CN110517258A - A kind of cervical carcinoma pattern recognition device and system based on high light spectrum image-forming technology - Google Patents
A kind of cervical carcinoma pattern recognition device and system based on high light spectrum image-forming technology Download PDFInfo
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Abstract
The invention discloses a kind of cervical carcinoma pattern recognition device and system based on high light spectrum image-forming technology improves high spectrum image accuracy of identification and speed;The device includes: data acquisition module, is used for EO-1 hyperion uterine neck image;Database module establishes the large database concept of EO-1 hyperion uterine neck image for the EO-1 hyperion uterine neck image of EO-1 hyperion uterine neck image and each period cervical carcinogenesis patient using obtained normal person;Neural network module carries out feature extraction and classification for the EO-1 hyperion uterine neck image to different times cervical carcinogenesis patient, and establishes the BP neuroid of each classification respectively;3-D image establishes module, for handling using EO-1 hyperion uterine neck image of the BP neuroid established to person to be identified, establishes the three-dimensional high spectrum image of person to be identified;Data fitting module obtains fitting image for being fitted the three-dimensional high spectrum image of person to be identified and uterine neck image in large database concept using CEM algorithm.
Description
Technical field
This disclosure relates to image identification technical field, and in particular to a kind of cervical carcinoma image based on high light spectrum image-forming technology
Identification device and cervical carcinoma image identification system.
Background technique
With the development of science and technology, the identification of all kinds of images starts to develop to automation direction, the application of artificial intelligence is more next
It is wider, a large amount of manpower and material resources are not only saved, precision is also very high.
High light spectrum image-forming technology is the image data technology based on very more narrow-bands, it is by imaging technique and spectral technique
Combine, detect target two-dimensional geometry space and one-dimensional spectral information, obtain continuous, narrow-band the figure of high spectral resolution
As data.High light spectrum image-forming technology is quickly grown at present, similarly can be used using the image that high light spectrum image-forming technology generates
The method automatic identification of artificial intelligence.
Inventor has found that the imaging method of traditional cervical carcinoma image is by vaginoscopy, hand in R&D process
Method is complicated, low efficiency, and traditional images recognition methods is to judge that the method precision is low according to the experience of oneself by doctor,
Time-consuming length, and low efficiency.
Summary of the invention
In order to overcome the above-mentioned deficiencies of the prior art, present disclose provides a kind of cervical carcinomas based on high light spectrum image-forming technology
Pattern recognition device and cervical carcinoma image identification system improve high spectrum image accuracy of identification and speed.
A kind of technical side of on the one hand cervical carcinoma pattern recognition device based on high light spectrum image-forming technology that the disclosure provides
Case is:
A kind of cervical carcinoma pattern recognition device based on high light spectrum image-forming technology, the device include:
Data acquisition module, for obtaining the EO-1 hyperion uterine neck image of normal person and the height of each period cervical carcinogenesis patient
Spectrum uterine neck image and the EO-1 hyperion uterine neck image of person to be identified;
Database module, for the EO-1 hyperion uterine neck image and each period cervical carcinogenesis using obtained normal person
The EO-1 hyperion uterine neck image of patient, establishes the large database concept of EO-1 hyperion uterine neck image;
Neural network module carries out feature for the EO-1 hyperion uterine neck image to different times cervical carcinogenesis patient and mentions
It takes and classifies, and establish the BP neuroid of each classification respectively;
3-D image establishes module, for utilizing established BP neuroid to the EO-1 hyperion uterine neck figure of person to be identified
As being handled, the three-dimensional high spectrum image of person to be identified is established;
Data fitting module, for using CEM algorithm by the three-dimensional high spectrum image of person to be identified and large database concept Middle Palace
Neck image is fitted, and obtains fitting image.
A kind of technical side of on the one hand cervical carcinoma image identification system based on high light spectrum image-forming technology that the disclosure provides
Case is:
A kind of cervical carcinoma image identification system based on high light spectrum image-forming technology, the system include Hyperspectral imaging devices and
Processor;
The Hyperspectral imaging devices, for generate respectively normal person EO-1 hyperion uterine neck image and each period cervical carcinoma
Become the uterine neck image of patient, and generate the EO-1 hyperion uterine neck image of person to be identified, extremely by the EO-1 hyperion uterine neck image transmitting of generation
Processor;
The processor, for obtaining the EO-1 hyperion uterine neck image of normal person and the uterine neck of each period cervical carcinogenesis patient
Image establishes large database concept;Feature extraction and classification are carried out to the EO-1 hyperion uterine neck image of different times cervical carcinogenesis patient, and
The BP neuroid for establishing each classification respectively is carried out using EO-1 hyperion uterine neck image of the BP neuroid to person to be identified
Processing, establishes the three-dimensional high spectrum image of person to be identified, by uterine neck in the three-dimensional high spectrum image of person to be identified and large database concept
Image is fitted, and obtains fitting image.
Through the above technical solutions, the beneficial effect of the disclosure is:
(1) disclosure can be combined with hyperspectral technique, in conjunction with the characteristics of high light spectrum image-forming, improve image recognition
Accuracy.
(2) disclosure carries out image procossing by CEM algorithm, improves the accuracy of image recognition.
(3) method that the disclosure uses big data classification analysis, reduces error, reduces the influence of external factor.
Detailed description of the invention
The Figure of description for constituting a part of this disclosure is used to provide further understanding of the disclosure, and the disclosure is shown
Meaning property embodiment and its explanation do not constitute the improper restriction to the disclosure for explaining the application.
Fig. 1 is the structure chart of cervical carcinoma pattern recognition device of the embodiment one based on high light spectrum image-forming technology;
Flow chart when Fig. 2 is data fitting module progress data fitting in embodiment one;
Fig. 3 is the structure chart of cervical carcinoma image identification system of the embodiment two based on high light spectrum image-forming technology
Fig. 4 is the structure chart of Hyperspectral imaging devices in embodiment two.
Specific embodiment
The disclosure is described further with embodiment with reference to the accompanying drawing.
It is noted that following detailed description is all illustrative, it is intended to provide further instruction to the disclosure.Unless another
It indicates, all technical and scientific terms that the disclosure uses have logical with disclosure person of an ordinary skill in the technical field
The identical meanings understood.
It should be noted that term used herein above is merely to describe specific embodiment, and be not intended to restricted root
According to the illustrative embodiments of the application.As used herein, unless the context clearly indicates otherwise, otherwise singular
Also it is intended to include plural form, additionally, it should be understood that, when in the present specification using term "comprising" and/or " packet
Include " when, indicate existing characteristics, step, operation, device, component and/or their combination.
Embodiment one
The present embodiment provides a kind of cervical carcinoma pattern recognition device based on high light spectrum image-forming technology, please refers to attached drawing 1, should
Device includes data acquisition module, Database module, neural network module, 3-D image establishes module and data are quasi-
Mold block, in which:
The data acquisition module, for obtain normal person EO-1 hyperion uterine neck image and each period cervical carcinogenesis patient
EO-1 hyperion uterine neck image and person to be identified EO-1 hyperion uterine neck image.
The Database module, for the EO-1 hyperion uterine neck image and each period uterine neck using obtained normal person
The EO-1 hyperion uterine neck image of canceration patient, establishes the large database concept of normal person and the high spectrum image in patient's each period.
The neural network module carries out special for the EO-1 hyperion uterine neck image to different times cervical carcinogenesis patient
Sign is extracted and classification, separately designs a BP neuroid to each classification.
Specifically, the neural network module is specifically used for:
Using the similitude of image information, feature is carried out to the EO-1 hyperion uterine neck image of different times cervical carcinogenesis patient and is mentioned
It takes;
The reflection spectrum curve of each pixel is generated according to the feature of extraction using map sorting algorithm;
Based on the reflection spectrum curve of each pixel, the BP neuroid of every class image is established.
The BP neuroid is the learning process of error-duration model error backpropagation algorithm, by the forward-propagating of information
With two process compositions of backpropagation of error.Each neuron of input layer is responsible for receiving from extraneous input information, and transmits
Give middle layer each neuron;Middle layer is internal information process layer, is responsible for information transformation, according to the demand of information change ability,
Middle layer can be designed as single hidden layer or more hidden layer configurations;The last one hidden layer is transmitted to the information of each neuron of output layer,
After after further treatment, the forward-propagating treatment process that once learns is completed, by output layer outwardly output information processing result.
When reality output and desired output are not inconsistent, into the back-propagation phase of error.Error is by output layer, by under error gradient
The mode of drop corrects each layer weight, to hidden layer, the layer-by-layer anti-pass of input layer.Information forward-propagating and error in cycles reversely passes
Process is broadcast, is the process of process and neural network learning training that each layer weight constantly adjusts, this process is performed until net
Until the error of network output is reduced to acceptable degree or preset study number.
The 3-D image establishes module, for utilizing established BP neuroid to the EO-1 hyperion palace of person to be identified
Neck image is handled, and the three-dimensional high spectrum image of person to be identified is established.
The data fitting module, for using CEM algorithm by the three-dimensional high spectrum image and large database concept of person to be identified
Middle uterine neck image is fitted, and obtains fitting image.
Attached drawing 2 is please referred to, the data fitting module is specifically used for:
Obtain the three-dimensional high spectrum image of person to be identified;
The three-dimensional high spectrum image of obtained person to be identified is pre-processed, including two dimensionization and normalization, is obtained pre-
Treated hyperspectral image data r (L*N);
According to hyperspectral image data r, the autocorrelation matrix R of image is acquired, and is inverted to it, auto-correlation square is obtained
The inverse matrix of battle array;
Determine target optical spectrum vector d (d size is L*1);
FIR filter is designed, the filter of FIR filter is acquired in conjunction with the prior information of the object vector got from library of spectra
Wave vector;
Pretreated hyperspectral image data r is passed through into FIR filter, the image data y after being fitted, expression
Formula are as follows:
In the present embodiment, the expression formula of the autocorrelation matrix R are as follows:
Wherein, riFor the hyperspectral image data after two dimensionization;N is pixel number;
The design formula of the FIR linear filter are as follows:
Wherein, R is the autocorrelation matrix of matrix r;D is target optical spectrum information to be detected.
The expression formula of the FIR linear filter are as follows:
W=[w1, w2..., wL]T
Wherein, wiFor the filter factor under different pixels.
The cervical carcinoma pattern recognition device based on high light spectrum image-forming technology that the present embodiment proposes, can be with hyperspectral technique
It combines, in conjunction with the characteristics of high light spectrum image-forming, improves the accuracy of image recognition;Image procossing is carried out by CEM algorithm, is mentioned
The high accuracy of image recognition;Using the method for big data classification analysis, reduce error, reduces the shadow of external factor
It rings.
Embodiment two
The present embodiment provides a kind of cervical carcinoma image identification system based on high light spectrum image-forming technology, using high light spectrum image-forming
Technology generates the uterine neck image of EO-1 hyperion, and the curve of spectrum of uterine neck image is generated using map combination algorithm, establishes large database concept,
The uterine neck image of person to be identified is fitted with big data.
Attached drawing 3 is please referred to, the cervical carcinoma image identification system includes Hyperspectral imaging devices, processor and display dress
It sets, in which:
The Hyperspectral imaging devices, for generate respectively normal person EO-1 hyperion uterine neck image and each period cervical carcinoma
Become the EO-1 hyperion uterine neck image of patient, and generate the EO-1 hyperion uterine neck image of person to be identified, extremely by the uterine neck image transmitting of generation
Processor.
The processor, for obtaining the EO-1 hyperion uterine neck image of normal person and the bloom of each period cervical carcinogenesis patient
Uterine neck image is composed, large database concept is established;For each uterine neck image, a BP neuroid is constructed respectively;It obtains to be identified
The EO-1 hyperion uterine neck image of person is handled using EO-1 hyperion uterine neck image of the BP neuroid to person to be identified, establish to
The three-dimensional high spectrum image of identification person intends the three-dimensional high spectrum image of person to be identified and uterine neck image in large database concept
It closes, obtains fitting image.
The display device for the fitting image in reading processor, and is shown.
Attached drawing 4 is please referred to, the Hyperspectral imaging devices include light source, camera lens I, slit, camera lens II, grating and fluorescence
Screen emits on light source to human body uterus neck, and camera lens I, slit and camera lens II of the cell tissue reflected light by imaging reflex to
On grating, after grating, reflected light is imaged on fluorescent screen by wavelength color.
The Hyperspectral imaging devices that the present embodiment proposes, using hyperspectral technique, when light source is radiated at human body uterus neck
When, cell tissue reflected light pass through imaging lens, slit, then via optical devices such as gratings after, imaged in by wavelength color glimmering
On optical screen.
In the present embodiment, the processor includes data acquisition module, Database module, neural network mould
Block, 3-D image establish module and data fitting module, in which:
The data acquisition module, uterine neck image and each period cervical carcinogenesis for obtaining the normal person of EO-1 hyperion are suffered from
The uterine neck image of person and the EO-1 hyperion uterine neck image of person to be identified.
The Database module, uterine neck image and each period palace for the normal person using obtained EO-1 hyperion
Neck cancer becomes the uterine neck image of patient, establishes the large database concept of normal person and the high spectrum image in patient's each period.
The neural network module carries out feature extraction and classification for the high spectrum image to different times, right
Each classification separately designs a BP neuroid.
Specifically, the neural network module is specifically used for:
Using the similitude of image information, feature extraction is carried out to the high spectrum image to different times, and utilize map
Sorting algorithm generates the reflection spectrum curve of each pixel;
Using the reflection spectrum curve of each pixel, the BP neuroid of every class image is established.
The 3-D image establishes module, for utilizing established BP neuroid to the EO-1 hyperion palace of person to be identified
Neck image is handled, and the three-dimensional high spectrum image of person to be identified is established.
The data fitting module, for using CEM algorithm by the three-dimensional high spectrum image and large database concept of person to be identified
Middle uterine neck image is fitted, and obtains fitting image.
Attached drawing 2 is please referred to, the data fitting module is specifically used for:
Obtain the three-dimensional high spectrum image of person to be identified;
The three-dimensional high spectrum image of obtained person to be identified is pre-processed, including two dimensionization and normalization, is obtained pre-
Treated hyperspectral image data r (L*N);
According to hyperspectral image data r, the autocorrelation matrix R of image is acquired, and is inverted to it, auto-correlation square is obtained
The inverse matrix of battle array;
Determine target optical spectrum vector d (d size is L*1);
FIR filter is designed, the filter of FIR filter is acquired in conjunction with the prior information of the object vector got from library of spectra
Wave vector;
Pretreated hyperspectral image data r is passed through into FIR filter, the image data y after being fitted, expression
Formula are as follows:
In the present embodiment, the expression formula of the autocorrelation matrix R are as follows:
Wherein, riFor the hyperspectral image data after two dimensionization;N is pixel number;
The design formula of the FIR linear filter are as follows:
Wherein, R is the autocorrelation matrix of matrix r;D is target optical spectrum information to be detected.
The expression formula of the FIR linear filter are as follows:
W=[w1, w2..., wL]T
Wherein, wiFor the filter factor under different pixels.
The cervical carcinoma image identification system based on high light spectrum image-forming technology that the present embodiment proposes, can be with hyperspectral technique
It combines, in conjunction with the characteristics of high light spectrum image-forming, improves the accuracy of image recognition;Image procossing is carried out by CEM algorithm, is mentioned
The high accuracy of image recognition;Using the method for big data classification analysis, reduce error, reduces the shadow of external factor
It rings.
Although above-mentioned be described in conjunction with specific embodiment of the attached drawing to the disclosure, model not is protected to the disclosure
The limitation enclosed, those skilled in the art should understand that, on the basis of the technical solution of the disclosure, those skilled in the art are not
Need to make the creative labor the various modifications or changes that can be made still within the protection scope of the disclosure.
Claims (10)
1. a kind of cervical carcinoma pattern recognition device based on high light spectrum image-forming technology, characterized in that include:
Data acquisition module, for obtaining the EO-1 hyperion uterine neck image of normal person and the EO-1 hyperion of each period cervical carcinogenesis patient
Uterine neck image and the EO-1 hyperion uterine neck image of person to be identified;
Database module, for utilizing the obtained EO-1 hyperion uterine neck image of normal person and each period cervical carcinogenesis patient
EO-1 hyperion uterine neck image, establish the large database concept of EO-1 hyperion uterine neck image;
Neural network module, for different times cervical carcinogenesis patient EO-1 hyperion uterine neck image carry out feature extraction and
Classification, and the BP neuroid of each classification is established respectively;
3-D image establishes module, for utilize established BP neuroid to the EO-1 hyperion uterine neck image of person to be identified into
Row processing, establishes the three-dimensional high spectrum image of person to be identified;
Data fitting module, for using CEM algorithm by uterine neck figure in the three-dimensional high spectrum image of person to be identified and large database concept
As being fitted, fitting image is obtained.
2. the cervical carcinoma pattern recognition device according to claim 1 based on high light spectrum image-forming technology, characterized in that described
Neural network module is specifically used for:
Using the similitude of image information, feature extraction is carried out to the EO-1 hyperion uterine neck image of different times cervical carcinogenesis patient;
The reflection spectrum curve of each pixel is generated according to the feature of extraction using map sorting algorithm;
Based on the reflection spectrum curve of each pixel, the BP neuroid of every class image is established.
3. the cervical carcinoma pattern recognition device according to claim 1 based on high light spectrum image-forming technology, characterized in that described
Data fitting module is specifically used for:
Obtain the three-dimensional high spectrum image of person to be identified;
The three-dimensional high spectrum image of obtained person to be identified is pre-processed, pretreated hyperspectral image data is obtained;
According to hyperspectral image data, the autocorrelation matrix of image is acquired, and is inverted to it, the inverse of autocorrelation matrix is obtained
Matrix;
Determine target optical spectrum vector;
Design FIR filter, in conjunction with the object vector got from library of spectra prior information acquire the filtering of FIR filter to
Amount;
Pretreated hyperspectral image data is passed through into FIR filter, the image data after being fitted.
4. the cervical carcinoma pattern recognition device according to claim 3 based on high light spectrum image-forming technology, characterized in that described
The design formula of FIR linear filter are as follows:
Wherein, R is the autocorrelation matrix of matrix r;D is target optical spectrum information to be detected;
The expression formula of the FIR linear filter are as follows:
W=[w1, w2..., wL]T
Wherein, wiFor the filter factor under different pixels.
5. the cervical carcinoma pattern recognition device according to claim 4 based on high light spectrum image-forming technology, characterized in that described
The expression formula of autocorrelation matrix R are as follows:
Wherein, riFor the hyperspectral image data after two dimensionization;N is pixel number.
6. a kind of cervical carcinoma image identification system based on high light spectrum image-forming technology, characterized in that including Hyperspectral imaging devices
And processor;
The Hyperspectral imaging devices, EO-1 hyperion uterine neck image and each period cervical carcinogenesis for generating normal person respectively are suffered from
The uterine neck image of person, and the EO-1 hyperion uterine neck image of person to be identified is generated, by the EO-1 hyperion uterine neck image transmitting of generation to processing
Device;
The processor, for obtaining the EO-1 hyperion uterine neck image of normal person and the uterine neck figure of each period cervical carcinogenesis patient
Picture establishes large database concept;Feature extraction and classification are carried out to the EO-1 hyperion uterine neck image of different times cervical carcinogenesis patient, and divided
The BP neuroid for not establishing each classification, using BP neuroid to the EO-1 hyperion uterine neck image of person to be identified at
Reason, establishes the three-dimensional high spectrum image of person to be identified, by uterine neck figure in the three-dimensional high spectrum image of person to be identified and large database concept
As being fitted, fitting image is obtained.
7. the cervical carcinoma image identification system according to claim 6 based on high light spectrum image-forming technology, characterized in that described
Hyperspectral imaging devices include light source, camera lens I, slit, camera lens II, grating and fluorescent screen, transmitting light source to human body uterus neck
On, human body reflected light reflexes on grating by camera lens I, slit and camera lens II, and after grating, reflected light is imaged by wavelength color
In on fluorescent screen.
8. the cervical carcinoma image identification system according to claim 6 based on high light spectrum image-forming technology, characterized in that described
Processor includes:
Data acquisition module, for obtaining the EO-1 hyperion uterine neck image of normal person and the EO-1 hyperion of each period cervical carcinogenesis patient
Uterine neck image and the EO-1 hyperion uterine neck image of person to be identified;
Database module, for utilizing the obtained EO-1 hyperion uterine neck image of normal person and each period cervical carcinogenesis patient
EO-1 hyperion uterine neck image, establish the large database concept of EO-1 hyperion uterine neck image;
Neural network module, for different times cervical carcinogenesis patient EO-1 hyperion uterine neck image carry out feature extraction and
Classification, and the BP neuroid of each classification is established respectively;
3-D image establishes module, for utilize established BP neuroid to the EO-1 hyperion uterine neck image of person to be identified into
Row processing, establishes the three-dimensional high spectrum image of person to be identified;
Data fitting module, for using CEM algorithm by uterine neck figure in the three-dimensional high spectrum image of person to be identified and large database concept
As being fitted, fitting image is obtained.
9. the cervical carcinoma image identification system according to claim 8 based on high light spectrum image-forming technology, characterized in that described
Neural network module is specifically used for:
Using the similitude of image information, feature extraction is carried out to the EO-1 hyperion uterine neck image of different times cervical carcinogenesis patient;
The reflection spectrum curve of each pixel is generated according to the feature of extraction using map sorting algorithm;
Based on the reflection spectrum curve of each pixel, the BP neuroid of every class image is established.
10. the cervical carcinoma image identification system according to claim 8 based on high light spectrum image-forming technology, characterized in that institute
Data fitting module is stated to be specifically used for:
Obtain the three-dimensional high spectrum image of person to be identified;
The three-dimensional high spectrum image of obtained person to be identified is pre-processed, pretreated hyperspectral image data is obtained;
According to hyperspectral image data, the autocorrelation matrix of image is acquired, and is inverted to it, the inverse of autocorrelation matrix is obtained
Matrix;
Determine target optical spectrum vector;
Design FIR filter, in conjunction with the object vector got from library of spectra prior information acquire the filtering of FIR filter to
Amount;
Pretreated hyperspectral image data is passed through into FIR filter, the image data after being fitted.
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