202510594385.7ACN202510594385ACN120108741ACN 120108741 ACN120108741 ACN 120108741ACN 202510594385 ACN202510594385 ACN 202510594385ACN 120108741 ACN120108741 ACN 120108741A
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femoral head
treatment
head necrosis
necrosis
tissue
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CN120108741B (en
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方善鸿
陈鹏
陈琇
陈银步
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First Affiliated Hospital of Fujian Medical University
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First Affiliated Hospital of Fujian Medical University
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Abstract

The invention relates to the technical field of medical information processing, in particular to a femoral head necrosis treatment effect prediction and analysis platform and method based on big data. The platform comprises a femoral head necrosis file generation module, a femoral head image feature analysis module, a femoral head treatment feature analysis module and a treatment effect prediction analysis module, wherein multi-source femoral head necrosis treatment medical data can be obtained, data standard cleaning and medical file integration can be carried out, femoral head feature analysis is carried out simultaneously, so that femoral head necrosis tissue image features can be obtained, femoral head treatment stage and femoral head necrosis treatment feature analysis can be carried out based on the femoral head necrosis treatment data file, basic femoral head necrosis treatment features can be obtained, and treatment effect influence feature screening and treatment effect prediction analysis can be carried out on the femoral head necrosis tissue image features and the basic femoral head necrosis treatment features so as to predict and output corresponding femoral head necrosis treatment effects. The invention can realize accurate prediction of the femoral head necrosis treatment effect.

Description

Femoral head necrosis treatment effect prediction and analysis platform and method based on big data
Technical Field
The invention relates to the technical field of medical information processing, in particular to a femoral head necrosis treatment effect prediction and analysis platform and method based on big data.
Background
Femoral head necrosis (Avascular Necrosis of the Femoral Head, ANFH for short) is a common orthopedic disease, which means that bone tissue of a femoral head gradually becomes necrotic due to interruption of blood supply, thereby affecting joint function. In recent years, with the rapid development of big data technology and artificial intelligence algorithms, by collecting and analyzing a large amount of information about clinic data, image data, genetic data and the like of femoral head necrosis patients, a more accurate prediction model can be constructed by utilizing machine learning and data mining technology, so that data support is provided for treatment decision. However, the traditional treatment effect prediction methods mainly depend on clinical experience of doctors, imaging examination and partial biomarker detection, and although the methods can reflect the effect after treatment to a certain extent, the methods generally only can reflect the current corresponding treatment state, and larger errors exist in the treatment effect prediction of different patients.
Disclosure of Invention
Based on the above, the present invention is needed to provide a platform and a method for predicting and analyzing the therapeutic effect of femoral head necrosis based on big data, so as to solve at least one of the above technical problems.
In order to achieve the above purpose, the femoral head necrosis treatment effect prediction and analysis platform based on big data comprises the following modules:
The femoral head necrosis file generation module is used for acquiring multi-source medical data for femoral head necrosis treatment, wherein the multi-source medical data comprises basic information of a patient, clinical symptoms of the femoral head, femoral head medical images and a femoral head necrosis treatment scheme, and performing data standard cleaning and medical file integration on the multi-source medical data for femoral head necrosis treatment to generate a femoral head necrosis treatment data file;
the femoral head image feature analysis module is used for carrying out femoral head feature analysis on corresponding femoral head medical images in the femoral head necrosis treatment data file so as to obtain femoral head necrosis tissue image features, wherein the femoral head necrosis tissue features comprise a femoral head necrosis tissue structure, a femoral head necrosis tissue form and a femoral head necrosis tissue density;
The femoral head treatment characteristic analysis module is used for carrying out femoral head treatment stage on the corresponding femoral head treatment scheme based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file so as to obtain a femoral head necrosis treatment sub-scheme corresponding to each femoral head symptom stage;
The treatment effect prediction analysis module is used for screening treatment effect influence characteristics of the femoral head necrosis tissue image characteristics and the femoral head necrosis treatment basic characteristics to obtain significant femoral head necrosis treatment effect influence characteristics, constructing a femoral head necrosis treatment effect prediction model, inputting the significant femoral head necrosis treatment effect influence characteristics into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
Further, the femoral head necrosis file generation module comprises the following functions:
Acquiring multi-source medical data for treating femoral head necrosis, wherein the multi-source medical data comprise basic information of a patient, clinical symptoms of the femoral head, a femoral head medical image and a femoral head necrosis treatment scheme, the basic information of the patient comprises age, sex, past medical history of the femoral head and medical use history corresponding to the patient, the clinical symptoms of the femoral head comprise pain degree of the femoral head and limited range of movement of the femoral head, the medical image of the femoral head comprises an X-ray image, a CT image and an MRI image corresponding to the femoral head, and the femoral head necrosis treatment scheme comprises a treatment method, a medicine use dosage and an operation record;
Carrying out data standard cleaning on the multi-source medical data for treating the femoral head necrosis to remove corresponding noise data, repeated data and abnormal data, correcting labeling errors corresponding to the image for the image data, carrying out image coding standardization by adopting a unified medical image transmission standard DICOM, and carrying out standardization and deleting repeated medical examination records for the text data by adopting natural language processing to obtain multi-source standard data for treating the femoral head necrosis;
And performing association matching and integration file integration on the multi-source data of the femoral head necrosis treatment corresponding to the same patient in the multi-source standard data of the femoral head necrosis treatment to generate a femoral head necrosis treatment data file.
Further, the femoral head image feature analysis module comprises the following functions:
Performing image physical characteristic deep analysis on corresponding femoral head medical images in a femoral head necrosis treatment data file so as to research attenuation rules corresponding to X-rays when the X-rays pass through femoral head tissues for the X-ray images, analyzing the relation between gray values and tissue densities in the images according to the difference of the X-ray absorption degrees of different tissues, deeply analyzing the femoral head tissue characteristics reflected by voxel values of different layers for CT images, and researching hydrogen proton densities and relaxation times corresponding to magnetic resonance signals and the femoral head tissues for MRI images to obtain a femoral head medical image physical characteristic data set;
performing femoral head necrosis tissue region segmentation on the femoral head medical image to generate a femoral head necrosis tissue region segmentation image;
performing multi-scale texture feature analysis on the segmented image of the femoral head necrosis tissue region under different scales based on wavelet transformation to obtain a texture feature set of the femoral head necrosis tissue region;
And carrying out femoral head feature analysis on the femoral head necrosis tissue region texture feature set based on the femoral head medical image physical feature data set so as to invert the tissue structure corresponding to the femoral head necrosis tissue according to the corresponding gray scale and the signal intensity in the image, calculating the density distribution corresponding to the femoral head necrosis tissue by utilizing the known relation between the X-ray attenuation coefficient and the tissue density and combining the image voxel value, and simultaneously, inverting the morphological features corresponding to the femoral head necrosis tissue according to the relation between the T1 and T2 relaxation time and the tissue morphology so as to obtain the femoral head necrosis tissue image feature, wherein the femoral head necrosis tissue image feature comprises the femoral head necrosis tissue structure, the femoral head necrosis tissue morphology and the femoral head necrosis tissue density.
Further, the multi-scale texture feature analysis is performed on the segmented image of the femoral head necrosis tissue region under different scales based on wavelet transformation, specifically, fine texture features corresponding to the femoral head tissue are extracted through high-frequency subband coefficients corresponding to wavelet transformation under small scales, the fine texture features comprise microstructure textures corresponding to bone trabeculae, and the texture roughness and self-similarity corresponding to the whole femoral head are calculated and analyzed by fractal dimension under large scales.
Further, the femoral head treatment characteristic analysis module comprises the following functions:
performing femoral head treatment staging on the corresponding femoral head necrosis treatment plan based on the corresponding femoral head pain degree and the limited range of femoral head movement in the femoral head necrosis treatment data file to obtain corresponding femoral head necrosis treatment sub-plans under each femoral head symptom staging;
Based on the corresponding femoral head past medical history and medicine use history in the basic information of the patient, carrying out necrosis treatment and allergy probability analysis on the corresponding femoral head necrosis treatment sub-cases under each femoral head symptom stage so as to obtain the femoral head necrosis treatment probability and the femoral head necrosis treatment allergy probability;
performing necrotic tissue attenuation evaluation analysis on the corresponding femoral head necrosis treatment sub-cases under each femoral head symptom stage based on the femoral head necrosis tissue density to obtain the femoral head necrosis tissue treatment attenuation efficiency;
The femoral head necrosis treatment probability, the femoral head necrosis treatment allergy probability and the femoral head necrosis tissue treatment attenuation efficiency are used as basic characteristics to obtain the basic characteristics of the femoral head necrosis treatment.
Further, the symptom stage of the femoral head is specifically an early stage with the pain degree of the femoral head between 1 and 3 minutes and the limited range of the movement of the femoral head between 10 and 20 percent, comprising the reduction of the forward flexion movement angle of the hip joint from a normal range of 120 to 140 degrees to a range of 100 to 120 degrees, the reduction of the abduction movement angle of the hip joint from a normal range of 30 to 45 degrees to 25 to 35 degrees, and the reduction of the internal rotation movement angle from a normal range of 30 to 40 degrees to 20 to 30 degrees, an intermediate stage with the pain degree of the femoral head between 4 and 6 minutes and the expansion of the limited range of the femoral head between 20 and 40 percent, comprising the reduction of the forward flexion movement angle of the hip joint to 80 to 100 degrees, the reduction of the abduction movement angle of the hip joint to 20 to 25 degrees, and the reduction of the internal rotation movement angle to 10 to 20 degrees, and an late stage with the pain degree of the femoral head between 7 and 10 minutes and the expansion of the limited range of the movement of the femoral head exceeding 40 percent, comprising the forward flexion movement angle of the hip joint less than 80 degrees, the abduction movement angle of the femoral head less than 20 degrees, and the internal rotation angle of the internal rotation angle less than 10 degrees.
Further, the necrosis tissue attenuation evaluation analysis of the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage based on the femoral head necrosis tissue density comprises:
Performing tissue density treatment simulation on the corresponding femoral head necrosis tissue density based on the corresponding femoral head necrosis treatment sub-plan under each femoral head symptom stage so as to generate a corresponding density attenuation process of the femoral head necrosis tissue under each treatment effect;
Carrying out actual attenuation statistics on the density attenuation process corresponding to the femoral head necrosis tissue under each treatment effect to obtain the actual attenuation of the tissue density corresponding to the femoral head necrosis tissue under each treatment effect;
obtaining the theoretical maximum attenuation of the femoral head necrosis tissue, and carrying out necrosis tissue attenuation quantification calculation on the actual attenuation of the tissue density corresponding to the femoral head necrosis tissue under each treatment effect based on the theoretical maximum attenuation of the femoral head necrosis tissue, thereby obtaining the treatment attenuation efficiency of the femoral head necrosis tissue.
Further, the treatment effect prediction analysis module comprises the following functions:
performing treatment effect association mining analysis on the femoral head necrosis tissue image characteristics and the femoral head necrosis characteristic factors in the femoral head necrosis treatment basic characteristics to obtain association relations between the femoral head necrosis characteristic factors and the treatment effects;
Performing relevance evaluation on the image features of the femoral head necrosis tissues and the femoral head necrosis feature factors in the basic femoral head necrosis treatment features based on the association relation between the femoral head necrosis feature factors and the treatment effects to obtain feature relevance factors between the femoral head necrosis feature factors and the treatment effects;
carrying out causal deducing on the treatment effect of each femoral head necrosis characteristic factor in the femoral head necrosis tissue image characteristics and the femoral head necrosis treatment basic characteristics to obtain a potential causal relation coefficient between each femoral head necrosis characteristic factor and the treatment effect;
Based on characteristic correlation factors and potential causal relation coefficients between the characteristic factors and the treatment effects of the femoral head necrosis, carrying out treatment effect influence characteristic screening on the image characteristics and the basic treatment characteristics of the femoral head necrosis so as to obtain significant treatment effect influence characteristics of the femoral head necrosis;
And constructing a femoral head necrosis treatment effect prediction model by using a convolutional neural network, inputting significant characteristics of the femoral head necrosis treatment effect influence into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
Further, the femoral head necrosis treatment effect prediction model is specifically a pyramid network architecture for extracting treatment effect characteristics on multiple scales, the architecture extracts detail characteristics corresponding to the femoral head by using convolution kernels corresponding to 3x3 and pooling windows of 1x1 in a shallow network, including micro trabecular changes and early necrosis area boundaries, extracts integral characteristics corresponding to the femoral head by using convolution kernels corresponding to 5x5 and pooling windows of 1x1 in a deep network, including joint morphology and necrosis area macroscopic distribution, and takes activation energy and information transfer energy of each neuron in the network into an optimization target through introducing energy constraint to pay attention to prediction errors corresponding to the model, and simultaneously improves prediction performance corresponding to the model by using cross verification so as to predict and output corresponding femoral head necrosis treatment effects at different network layers.
Furthermore, the invention also provides a femoral head necrosis treatment effect prediction and analysis method based on big data, which is implemented based on the femoral head necrosis treatment effect prediction and analysis platform based on big data, and comprises the following steps:
acquiring multi-source medical data for treating femoral head necrosis, wherein the multi-source medical data comprises basic information of a patient, clinical symptoms of the femoral head, medical images of the femoral head and a femoral head necrosis treatment scheme, and performing data standard cleaning and medical file integration on the multi-source medical data for treating femoral head necrosis to generate a femoral head necrosis treatment data file;
Performing femoral head feature analysis on corresponding femoral head medical images in the femoral head necrosis treatment data file to obtain femoral head necrosis tissue image features including a femoral head necrosis tissue structure, a femoral head necrosis tissue form and a femoral head necrosis tissue density;
Performing femoral head necrosis treatment stage on the corresponding femoral head necrosis treatment scheme based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file to obtain a femoral head necrosis treatment sub-scheme corresponding to each femoral head symptom stage;
The method comprises the steps of carrying out treatment effect influence characteristic screening on femoral head necrosis tissue image characteristics and basic femoral head necrosis treatment characteristics to obtain significant femoral head necrosis treatment effect influence characteristics, constructing a femoral head necrosis treatment effect prediction model, inputting the significant femoral head necrosis treatment effect influence characteristics into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
The invention has the beneficial effects that:
compared with the prior art, the application has the beneficial effects that the multi-source medical data for treating the femoral head necrosis is collected and arranged to cover basic information, clinical symptoms, medical images and treatment schemes of patients, and the data are subjected to standardized cleaning, wherein the diversity of the data comprises the basic information such as age, sex, medical history, life habit and the like of the patients, and the clinical symptoms such as pain, the method has the advantages that the redundant data can be removed, the missing data can be repaired and the data formats of different sources can be standardized through standard cleaning, so that the method has consistency and comparability, the integration of medical files can ensure the complete record of the treatment process and related information of each patient, a solid foundation is established for the subsequent data analysis and model in the process, more accurate and comprehensive patient information can be provided through the integrated and cleaned data, and a real and effective basis is provided for the subsequent analysis of the femoral head necrosis treatment effect, so that the accuracy and reliability of the final treatment prediction result are ensured. Secondly, through carrying out detailed characteristic analysis on the femoral head medical images in the femoral head necrosis treatment data file, the purpose is to extract the image characteristics of the femoral head necrosis, wherein the image characteristics comprise the structure, the shape, the density and the like of the femoral head necrosis tissue, and quantitative description of the femoral head pathological changes can be realized through an imaging technology, such as the shape change of the femoral head necrosis area, the damage condition of the tissue and the density change of the femoral head necrosis area. The analysis can reveal the image representation of the femoral head necrosis at different stages, and can provide quantitative support for the subsequent treatment effect prediction. Then, through analysis of clinical symptoms of the patient, the treatment scheme of the femoral head necrosis can be divided into different stages or sub-schemes, for example, early femoral head necrosis only needs conservation treatment, and later femoral head necrosis only needs surgical intervention, through further analysis of basic information (such as age, sex and the like) and image characteristics (such as tissue density) of the patient, the most suitable treatment scheme can be selected for each treatment stage, the treatment strategy is individually adjusted, and the characteristic analysis is not only helpful for formulating a staged treatment scheme, but also reflecting treatment effects under different symptom stages, and the analysis process can help doctors to accurately evaluate the current corresponding treatment state, so that individual treatment schemes are provided for patients in different stages, and errors of treatment effect estimation of different patients in the subsequent process can be reduced. Finally, by analyzing the factors affecting the treatment of the femoral head necrosis, the characteristics which have obvious influence on the treatment effect are screened out, and a prediction model of the treatment effect of the femoral head necrosis is established, wherein the treatment effect of the femoral head necrosis is affected by various factors, such as age, sex, treatment scheme, disease progression stage, image characteristics and the like of a patient, and the characteristics which obviously affect the treatment effect are screened out, so that the accuracy of the treatment effect prediction is improved, the prediction model can be trained based on historical data, and an efficient prediction system is established by using a machine learning or statistical method, and the effects of different treatment schemes in a specific patient group can be predicted in advance through the model.
Drawings
Other features, objects and advantages of the invention will become more apparent upon reading of the detailed description of a non-limiting implementation, made with reference to the accompanying drawings in which:
FIG. 1 is a schematic block diagram of a femoral head necrosis treatment effect prediction and analysis platform based on big data;
FIG. 2 is a functional flow diagram of the femoral head necrosis file generation module of FIG. 1;
Fig. 3 is a functional flow diagram of the femoral head image feature analysis module in fig. 1.
Detailed Description
The following description of the technical platform of the present invention, taken in conjunction with the accompanying drawings, will be clearly and fully described, given by way of illustration of some, but not all embodiments of the invention. All other embodiments, which can be made by those skilled in the art based on the embodiments of the present invention without making any inventive effort, are intended to fall within the scope of the present invention.
Furthermore, the drawings are merely schematic illustrations of the present invention and are not necessarily drawn to scale. The same reference numerals in the drawings denote the same or similar parts, and thus a repetitive description thereof will be omitted. Some of the block diagrams shown in the figures are functional entities and do not necessarily correspond to physically or logically separate entities. The functional entities may be implemented in software or in one or more hardware modules or integrated circuits or in different networks and/or processor platforms and/or microcontroller platforms.
It will be understood that, although the terms "first," "second," etc. may be used herein to describe various elements, these elements should not be limited by these terms. These terms are only used to distinguish one element from another element. For example, a first element could be termed a second element, and, similarly, a second element could be termed a first element, without departing from the scope of example embodiments. The term "and/or" as used herein includes any and all combinations of one or more of the associated listed items.
In order to achieve the above objective, referring to fig. 1 to 3, the present invention provides a femoral head necrosis treatment effect prediction and analysis platform based on big data, the platform comprises the following modules:
The femoral head necrosis file generation module is used for acquiring multi-source medical data for femoral head necrosis treatment, wherein the multi-source medical data comprises basic information of a patient, clinical symptoms of the femoral head, femoral head medical images and a femoral head necrosis treatment scheme, and performing data standard cleaning and medical file integration on the multi-source medical data for femoral head necrosis treatment to generate a femoral head necrosis treatment data file;
the femoral head image feature analysis module is used for carrying out femoral head feature analysis on corresponding femoral head medical images in the femoral head necrosis treatment data file so as to obtain femoral head necrosis tissue image features, wherein the femoral head necrosis tissue features comprise a femoral head necrosis tissue structure, a femoral head necrosis tissue form and a femoral head necrosis tissue density;
The femoral head treatment characteristic analysis module is used for carrying out femoral head treatment stage on the corresponding femoral head treatment scheme based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file so as to obtain a femoral head necrosis treatment sub-scheme corresponding to each femoral head symptom stage;
The treatment effect prediction analysis module is used for screening treatment effect influence characteristics of the femoral head necrosis tissue image characteristics and the femoral head necrosis treatment basic characteristics to obtain significant femoral head necrosis treatment effect influence characteristics, constructing a femoral head necrosis treatment effect prediction model, inputting the significant femoral head necrosis treatment effect influence characteristics into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
In the embodiment of the present invention, please refer to fig. 1, which is a schematic block diagram of a femoral head necrosis treatment effect prediction and analysis platform based on big data according to the present invention, in this example, the femoral head necrosis treatment effect prediction and analysis platform based on big data includes the following blocks:
The system comprises a femoral head necrosis file generation module, a femoral head necrosis treatment data file generation module and a femoral head necrosis treatment data file generation module, wherein the femoral head necrosis file generation module is used for acquiring multi-source femoral head necrosis treatment medical data, including basic patient information, femoral head clinical symptoms, femoral head medical images and femoral head necrosis treatment schemes, and performing data standard cleaning and medical file integration on the multi-source femoral head necrosis treatment medical data to generate a femoral head necrosis treatment data file;
In the embodiment of the invention, by collecting multi-source medical data for femoral head necrosis treatment from a plurality of channels, basic patient information is acquired from a hospital registration system and a medical history system, including age, gender, past medical history and medical use history, and femoral head clinical symptoms are recorded by doctors through inquiry and physical examination, including pain degree and limited range of movement. The femoral head medical image is obtained from an archiving system of an image department, and comprises X-ray, CT and MRI images, a femoral head necrosis treatment scheme is obtained from a treatment record database, the treatment method, the drug dosage and the operation record are included, the collected data are identified and noise, repetition and abnormal data are removed by adopting a statistical analysis method, the image data are coded according to the DICOM standard, marking errors are corrected, text data are normalized by using a natural language processing technology, repeated check records are deleted, finally, various data of the same patient are associated and integrated by taking a unique patient identifier as an index, and the data are stored in a special database, so that a femoral head necrosis treatment data file is finally formed.
S2, a femoral head image feature analysis module, which is used for carrying out femoral head feature analysis on the corresponding femoral head medical images in the femoral head necrosis treatment data file so as to obtain femoral head necrosis tissue image features, wherein the femoral head necrosis tissue features comprise a femoral head necrosis tissue structure, a femoral head necrosis tissue form and a femoral head necrosis tissue density;
In the embodiment of the invention, through analyzing X-ray, CT and MRI images in femoral head necrosis treatment data files, establishing a relation between gray values and tissue densities according to attenuation rules of X-rays passing through different tissues for the X-ray images, analyzing tissue structures, analyzing voxel values of different layers in CT image aspect, determining tissue characteristics by combining medical knowledge, researching the relation between magnetic resonance signals, hydrogen proton density and relaxation time by MRI images, carrying out necrotic tissue region segmentation on the images by adopting threshold segmentation and morphological operation, extracting bone trabecular microstructure textures by wavelet transformation high-frequency subband coefficients under small scale, analyzing overall texture roughness and self-similarity by fractal dimension under large scale, inverting tissue structures, calculating density distribution and deducing morphological characteristics according to physical characteristics and texture characteristics of the images, and finally obtaining the femoral head necrosis tissue image characteristics.
S3, a femoral head treatment characteristic analysis module, which is used for carrying out femoral head treatment stage on the corresponding femoral head necrosis treatment scheme based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file so as to obtain a femoral head necrosis treatment sub-scheme corresponding to each femoral head symptom stage;
In the embodiment of the invention, the treatment scheme is divided into early stage, middle stage and late stage according to the clinical symptoms of the femoral head in the femoral head necrosis treatment data file, such as pain degree and limited range of movement, wherein the early stage is 1-3 minutes of pain degree and the limited range of movement is 10-20%, the middle stage is 4-6 minutes of pain degree and the limited range of movement is 20-40%, the late stage is 7-10 minutes of pain degree and the limited range of movement exceeds 40%, treatment sub-cases are formulated for each stage, basic information of patients such as age, past medical history and medicine use history and femoral head necrosis tissue density are combined, the treatment probability and allergy probability of the treatment sub-cases are analyzed by using a big data analysis and probability statistical model, tissue initial and final density are obtained through medical images, and the treatment probability, allergy probability and attenuation efficiency are used as basic characteristics, so that the basic characteristics of femoral head necrosis treatment are finally obtained.
And S4, a treatment effect prediction analysis module is used for screening treatment effect influence characteristics of the femoral head necrosis tissue image characteristics and the femoral head necrosis treatment basic characteristics to obtain significant femoral head necrosis treatment effect influence characteristics, constructing a femoral head necrosis treatment effect prediction model, and inputting the significant femoral head necrosis treatment effect influence characteristics into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
In the embodiment of the invention, screening standards are set for image features (tissue structure, morphology and density) of femoral head necrosis tissues and basic features (treatment probability, allergy probability and attenuation efficiency) of femoral head necrosis treatment, such as feature correlation factors with absolute values larger than 0.5 and potential causality coefficients larger than 2, significant features are screened out, a convolutional neural network with a pyramid network architecture is constructed by using a Python and a deep learning framework as a prediction model, detail features are extracted from a shallow layer by using a 3x3 convolution kernel and a 1x1 pooling window, integral features are extracted from a deep layer by using a 5x5 convolution kernel and a 1x1 pooling window, neuron activation and information transmission energy are brought into an optimization target by introducing energy constraint, cross verification is adopted, a score dataset training and verification model is adopted, the screened significant features are input into the model, and femoral head necrosis treatment effects under different treatment schemes such as pain relieving degree and joint function recovery conditions are predicted.
Further, the femoral head necrosis file generation module comprises the following functions:
Acquiring multi-source medical data for treating femoral head necrosis, wherein the multi-source medical data comprise basic information of a patient, clinical symptoms of the femoral head, a femoral head medical image and a femoral head necrosis treatment scheme, the basic information of the patient comprises age, sex, past medical history of the femoral head and medical use history corresponding to the patient, the clinical symptoms of the femoral head comprise pain degree of the femoral head and limited range of movement of the femoral head, the medical image of the femoral head comprises an X-ray image, a CT image and an MRI image corresponding to the femoral head, and the femoral head necrosis treatment scheme comprises a treatment method, a medicine use dosage and an operation record;
Carrying out data standard cleaning on the multi-source medical data for treating the femoral head necrosis to remove corresponding noise data, repeated data and abnormal data, correcting labeling errors corresponding to the image for the image data, carrying out image coding standardization by adopting a unified medical image transmission standard DICOM, and carrying out standardization and deleting repeated medical examination records for the text data by adopting natural language processing to obtain multi-source standard data for treating the femoral head necrosis;
And performing association matching and integration file integration on the multi-source data of the femoral head necrosis treatment corresponding to the same patient in the multi-source standard data of the femoral head necrosis treatment to generate a femoral head necrosis treatment data file.
As an embodiment of the present invention, referring to fig. 2, a functional flow diagram of the femoral head necrosis file generating module in fig. 1 is shown, and in this embodiment, the femoral head necrosis file generating module includes the following functions:
S11, acquiring multi-source medical data for treating femoral head necrosis, wherein the multi-source medical data comprise basic information of a patient, clinical symptoms of the femoral head, a femoral head medical image and a femoral head necrosis treatment scheme, the basic information of the patient comprises age, sex, past medical history of the femoral head and medical use history corresponding to the patient, the clinical symptoms of the femoral head comprise the pain degree of the femoral head and the limited range of movement of the femoral head, the medical image of the femoral head comprises an X-ray image, a CT image and an MRI image corresponding to the femoral head, and the femoral head necrosis treatment scheme comprises a treatment method, a medicine use dosage and an operation record;
In the embodiment of the invention, the related data of femoral head necrosis treatment is collected from a plurality of medical data sources, basic information of a patient is obtained from an electronic medical record system of a hospital, the system can record the age, sex, past medical history of the femoral head and medical use history of the patient in detail, the clinical symptoms of the femoral head are recorded through doctor's inquiry and physical examination of the patient, the pain degree of the femoral head is determined by using a pain score scale, the limited range of femoral head movement is defined through measuring the movement angle of the hip joint, the femoral head medical image data is obtained from an image archiving and communication system (PACS) of the hospital, the system stores X-ray images, CT images and MRI images of the patient, the data of a femoral head necrosis treatment scheme is obtained from a treatment record database of the hospital, the information including treatment methods (such as conservative treatment, surgical treatment and the like), the dosage of medicines and the surgical record and the like, and the data obtained from different data sources are integrated, and finally the multi-source medical data of femoral head necrosis treatment is formed.
S12, carrying out data standard cleaning on multi-source medical data for femoral head necrosis treatment to remove corresponding noise data, repeated data and abnormal data, correcting marking errors corresponding to images and carrying out image coding standardization by adopting a unified medical image transmission standard DICOM for image data, and carrying out standardization and deleting repeated medical examination records by adopting natural language processing for text data to obtain multi-source standard data for femoral head necrosis treatment;
In the embodiment of the invention, the cleaning operation is carried out on the multi-source medical data for femoral head necrosis treatment, the numerical data such as patient age, medicine dosage and the like are identified and removed by setting a reasonable value range, meanwhile, the data record is compared, repeated data are deleted, the noise data is processed by adopting a filtering algorithm such as median filtering, random interference in the data is removed, the image data is arranged, professional medical image personnel are arranged for auditing the image annotation, the annotation error is corrected, then all the image data are encoded according to a medical image transmission standard DICOM, the uniform format of the image data is ensured, the text is normalized by adopting a natural language processing technology such as word segmentation, part-of-speech annotation, named entity identification and the like, meanwhile, the repeated medical examination record is deleted by comparing the text content, and the standard data for femoral head necrosis treatment is finally obtained through the processing steps.
And S13, performing association matching and integration file integration on the multi-source data of the femoral head necrosis treatment corresponding to the same patient in the multi-source standard data of the femoral head necrosis treatment to generate a femoral head necrosis treatment data file.
In the embodiment of the invention, the data are associated and matched by utilizing the unique identification (such as an identification card number, a medical record number and the like) of a patient in multi-source standard data for femoral head necrosis treatment, the basic information, the clinical symptoms of the femoral head, the femoral head medical images and the femoral head necrosis treatment scheme data of the same patient are integrated, firstly, the patient identification is used as an index, all relevant records of the patient are searched in different types of data tables, then, the records are organized according to a certain structure, for example, a comprehensive data structure comprising a basic information table, a clinical symptom table, an image record table and a treatment scheme table of the patient is created, the storage path of the image data is associated with the corresponding patient record, and finally, the integrated data are stored in a special database to form a complete femoral head necrosis treatment data file, so that the data can be conveniently analyzed and utilized later.
Further, the femoral head image feature analysis module comprises the following functions:
Performing image physical characteristic deep analysis on corresponding femoral head medical images in a femoral head necrosis treatment data file so as to research attenuation rules corresponding to X-rays when the X-rays pass through femoral head tissues for the X-ray images, analyzing the relation between gray values and tissue densities in the images according to the difference of the X-ray absorption degrees of different tissues, deeply analyzing the femoral head tissue characteristics reflected by voxel values of different layers for CT images, and researching hydrogen proton densities and relaxation times corresponding to magnetic resonance signals and the femoral head tissues for MRI images to obtain a femoral head medical image physical characteristic data set;
performing femoral head necrosis tissue region segmentation on the femoral head medical image to generate a femoral head necrosis tissue region segmentation image;
performing multi-scale texture feature analysis on the segmented image of the femoral head necrosis tissue region under different scales based on wavelet transformation to obtain a texture feature set of the femoral head necrosis tissue region;
And carrying out femoral head feature analysis on the femoral head necrosis tissue region texture feature set based on the femoral head medical image physical feature data set so as to invert the tissue structure corresponding to the femoral head necrosis tissue according to the corresponding gray scale and the signal intensity in the image, calculating the density distribution corresponding to the femoral head necrosis tissue by utilizing the known relation between the X-ray attenuation coefficient and the tissue density and combining the image voxel value, and simultaneously, inverting the morphological features corresponding to the femoral head necrosis tissue according to the relation between the T1 and T2 relaxation time and the tissue morphology so as to obtain the femoral head necrosis tissue image feature, wherein the femoral head necrosis tissue image feature comprises the femoral head necrosis tissue structure, the femoral head necrosis tissue morphology and the femoral head necrosis tissue density.
As an embodiment of the present invention, referring to fig. 3, a functional flow diagram of the femoral head image feature analysis module in fig. 1 is shown, where in this embodiment, the femoral head image feature analysis module includes the following functions:
S21, performing image physical characteristic depth analysis on corresponding femoral head medical images in a femoral head necrosis treatment data file to research a corresponding attenuation rule of X-rays when the X-rays pass through femoral head tissues for the X-ray images, analyzing the relation between gray values and tissue densities in the images according to the difference of the absorption degree of the X-rays by different tissues, performing depth analysis on femoral head tissue characteristics reflected by voxel values of different layers for CT images, and researching hydrogen proton densities and relaxation times corresponding to magnetic resonance signals and the femoral head tissues for MRI images to obtain a femoral head medical image physical characteristic data set;
In the embodiment of the invention, three femoral head medical images of X-rays, CT and MRI are extracted from a femoral head necrosis treatment data file, for the X-ray images, intensity changes before and after X-rays pass through femoral head tissues are measured by utilizing an X-ray physics principle, attenuation rules of the X-rays are analyzed, mathematical models of gray values and tissue densities in the images are established by experimental comparison of X-ray absorption conditions of tissues with different densities (such as bones, muscles and fats), voxel values of each layer are analyzed in detail for CT images, the voxel values are related to electron densities of tissues according to the CT imaging principle, femoral head tissue characteristics such as normal bone tissues, necrotic bone tissues and the like corresponding to different voxel value ranges are determined by referring to medical data and databases, for the MRI images, professional magnetic resonance imaging analysis software is adopted, magnetic resonance signal intensity is measured, and the relations between signals and the femoral head are studied by combining known hydrogen proton density and relaxation time (T1 and T2) theory, and all data obtained through analysis are arranged and summarized, and finally a medical image physical characteristic data set is formed.
S22, dividing the femoral head necrosis tissue region of the femoral head medical image to generate a femoral head necrosis tissue region division image;
In the embodiment of the invention, the femoral head medical image is processed by adopting a method based on the combination of threshold segmentation and morphological operation, for X-ray, CT and MRI images, the approximate gray value or the signal intensity range of the femoral head necrosis tissue in the image is firstly determined according to the image physical characteristic data set, and is used as a threshold value for preliminary segmentation, for example, in the CT image, the voxel value of the necrosis tissue is usually positioned in a specific section, the section is used as the threshold value for binarization processing of the image, so as to obtain a preliminary necrosis tissue area, then morphological operation such as expansion and corrosion is applied, small noise and holes in the segmentation result are removed, blank parts in the necrosis tissue area are filled, the segmentation result is more accurate and complete, and finally, the boundary correction is carried out on the segmented image, so that the clear and accurate boundary of the necrosis tissue area is ensured, and the femoral head necrosis tissue area segmentation image is generated.
S23, performing multi-scale texture feature analysis on the segmented image of the femoral head necrosis tissue region under different scales based on wavelet transformation to obtain a texture feature set of the femoral head necrosis tissue region;
In the embodiment of the invention, the image is decomposed into sub-bands with different scales by carrying out wavelet transformation on the image of the femoral head necrosis tissue region, the high-frequency sub-band coefficients after wavelet transformation are focused on under the small scale, the coefficients reflect detailed information in the image, the microstructure texture features corresponding to the bone trabeculae in the femoral head tissue are obtained by carrying out characteristic extraction on the high-frequency sub-band coefficients, such as calculation of texture energy, contrast and the like, for example, the arrangement mode and the density of the bone trabeculae can embody specific modes in the high-frequency sub-band coefficients, the fine texture features can be extracted by analyzing the modes, the whole femoral head necrosis tissue region can be analyzed by using a fractal dimension calculation method under the large scale, the roughness degree and the self-similarity of textures can be measured by calculating the fractal dimension, the quantitative features of the whole femoral head texture can be obtained, and the texture features extracted under the small scale and the large scale are summarized, so that the texture feature set of the femoral head necrosis tissue region can be finally obtained.
S24, performing femoral head feature analysis on the texture feature set of the femoral head necrosis tissue area based on the femoral head medical image physical feature data set to invert the tissue structure corresponding to the femoral head necrosis tissue according to the corresponding gray scale and the signal intensity in the image, calculating the density distribution corresponding to the femoral head necrosis tissue by combining the known relation between the X-ray attenuation coefficient and the tissue density and the image voxel value, and simultaneously inverting the morphological feature corresponding to the femoral head necrosis tissue according to the relation between the T1 and T2 relaxation time and the tissue morphology to obtain the femoral head necrosis tissue image feature, wherein the femoral head necrosis tissue feature comprises the femoral head necrosis tissue structure, the femoral head necrosis tissue morphology and the femoral head necrosis tissue density.
In the embodiment of the invention, the physical characteristic data set of the femoral head medical image and the texture characteristic set of the femoral head necrosis tissue area are combined for analysis, the gray scale and the signal intensity in the image are calculated, the tissue density corresponding to each voxel is calculated according to the attenuation coefficient formula and the voxel value, the density distribution diagram is drawn, the T1 and T2 relaxation time in the MRI image are inverted according to the corresponding relation between the T1 and T2 relaxation time and the tissue form in the medical research, the morphological characteristics of the necrosis tissue such as the size and the shape of the necrosis area can be obtained, the known relation between the X-ray attenuation coefficient and the tissue density is utilized, the voxel value in the CT image is combined for calculation, and the density distribution diagram of the femoral head necrosis tissue is obtained, for example, the tissue density corresponding to each voxel is calculated according to the attenuation coefficient formula and the voxel value, and the density distribution diagram is drawn, and the morphological characteristics of the necrosis tissue are inverted according to the corresponding relation between the T1 and T2 relaxation time and the tissue form in the medical research.
Further, the multi-scale texture feature analysis is performed on the segmented image of the femoral head necrosis tissue region under different scales based on wavelet transformation, specifically, fine texture features corresponding to the femoral head tissue are extracted through high-frequency subband coefficients corresponding to wavelet transformation under small scales, the fine texture features comprise microstructure textures corresponding to bone trabeculae, and the texture roughness and self-similarity corresponding to the whole femoral head are calculated and analyzed by fractal dimension under large scales.
Further, the femoral head treatment characteristic analysis module comprises the following functions:
performing femoral head treatment staging on the corresponding femoral head necrosis treatment plan based on the corresponding femoral head pain degree and the limited range of femoral head movement in the femoral head necrosis treatment data file to obtain corresponding femoral head necrosis treatment sub-plans under each femoral head symptom staging;
In the embodiment of the invention, the pain degree score and the limited range of femoral head movement data of each patient are extracted from the femoral head necrosis treatment data file, the pain degree score is divided by 1-10 degrees, the limited range of movement is obtained by measuring the anteflexion, abduction and internal rotation movement angles of the hip joint according to subjective evaluation of the patient, and is calculated by comparing the limited range of movement with the normal range of movement, for example, the limited range of movement is reduced to 10 degrees at the early stage when the pain degree of the femoral head is between 1-3 minutes and the limited range of movement is between 10% -20%, the limited range of movement comprises the reduction of the anterior flexion angle of the hip joint from the normal range of 120 degrees to 140 degrees to 100 degrees, the limited range of movement is reduced to 25 degrees to 35 degrees from the normal range of 30 degrees to 40 degrees, the limited range of internal rotation angle is reduced to 20 degrees from the normal range of 30 degrees to 30 degrees, the limited range of movement is enlarged to 20 degrees from the limited range of the femoral head of the middle stage when the pain degree of the femoral head is between 4-6 minutes and the limited range of movement is enlarged to 20% -40%, the limited range of movement comprises the anteflexion angle is reduced to 80 degrees to 20 degrees, the limited range of the internal rotation angle is reduced to 10 degrees, the limited to the final stage when the limited range of movement is reduced to the femoral head is reduced to the limited to the angle of the corresponding to the small range of the anteversion of the angle is 10 degrees.
Preferably, based on the corresponding femoral head past medical history and medicine use history in the basic information of the patient, necrosis treatment and allergy probability analysis are carried out on the corresponding femoral head necrosis treatment sub-cases under each femoral head symptom stage so as to obtain the femoral head necrosis treatment probability and the femoral head necrosis treatment allergy probability;
In the embodiment of the invention, the past medical history of the femoral head is collected from basic information of a patient, including the conditions of fracture, dislocation and the like, and the medical use history, such as whether a corticosteroid and other medicines possibly causing femoral head necrosis are used, for each treatment sub-table under the symptom stage of the femoral head, a big data analysis method and a probability statistical model are used for analysis, for example, a database containing a large amount of patient data is established, the treatment effect and the allergy condition of the patient with the past specific medical history or the specific medicine when receiving different treatment sub-tables are analyzed, for the early treatment sub-table, the ratio of the number of patients with the past fracture medical history and the corticosteroid medicine when receiving the treatment sub-table is counted to obtain the femoral head necrosis treatment probability, the ratio of the number of people who have anaphylactic reaction to the total number of people is counted to obtain the femoral head necrosis treatment allergy probability, and the necrosis treatment probability corresponding to the treatment sub-tables under the middle stage and the late stage of the symptom stage are also analyzed, and the necrosis treatment probability and the necrosis allergy probability corresponding to the femoral head necrosis treatment sub-table under each symptom stage are finally obtained.
Preferably, based on the femoral head necrosis tissue density, performing necrosis tissue attenuation evaluation analysis on the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage to obtain the femoral head necrosis tissue treatment attenuation efficiency;
in an embodiment of the present invention, initial density data of necrotic tissue of a femoral head of a patient is obtained by using a medical imaging technique (e.g., CT scan). For each treatment sub-regimen at each femoral head symptom stage, the initial density of necrotic tissue was recorded prior to initiation of treatmentIn the treatment process, CT scanning is carried out according to a certain time interval (such as once a month), real-time density data of necrotic tissue is obtained, and after treatment is finished, the final necrotic tissue density is recordedBy calculating density differencesThe actual attenuation of necrotic tissue is obtained. Meanwhile, through analysis of a large amount of clinical data and medical research, the theoretical maximum attenuation of the femoral head necrosis tissue under different symptom stages is determinedUsing the formulaAnd calculating the treatment attenuation efficiency of the femoral head necrosis tissue corresponding to each treatment sub-pattern. For example, under the early treatment sub-plan, the initial density is 1.2g/cm3, the final density is 1.0g/cm3, the theoretical maximum attenuation is 0.3g/cm3, the treatment attenuation efficiency is 1.2-1.0/0.3=66.7, and finally the treatment attenuation efficiency of the femoral head necrosis tissue is obtained.
Preferably, the femoral head necrosis treatment probability, the femoral head necrosis treatment allergy probability and the femoral head necrosis tissue treatment attenuation efficiency are taken as basic characteristics to obtain the femoral head necrosis treatment basic characteristics.
In the embodiment of the invention, after the previous calculation is completed, the obtained femoral head necrosis treatment probability, femoral head necrosis treatment allergy probability and femoral head necrosis tissue treatment attenuation efficiency corresponding to each femoral head symptom stage treatment sub-plan are arranged, and the three characteristic values of each treatment sub-plan are recorded in a table form to form a data set. For example, the early treatment case 1 has a treatment probability of 80%, an allergy probability of 5% and a treatment attenuation efficiency of 70%, the middle treatment case 2 has a treatment probability of 60%, an allergy probability of 10% and a treatment attenuation efficiency of 50%, and the like, and these data are combined together to form basic characteristics of femoral head necrosis treatment, which can be used for subsequent treatment effect prediction and analysis, and finally the basic characteristics of femoral head necrosis treatment are obtained.
Further, the symptom stage of the femoral head is specifically an early stage with the pain degree of the femoral head between 1 and 3 minutes and the limited range of the movement of the femoral head between 10 and 20 percent, comprising the reduction of the forward flexion movement angle of the hip joint from a normal range of 120 to 140 degrees to a range of 100 to 120 degrees, the reduction of the abduction movement angle of the hip joint from a normal range of 30 to 45 degrees to 25 to 35 degrees, and the reduction of the internal rotation movement angle from a normal range of 30 to 40 degrees to 20 to 30 degrees, an intermediate stage with the pain degree of the femoral head between 4 and 6 minutes and the expansion of the limited range of the femoral head between 20 and 40 percent, comprising the reduction of the forward flexion movement angle of the hip joint to 80 to 100 degrees, the reduction of the abduction movement angle of the hip joint to 20 to 25 degrees, and the reduction of the internal rotation movement angle to 10 to 20 degrees, and an late stage with the pain degree of the femoral head between 7 and 10 minutes and the expansion of the limited range of the movement of the femoral head exceeding 40 percent, comprising the forward flexion movement angle of the hip joint less than 80 degrees, the abduction movement angle of the femoral head less than 20 degrees, and the internal rotation angle of the internal rotation angle less than 10 degrees.
Further, the necrosis tissue attenuation evaluation analysis of the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage based on the femoral head necrosis tissue density comprises:
Performing tissue density treatment simulation on the corresponding femoral head necrosis tissue density based on the corresponding femoral head necrosis treatment sub-plan under each femoral head symptom stage so as to generate a corresponding density attenuation process of the femoral head necrosis tissue under each treatment effect;
in the embodiment of the invention, the corresponding femoral head necrosis treatment sub-cases are respectively determined according to different femoral head symptom stages, such as early stage, medium stage and late stage, and the treatment sub-cases comprise specific treatment modes, treatment periods, medicament doses and other information. The method comprises the steps of obtaining initial density data of femoral head necrosis tissue under each stage by utilizing a medical imaging technology (such as CT scanning), constructing a three-dimensional femoral head necrosis tissue model, simulating the action mechanism of a medicine on the necrosis tissue, the influence of physical treatment on the tissue and the like according to treatment parameters in a treatment sub-table in a computer simulation environment, for example, for medicine treatment, simulating the interaction of medicine molecules and necrosis tissue cells according to the components and action principles of the medicine to cause apoptosis and decomposition of tissue cells, thereby causing the change of tissue density, dividing the whole treatment process into a plurality of time steps according to a treatment period, updating the tissue density data in each time step, and finally generating a density attenuation process corresponding to the femoral head necrosis tissue under each treatment effect.
Preferably, the actual attenuation amount statistics is carried out on the density attenuation process corresponding to the femoral head necrosis tissue under each treatment effect, so as to obtain the actual attenuation amount of the tissue density corresponding to the femoral head necrosis tissue under each treatment effect;
In the embodiment of the invention, the tissue density data of each time step is analyzed after the previous density attenuation process simulation is completed, and the tissue density value at the initial time is recorded for the density attenuation process corresponding to each treatment sub-caseAnd tissue density value at the end of treatmentBy calculating the difference between the twoThe method comprises obtaining the integral density attenuation of femoral head necrosis tissue under the treatment effect, recording tissue density values at multiple key time points during treatment, calculating density differences between adjacent time points, and accumulating the differences, for example, selecting three key time points in treatment periodThe corresponding tissue density values are respectivelyActual attenuation amountSuch statistics is carried out on the density attenuation process under each treatment effect, and the actual attenuation of the tissue density corresponding to the femoral head necrosis tissue under each treatment effect is finally obtained.
Preferably, the theoretical maximum attenuation of the femoral head necrosis tissue is obtained, and the actual attenuation of the tissue density corresponding to the femoral head necrosis tissue under each treatment effect is subjected to necrosis tissue attenuation quantitative calculation based on the theoretical maximum attenuation of the femoral head necrosis tissue, so that the femoral head necrosis tissue treatment attenuation efficiency is obtained.
In the embodiment of the invention, a great amount of medical research and clinical data are analyzed to determine the theoretical maximum attenuation of the femoral head necrosis tissue, wherein the theoretical maximum attenuation refers to the maximum density attenuation value which can be achieved by the femoral head necrosis tissue under ideal treatment conditions, and is generally related to the initial range, the property and other factors of the necrosis tissue, and the theoretical maximum attenuation of the femoral head necrosis tissue under a certain symptom stage is determined by researchActual attenuation of tissue density for each previously obtained treatment effect(Representing different treatment sub-protocols), using the formulaAnd (3) carrying out quantitative calculation on the attenuation of the necrotic tissue, for example, if the actual attenuation of the tissue density under a certain treatment sub-plan is 0.5g/cm < 3 >, and the theoretical maximum attenuation under the symptom stage is 1g/cm < 3 >, the treatment attenuation efficiency of the necrotic tissue of the femoral head corresponding to the treatment sub-plan is 50%, and carrying out such calculation on the actual attenuation under all treatment effects, so as to finally obtain the treatment attenuation efficiency of the necrotic tissue of the femoral head under each treatment effect.
Further, the treatment effect prediction analysis module comprises the following functions:
performing treatment effect association mining analysis on the femoral head necrosis tissue image characteristics and the femoral head necrosis characteristic factors in the femoral head necrosis treatment basic characteristics to obtain association relations between the femoral head necrosis characteristic factors and the treatment effects;
In the embodiment of the invention, a large amount of data of femoral head necrosis patients are collected, wherein femoral head necrosis tissue image characteristics are acquired through medical image equipment (such as magnetic resonance imaging, MRI, X-rays and the like) and comprise information of bone trabecular structure, necrosis area size, position and the like, the femoral head necrosis treatment basic characteristics cover factors such as femoral head necrosis treatment probability, femoral head necrosis treatment allergy probability, femoral head necrosis tissue treatment attenuation efficiency and the like, a correlation rule mining algorithm such as an Apriori algorithm is used for processing the data of the characteristic factors and treatment effects (such as pain relieving degree, joint function recovery condition and the like), the Apriori algorithm is taken as an example, a minimum support degree and a minimum confidence threshold are set, a frequent item set is found through multiple times of data scanning, and then the correlation relation between each femoral head necrosis characteristic factor and the treatment effect is obtained, for example, the fact that when the age of a patient is less than 50 years and the treatment effect is remarkably recovered by adopting surgery is found out to be a correlation relation, and finally the correlation relation between each femoral head necrosis characteristic factor and the treatment effect is obtained.
Preferably, based on the association relation between the femoral head necrosis characteristic factors and the treatment effect, carrying out correlation evaluation on the femoral head necrosis tissue image characteristics and the femoral head necrosis characteristic factors in the femoral head necrosis treatment basic characteristics to obtain characteristic correlation factors between the femoral head necrosis characteristic factors and the treatment effect;
In the embodiment of the invention, the correlation between the necrosis characteristic factors and the treatment effect of each femoral head is evaluated by adopting a pearson correlation coefficient method according to the correlation obtained previously, the pearson correlation coefficient between each femoral head necrosis characteristic factor (such as the size of the necrosis area) and the treatment effect index (such as the pain relieving degree) is calculated, the pearson correlation coefficient is calculated based on the mean value, standard deviation and covariance of the pearson correlation coefficient and the treatment effect index, if the pearson correlation coefficient between the necrosis area size and the pain relieving degree is calculated, the pearson correlation coefficient is-0.6, the two are indicated to be in negative correlation, namely, the greater the necrosis area is, the lower the pain relieving degree is, the characteristic correlation factors between the necrosis characteristic factors and the treatment effect of each femoral head necrosis characteristic factor are obtained by carrying out such calculation on the characteristic factors in all femoral head necrosis tissue image characteristics and the treatment basic characteristics, and the characteristic correlation factors between the characteristic factors and the treatment effect are quantized, and the characteristic correlation factors between the characteristic factors and the treatment effect are finally obtained.
Preferably, the causal deducing of the treatment effect is carried out on the image characteristics of the femoral head necrosis tissue and the various femoral head necrosis characteristic factors in the basic characteristics of the femoral head necrosis treatment, so as to obtain the potential causal relation coefficient between the various femoral head necrosis characteristic factors and the treatment effect;
In the embodiment of the invention, causal relation between the image characteristics of the femoral head necrosis tissue and each characteristic factor and the treatment effect in the treatment basic characteristics is inferred by applying a causal inference algorithm, such as a glauch causal test, and taking the glauch causal test as an example, time series data of each characteristic factor (such as a treatment period) and the treatment effect (such as joint function recovery condition) are input into a test model, and if the change of the treatment period is found to be statistically prior to the change of the joint function recovery condition and has significance through test analysis, the treatment period is considered to have potential causal relation to the joint function recovery condition, the causal inference is performed on all the characteristic factors, and the specific number of the potential causal relation between each characteristic factor and the treatment effect is counted, so that the potential causal relation coefficient between each femoral head necrosis characteristic factor and the treatment effect is finally obtained.
Preferably, the characteristic of influence of the treatment effect on the image characteristic of the femoral head necrosis tissue and the basic characteristic of the treatment of the femoral head necrosis is screened based on the characteristic correlation factor and the potential causal relation coefficient between the characteristic factors of the femoral head necrosis and the treatment effect, so as to obtain the characteristic of remarkable influence of the treatment effect of the femoral head necrosis;
In the embodiment of the invention, the characteristic correlation factors and the potential causal relation coefficients between the characteristic factors and the treatment effects of the femoral head necrosis are comprehensively considered by setting screening criteria, the larger the absolute value of the characteristic correlation factors is, the stronger the correlation is, the larger the potential causal relation coefficients are, the larger the quantity of the characteristic factors are, for example, the characteristic factors with the absolute value of the characteristic correlation factors being larger than 0.5 and the potential causal relation coefficients being larger than 2 are set as obvious influence characteristics, according to the criteria, the image characteristics of the femoral head necrosis tissues and all the characteristic factors in the treatment basic characteristics are screened, if the characteristic correlation factors of the size of the necrosis areas are-0.7, and the potential causal relation coefficients are 3, the size of the necrosis areas is determined as obvious characteristics of the influence of the treatment effects of the femoral head necrosis, and through the screening, a group of characteristics with obvious influence on the treatment effects of the femoral head necrosis treatment effects are finally obtained.
Preferably, a femoral head necrosis treatment effect prediction model is constructed by utilizing a convolutional neural network, and significant characteristics of the femoral head necrosis treatment effect are input into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
In the embodiment of the invention, a prediction model of femoral head necrosis treatment effect is constructed by using a Python programming language and a deep learning framework (such as TensorFlow or PyTorch), a convolution neural network of a pyramid network architecture is constructed, convolution operation is carried out on input image data and treatment characteristic data by using a convolution kernel of 3x3 in a shallow layer of the network, detail characteristics such as trabecular change of a micro bone and early necrosis area boundary are extracted, then the characteristics are reduced by using a pooling window of 1x1, in the deep layer network, integral characteristics such as joint morphology, macroscopic distribution and the like are extracted by using a convolution kernel of 5x5, the dimension is reduced by using a pooling window of 1x1, and energy constraint is introduced during training of the model, the activation energy and the information transmission energy of each neuron are calculated and are incorporated into an optimization objective function, a prediction error is minimized through an optimizer (such as random gradient descent), meanwhile, a cross-validation method is adopted, a data set is divided into a plurality of subsets, one subset is taken as a validation set in turn, the other subsets are taken as training sets, a model is trained and validated for many times, model parameters with the best performance are selected, the screened femoral head necrosis treatment effect influence significant characteristic data are input into the trained model, the model processes and predicts the input data in different network layers, and finally, prediction results of corresponding femoral head necrosis treatment effects under different treatment schemes such as pain relieving degree, joint function recovery condition and the like are output.
Further, the femoral head necrosis treatment effect prediction model is specifically a pyramid network architecture for extracting treatment effect characteristics on multiple scales, the architecture extracts detail characteristics corresponding to the femoral head by using convolution kernels corresponding to 3x3 and pooling windows of 1x1 in a shallow network, including micro trabecular changes and early necrosis area boundaries, extracts integral characteristics corresponding to the femoral head by using convolution kernels corresponding to 5x5 and pooling windows of 1x1 in a deep network, including joint morphology and necrosis area macroscopic distribution, and takes activation energy and information transfer energy of each neuron in the network into an optimization target through introducing energy constraint to pay attention to prediction errors corresponding to the model, and simultaneously improves prediction performance corresponding to the model by using cross verification so as to predict and output corresponding femoral head necrosis treatment effects at different network layers.
Furthermore, the invention also provides a femoral head necrosis treatment effect prediction and analysis method based on big data, which is implemented based on the femoral head necrosis treatment effect prediction and analysis platform based on big data, and comprises the following steps:
acquiring multi-source medical data for treating femoral head necrosis, wherein the multi-source medical data comprises basic information of a patient, clinical symptoms of the femoral head, medical images of the femoral head and a femoral head necrosis treatment scheme, and performing data standard cleaning and medical file integration on the multi-source medical data for treating femoral head necrosis to generate a femoral head necrosis treatment data file;
Performing femoral head feature analysis on corresponding femoral head medical images in the femoral head necrosis treatment data file to obtain femoral head necrosis tissue image features including a femoral head necrosis tissue structure, a femoral head necrosis tissue form and a femoral head necrosis tissue density;
Performing femoral head necrosis treatment stage on the corresponding femoral head necrosis treatment scheme based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file to obtain a femoral head necrosis treatment sub-scheme corresponding to each femoral head symptom stage;
The method comprises the steps of carrying out treatment effect influence characteristic screening on femoral head necrosis tissue image characteristics and basic femoral head necrosis treatment characteristics to obtain significant femoral head necrosis treatment effect influence characteristics, constructing a femoral head necrosis treatment effect prediction model, inputting the significant femoral head necrosis treatment effect influence characteristics into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment schemes.
The present embodiments are, therefore, to be considered in all respects as illustrative and not restrictive, the scope of the invention being indicated by the appended claims rather than by the foregoing description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein.
The foregoing is only a specific embodiment of the invention to enable those skilled in the art to understand or practice the invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the generic principles defined herein may be applied to other embodiments without departing from the spirit or scope of the invention. Thus, the present invention is not intended to be limited to the embodiments shown herein but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims (10)

Translated fromChinese
1.一种基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,包括以下模块:1. A big data-based femoral head necrosis treatment effect prediction and analysis platform, characterized by including the following modules:股骨头坏死档案生成模块,用于获取股骨头坏死治疗多源医疗数据,其中包括患者基本信息、股骨头临床症状、股骨头医疗影像以及股骨头坏死治疗方案,并对股骨头坏死治疗多源医疗数据进行数据规范清洗及医疗档案整合,以生成股骨头坏死治疗数据档案;The femoral head necrosis archive generation module is used to obtain multi-source medical data on the treatment of femoral head necrosis, including basic patient information, femoral head clinical symptoms, femoral head medical images, and femoral head necrosis treatment plans, and to perform data standardization cleaning and medical archive integration on the multi-source medical data on the treatment of femoral head necrosis to generate a femoral head necrosis treatment data archive;股骨头影像特征分析模块,用于对股骨头坏死治疗数据档案内对应的股骨头医疗影像进行股骨头特征分析,以得到股骨头坏死组织影像特征,其中包括股骨头坏死组织结构、股骨头坏死组织形态以及股骨头坏死组织密度;The femoral head image feature analysis module is used to perform femoral head feature analysis on the femoral head medical images corresponding to the femoral head necrosis treatment data file to obtain the femoral head necrosis tissue image features, including the femoral head necrosis tissue structure, femoral head necrosis tissue morphology and femoral head necrosis tissue density;股骨头治疗特征分析模块,用于基于股骨头坏死治疗数据档案内对应的股骨头临床症状对相对应的股骨头坏死治疗方案进行股骨头治疗分期,以得到在各个股骨头症状分期下对应的股骨头坏死治疗子案;基于患者基本信息以及股骨头坏死组织密度对在各个股骨头症状分期下对应的股骨头坏死治疗子案进行股骨头坏死治疗特征分析,得到股骨头坏死治疗基本特征;The femoral head treatment characteristic analysis module is used to perform femoral head treatment staging for the corresponding femoral head necrosis treatment plan based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file, so as to obtain the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage; based on the basic information of the patient and the femoral head necrosis tissue density, the femoral head necrosis treatment characteristic analysis is performed on the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage, so as to obtain the basic characteristics of femoral head necrosis treatment;治疗效果预测分析模块,用于对股骨头坏死组织影像特征以及股骨头坏死治疗基本特征进行治疗效果影响特征筛选,以得到股骨头坏死治疗效果影响显著特征;构建股骨头坏死治疗效果预测模型,并将股骨头坏死治疗效果影响显著特征输入至股骨头坏死治疗效果预测模型进行治疗效果预测分析,以预测输出不同治疗方案下对应的股骨头坏死治疗效果。The treatment effect prediction and analysis module is used to screen the characteristics that affect the treatment effect of femoral head necrosis tissue imaging characteristics and the basic characteristics of femoral head necrosis treatment, so as to obtain the significant characteristics that affect the treatment effect of femoral head necrosis; construct a femoral head necrosis treatment effect prediction model, and input the significant characteristics that affect the treatment effect of femoral head necrosis into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis, so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment plans.2.根据权利要求1所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述股骨头坏死档案生成模块包括以下功能:2. The femoral head necrosis treatment effect prediction and analysis platform based on big data according to claim 1 is characterized in that the femoral head necrosis file generation module includes the following functions:获取股骨头坏死治疗多源医疗数据,其中包括患者基本信息、股骨头临床症状、股骨头医疗影像以及股骨头坏死治疗方案,其中所述患者基本信息包括患者对应的年龄、性别、股骨头既往病史以及药物使用史,所述股骨头临床症状包括股骨头疼痛程度以及股骨头活动受限范围,所述股骨头医疗影像包括股骨头对应的X射线图像、CT图像以及MRI图像,所述股骨头坏死治疗方案包括治疗方法、药物使用剂量以及手术记录;Obtain multi-source medical data on the treatment of femoral head necrosis, including basic patient information, clinical symptoms of the femoral head, medical images of the femoral head, and treatment plans for femoral head necrosis, wherein the basic patient information includes the patient's age, gender, previous medical history of the femoral head, and history of drug use, the clinical symptoms of the femoral head include the degree of femoral head pain and the range of limited femoral head movement, the medical images of the femoral head include X-ray images, CT images, and MRI images corresponding to the femoral head, and the treatment plan for femoral head necrosis includes treatment methods, drug dosages, and surgical records;对股骨头坏死治疗多源医疗数据进行数据规范清洗,以去除其中对应的噪声数据、重复数据以及异常数据,对于影像数据则纠正影像对应的标注错误以及采用统一的医学影像传输标准DICOM执行影像编码标准化,而对于文本数据则运用自然语言处理执行规范化并删除重复的医疗检查记录,得到股骨头坏死治疗多源标准数据;The multi-source medical data of femoral head necrosis treatment was cleaned in a standardized manner to remove the corresponding noise data, duplicate data and abnormal data. For the image data, the labeling errors corresponding to the image were corrected and the unified medical image transmission standard DICOM was used to perform image coding standardization. For the text data, natural language processing was used to perform standardization and delete duplicate medical examination records to obtain multi-source standardized data for femoral head necrosis treatment.对股骨头坏死治疗多源标准数据内同一个患者对应的股骨头坏死治疗多源数据进行关联匹配及集成档案整合,以生成股骨头坏死治疗数据档案。The multi-source data on the treatment of femoral head necrosis corresponding to the same patient in the multi-source standard data on the treatment of femoral head necrosis are correlated and matched, and the integrated files are integrated to generate a data file for the treatment of femoral head necrosis.3.根据权利要求2所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述股骨头影像特征分析模块包括以下功能:3. The femoral head necrosis treatment effect prediction and analysis platform based on big data according to claim 2 is characterized in that the femoral head image feature analysis module includes the following functions:对股骨头坏死治疗数据档案内对应的股骨头医疗影像进行影像物理特性深度分析,以对于X射线影像研究X射线在穿过股骨头组织时对应的衰减规律,并根据不同组织对X射线吸收程度的差异分析出影像中灰度值与组织密度的关系,对于CT影像深度解析不同层面体素值所反映的股骨头组织特性,而对于MRI影像研究磁共振信号与股骨头组织对应的氢质子密度以及弛豫时间,得到股骨头医疗影像物理特性数据集;The physical characteristics of the femoral head medical images corresponding to the femoral head necrosis treatment data files are deeply analyzed. For X-ray images, the attenuation law of X-rays when passing through the femoral head tissue is studied, and the relationship between the gray value and tissue density in the image is analyzed according to the difference in the degree of X-ray absorption of different tissues. For CT images, the femoral head tissue characteristics reflected by the voxel values of different layers are deeply analyzed. For MRI images, the magnetic resonance signal and the hydrogen proton density and relaxation time corresponding to the femoral head tissue are studied to obtain the physical characteristics data set of the femoral head medical images;对股骨头医疗影像进行股骨头坏死组织区域分割,以生成股骨头坏死组织区域分割影像;Perform femoral head necrotic tissue area segmentation on femoral head medical images to generate femoral head necrotic tissue area segmentation images;采用基于小波变换在不同尺度下对股骨头坏死组织区域分割影像进行多尺度纹理特征分析,得到股骨头坏死组织区域纹理特征集;The multi-scale texture feature analysis of the femoral head necrotic tissue area segmentation images at different scales was performed based on wavelet transform to obtain the texture feature set of the femoral head necrotic tissue area.基于股骨头医疗影像物理特性数据集对股骨头坏死组织区域纹理特征集进行股骨头特征分析,以根据影像中对应的灰度以及信号强度反演出股骨头坏死组织对应的组织结构,并利用已知的X射线衰减系数与组织密度的关系结合图像体素值计算出股骨头坏死组织对应的密度分布,同时根据T1、T2弛豫时间与组织形态的关系反演出股骨头坏死组织对应的形态特征,以得到股骨头坏死组织影像特征,其中包括股骨头坏死组织结构、股骨头坏死组织形态以及股骨头坏死组织密度。Based on the physical property data set of femoral head medical images, the femoral head feature analysis was performed on the texture feature set of the femoral head necrotic tissue area to invert the corresponding tissue structure of the femoral head necrotic tissue according to the corresponding grayscale and signal intensity in the image, and the density distribution of the femoral head necrotic tissue was calculated by combining the known relationship between the X-ray attenuation coefficient and tissue density with the image voxel value. At the same time, the corresponding morphological characteristics of the femoral head necrotic tissue were inverted according to the relationship between T1, T2 relaxation time and tissue morphology to obtain the image characteristics of the femoral head necrotic tissue, including the femoral head necrotic tissue structure, femoral head necrotic tissue morphology and femoral head necrotic tissue density.4.根据权利要求3所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述采用基于小波变换在不同尺度下对股骨头坏死组织区域分割影像进行多尺度纹理特征分析具体为在小尺度下通过小波变换对应的高频子带系数提取股骨头组织对应的细微纹理特征,包括骨小梁对应的微观结构纹理,而在大尺度下利用分形维数计算分析股骨头整体对应的纹理粗糙程度以及自相似性。4. The big data-based femoral head necrosis treatment effect prediction and analysis platform according to claim 3 is characterized in that the multi-scale texture feature analysis of the femoral head necrosis tissue area segmentation image at different scales based on wavelet transform is specifically to extract the subtle texture features corresponding to the femoral head tissue at a small scale through the high-frequency sub-band coefficients corresponding to the wavelet transform, including the microstructural texture corresponding to the trabeculae, and to calculate and analyze the texture roughness and self-similarity corresponding to the femoral head as a whole at a large scale using the fractal dimension.5.根据权利要求2所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述股骨头治疗特征分析模块包括以下功能:5. The femoral head necrosis treatment effect prediction and analysis platform based on big data according to claim 2 is characterized in that the femoral head treatment feature analysis module includes the following functions:基于股骨头坏死治疗数据档案内对应的股骨头疼痛程度以及股骨头活动受限范围对相对应的股骨头坏死治疗方案进行股骨头治疗分期,以得到在各个股骨头症状分期下对应的股骨头坏死治疗子案;Based on the corresponding femoral head pain degree and femoral head activity limitation range in the femoral head necrosis treatment data file, the corresponding femoral head necrosis treatment plan is divided into femoral head treatment stages to obtain the corresponding femoral head necrosis treatment sub-cases under each femoral head symptom stage;基于患者基本信息内对应的股骨头既往病史以及药物使用史对在各个股骨头症状分期下对应的股骨头坏死治疗子案进行坏死治疗及过敏概率分析,以得到股骨头坏死治疗概率以及股骨头坏死治疗过敏概率;Based on the corresponding femoral head medical history and drug use history in the patient's basic information, the femoral head necrosis treatment and allergy probability analysis is performed on the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage to obtain the femoral head necrosis treatment probability and femoral head necrosis treatment allergy probability;基于股骨头坏死组织密度对在各个股骨头症状分期下对应的股骨头坏死治疗子案进行坏死组织衰减评估分析,得到股骨头坏死组织治疗衰减效率;Based on the density of femoral head necrotic tissue, the necrotic tissue attenuation evaluation and analysis were performed on the femoral head necrotic tissue treatment sub-cases corresponding to each femoral head symptom stage to obtain the femoral head necrotic tissue treatment attenuation efficiency;将股骨头坏死治疗概率、股骨头坏死治疗过敏概率以及股骨头坏死组织治疗衰减效率作为基本特征,得到股骨头坏死治疗基本特征。The probability of femoral head necrosis treatment, the probability of femoral head necrosis treatment allergy and the attenuation efficiency of femoral head necrosis tissue treatment are taken as basic characteristics to obtain the basic characteristics of femoral head necrosis treatment.6.根据权利要求5所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述股骨头症状分期具体为以股骨头疼痛程度在1-3分之间且股骨头活动受限范围在10%-20%之间为早期阶段,包括髋关节前屈活动角度从正常120°-140°降至100°-120°,外展活动角度从正常30°-45°降至25°-35°,而内旋活动角度从正常30°-40°降至20°-30°;以股骨头疼痛程度在4-6分之间且股骨头活动受限范围扩大至20%-40%之间为中期阶段,包括髋关节前屈活动角度降至80°-100°,外展活动角度降至20°-25°,而内旋活动角度降至10°-20°;以股骨头疼痛程度在7-10分之间且股骨头活动受限范围扩大超过40%为晚期阶段,包括髋关节前屈活动角度小于80°,外展活动角度小于20°,而内旋活动角度小于10°。6. The big data-based femoral head necrosis treatment effect prediction and analysis platform according to claim 5 is characterized in that the femoral head symptom staging is specifically based on the early stage when the femoral head pain degree is between 1-3 points and the femoral head activity limitation range is between 10%-20%, including the hip flexion angle from the normal 120°-140° to 100°-120°, the abduction angle from the normal 30°-45° to 25°-35°, and the internal rotation angle from the normal 30°-40° to 20°-30 The mid-term stage is when the femoral head pain level is between 4 and 6 points and the limited range of femoral head motion expands to between 20% and 40%, including the hip flexion angle reduced to 80°-100°, the abduction angle reduced to 20°-25°, and the internal rotation angle reduced to 10°-20°; the late stage is when the femoral head pain level is between 7 and 10 points and the limited range of femoral head motion expands to more than 40%, including the hip flexion angle less than 80°, the abduction angle less than 20°, and the internal rotation angle less than 10°.7.根据权利要求5所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述基于股骨头坏死组织密度对在各个股骨头症状分期下对应的股骨头坏死治疗子案进行坏死组织衰减评估分析包括:7. The big data-based femoral head necrosis treatment effect prediction and analysis platform according to claim 5 is characterized in that the necrotic tissue attenuation evaluation and analysis of the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage based on the femoral head necrosis tissue density includes:基于在各个股骨头症状分期下对应的股骨头坏死治疗子案对相对应的股骨头坏死组织密度进行组织密度治疗模拟,以生成股骨头坏死组织在各个治疗作用下对应的密度衰减过程;Based on the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage, the tissue density treatment simulation is performed on the corresponding femoral head necrosis tissue density to generate the density attenuation process of the femoral head necrosis tissue under each treatment action;对股骨头坏死组织在各个治疗作用下对应的密度衰减过程进行实际衰减量统计,得到股骨头坏死组织在各个治疗作用下对应的组织密度实际衰减量;The actual attenuation amount of the density attenuation process of the femoral head necrotic tissue under each treatment effect is statistically analyzed to obtain the actual attenuation amount of the tissue density under each treatment effect of the femoral head necrotic tissue;获取股骨头坏死组织理论最大衰减量,并基于股骨头坏死组织理论最大衰减量对股骨头坏死组织在各个治疗作用下对应的组织密度实际衰减量进行坏死组织衰减量化计算,得到股骨头坏死组织治疗衰减效率。The theoretical maximum attenuation of femoral head necrotic tissue is obtained, and based on the theoretical maximum attenuation of femoral head necrotic tissue, the actual attenuation of tissue density corresponding to femoral head necrotic tissue under various treatments is quantitatively calculated to obtain the treatment attenuation efficiency of femoral head necrotic tissue.8.根据权利要求1所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述治疗效果预测分析模块包括以下功能:8. The big data-based femoral head necrosis treatment effect prediction and analysis platform according to claim 1, characterized in that the treatment effect prediction and analysis module includes the following functions:对股骨头坏死组织影像特征以及股骨头坏死治疗基本特征内的各个股骨头坏死特征因素进行治疗效果关联挖掘分析,以得到各个股骨头坏死特征因素与治疗效果之间的关联关系;Conduct treatment effect correlation mining analysis on the imaging characteristics of femoral head necrosis tissue and each femoral head necrosis characteristic factor within the basic characteristics of femoral head necrosis treatment, so as to obtain the correlation between each femoral head necrosis characteristic factor and the treatment effect;基于各个股骨头坏死特征因素与治疗效果之间的关联关系对股骨头坏死组织影像特征以及股骨头坏死治疗基本特征内的各个股骨头坏死特征因素进行相关性评估,得到各个股骨头坏死特征因素与治疗效果之间的特征相关性因数;Based on the correlation between each characteristic factor of femoral head necrosis and the treatment effect, the correlation of the imaging characteristics of femoral head necrosis tissue and each characteristic factor of femoral head necrosis within the basic characteristics of femoral head necrosis treatment was evaluated to obtain the characteristic correlation factor between each characteristic factor of femoral head necrosis and the treatment effect;对股骨头坏死组织影像特征以及股骨头坏死治疗基本特征内的各个股骨头坏死特征因素进行治疗效果因果推断,得到各个股骨头坏死特征因素与治疗效果之间的潜在因果关系数;Causal inference of the therapeutic effect was performed on the imaging characteristics of femoral head necrosis tissue and each characteristic factor of femoral head necrosis within the basic characteristics of femoral head necrosis treatment, and the number of potential causal relationships between each characteristic factor of femoral head necrosis and the therapeutic effect was obtained;基于各个股骨头坏死特征因素与治疗效果之间的特征相关性因数以及潜在因果关系数对股骨头坏死组织影像特征以及股骨头坏死治疗基本特征进行治疗效果影响特征筛选,以得到股骨头坏死治疗效果影响显著特征;Based on the characteristic correlation factors and potential causal relationship numbers between each characteristic factor of femoral head necrosis and the treatment effect, the imaging characteristics of femoral head necrosis tissue and the basic characteristics of femoral head necrosis treatment were screened for the characteristics affecting the treatment effect, so as to obtain the significant characteristics affecting the treatment effect of femoral head necrosis;利用卷积神经网络构建股骨头坏死治疗效果预测模型,并将股骨头坏死治疗效果影响显著特征输入至股骨头坏死治疗效果预测模型进行治疗效果预测分析,以预测输出不同治疗方案下对应的股骨头坏死治疗效果。A convolutional neural network was used to construct a prediction model for the treatment effect of femoral head necrosis, and the significant features affecting the treatment effect of femoral head necrosis were input into the prediction model for the treatment effect of femoral head necrosis for prediction and analysis of the treatment effect, so as to predict and output the corresponding treatment effects of femoral head necrosis under different treatment plans.9.根据权利要求8所述的基于大数据的股骨头坏死治疗效果预测与分析平台,其特征在于,所述股骨头坏死治疗效果预测模型具体为一个在多尺度上提取治疗效果特征对应的金字塔网络架构,该架构在浅层网络中以使用3x3对应的卷积核以及1x1池化窗口提取股骨头对应的细节特征,包括微小骨小梁变化以及早期坏死区域边界,而在深层网络中以使用5x5对应的卷积核以及1x1池化窗口提取股骨头对应的整体特征,包括关节形态以及坏死区域宏观分布,并通过引入能量约束将网络中每个神经元的激活能量和信息传递能量纳入优化目标来关注模型对应的预测误差,同时利用交叉验证提高模型对应的预测性能,以在不同网络层预测输出对应的股骨头坏死治疗效果。9. According to the big data-based femoral head necrosis treatment effect prediction and analysis platform described in claim 8, it is characterized in that the femoral head necrosis treatment effect prediction model is specifically a pyramid network architecture that extracts treatment effect characteristics at multiple scales. In the shallow network, the architecture uses a 3x3 corresponding convolution kernel and a 1x1 pooling window to extract the corresponding detail features of the femoral head, including tiny trabecular changes and early necrotic area boundaries, and in the deep network, uses a 5x5 corresponding convolution kernel and a 1x1 pooling window to extract the corresponding overall features of the femoral head, including joint morphology and macroscopic distribution of necrotic areas. By introducing energy constraints, the activation energy and information transfer energy of each neuron in the network are included in the optimization target to pay attention to the prediction error corresponding to the model, and cross-validation is used to improve the corresponding prediction performance of the model, so as to predict the corresponding femoral head necrosis treatment effect at different network layers.10.一种基于大数据的股骨头坏死治疗效果预测与分析方法,其特征在于,所述方法基于权利要求1所述的基于大数据的股骨头坏死治疗效果预测与分析平台执行实现,该基于大数据的股骨头坏死治疗效果预测与分析方法包括:10. A method for predicting and analyzing the therapeutic effect of femoral head necrosis based on big data, characterized in that the method is implemented based on the femoral head necrosis therapeutic effect prediction and analysis platform based on big data according to claim 1, and the method for predicting and analyzing the therapeutic effect of femoral head necrosis based on big data comprises:获取股骨头坏死治疗多源医疗数据,其中包括患者基本信息、股骨头临床症状、股骨头医疗影像以及股骨头坏死治疗方案,并对股骨头坏死治疗多源医疗数据进行数据规范清洗及医疗档案整合,以生成股骨头坏死治疗数据档案;Obtain multi-source medical data on the treatment of femoral head necrosis, including basic patient information, clinical symptoms of the femoral head, medical images of the femoral head, and treatment plans for femoral head necrosis, and perform data standardization cleaning and medical file integration on the multi-source medical data on the treatment of femoral head necrosis to generate a data file on the treatment of femoral head necrosis;对股骨头坏死治疗数据档案内对应的股骨头医疗影像进行股骨头特征分析,以得到股骨头坏死组织影像特征,其中包括股骨头坏死组织结构、股骨头坏死组织形态以及股骨头坏死组织密度;Perform femoral head feature analysis on the femoral head medical images corresponding to the femoral head necrosis treatment data file to obtain the femoral head necrosis tissue image features, including the femoral head necrosis tissue structure, femoral head necrosis tissue morphology and femoral head necrosis tissue density;基于股骨头坏死治疗数据档案内对应的股骨头临床症状对相对应的股骨头坏死治疗方案进行股骨头治疗分期,以得到在各个股骨头症状分期下对应的股骨头坏死治疗子案;基于患者基本信息以及股骨头坏死组织密度对在各个股骨头症状分期下对应的股骨头坏死治疗子案进行股骨头坏死治疗特征分析,得到股骨头坏死治疗基本特征;Based on the corresponding femoral head clinical symptoms in the femoral head necrosis treatment data file, the corresponding femoral head necrosis treatment plan is divided into femoral head treatment stages to obtain the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage; based on the basic information of the patient and the femoral head necrosis tissue density, the femoral head necrosis treatment sub-cases corresponding to each femoral head symptom stage are analyzed for femoral head necrosis treatment characteristics to obtain the basic characteristics of femoral head necrosis treatment;对股骨头坏死组织影像特征以及股骨头坏死治疗基本特征进行治疗效果影响特征筛选,以得到股骨头坏死治疗效果影响显著特征;构建股骨头坏死治疗效果预测模型,并将股骨头坏死治疗效果影响显著特征输入至股骨头坏死治疗效果预测模型进行治疗效果预测分析,以预测输出不同治疗方案下对应的股骨头坏死治疗效果。The imaging features of femoral head necrosis tissue and the basic characteristics of femoral head necrosis treatment are screened for features that affect the treatment effect, so as to obtain the significant features that affect the treatment effect of femoral head necrosis; a femoral head necrosis treatment effect prediction model is constructed, and the significant features that affect the treatment effect of femoral head necrosis are input into the femoral head necrosis treatment effect prediction model for treatment effect prediction analysis, so as to predict and output the corresponding femoral head necrosis treatment effects under different treatment plans.
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