CN106127769A - A kind of brain Forecasting Methodology in age connecting network based on brain - Google Patents
A kind of brain Forecasting Methodology in age connecting network based on brain Download PDFInfo
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Abstract
The invention discloses a kind of brain Forecasting Methodology in age connecting network based on brain.First described method comprises the steps:, from brain image, abstraction function connects network;Secondly, the cluster coefficients feature as node of network node is calculated;Then, use the weight of LASSO opposite side to carry out feature selection, reject the limit without identification;Then, the feature of aggregators and there is the feature on limit of identification as fusion feature;Support vector regression (support vector regression, SVR) is finally used to estimate brain age.The invention provides a kind of effective extraction feature, the brain Forecasting Methodology in age connecting network based on brain that regression effect is good.
Description
Technical field
The invention discloses a kind of brain Forecasting Methodology in age connecting network based on brain, the invention belongs to medical image and calculating
The crossing domain of machine science, relates to the technical field of digital image analysis and pattern recognition.
Background technology
In the last few years, neuroimaging technology develops rapidly, mainly includes structure NMR (Nuclear Magnetic Resonance)-imaging (structural
Magnetic resonance imaging, structural MRI), diffusion tensor (diffusion tensor
Imaging, DTI), function NMR (Nuclear Magnetic Resonance)-imaging (functional MRI, fMRI), electroencephalogram (electro-
Encephalogram, EEG) and magneticencephalogram (magnetoencephalography, MEG).Based on fMRI, EEG and MEG image
In, people can obtain function and connect network, for reflecting the dissection connection mode of Different brain region.
Brain network model is the simple expression to brain system.In brain connects network, node is generally defined as nerve
Unit or area-of-interest, and limit is defined as the connection mode between them.At present, the research of brain connection analysis of network is broadly divided into
Two aspects: one is to lay particular emphasis on the test driving ad hoc hypothesis, as to small-world network and hippocampal network etc.;Two is that emphasis is put
Complete based on individual prediction and classification based on machine learning method.Rule are obtained owing to can automatically analyze from data
Restraining, and unknown data is predicted by assimilated equations, method based on machine learning has become as a recent studies on focus.But by
In the complexity of brain self, and the sample usually got is considerably less, which results in brain and connects dividing of network
Analysis is a problem the most challenging.
Brain age, refer to the age of brain.Brain age and actual age have different implications, research to find, the mankind are at healthy shape
Brain age under state is approximately equal to self actual age, suffers from the crowd of nervous system disease for some, its brain age
Can be more than self actual age, those growths occur that its brain age of crowd of obstacle is then less than self actual age.Logical
Spend the prediction human brain age, itself and actual age are contrasted, can detect whether brain accelerated ageing and nerve degeneration occurs
The early symptom of property disease, it is the most necessary for therefore constructing a kind of brain forecast model in age that can effectively predict the human brain age
's.
The present invention, based on problem above, proposes a kind of brain Forecasting Methodology in age connecting network based on brain.Achieve the company of requiring mental skill
Demonstrate, while connecing network Accurate Prediction brain age, the effectiveness that various features merges.
Summary of the invention
The present invention is to connect network based on brain, the method inventing a brain age prediction.
The concrete technical scheme of the present invention includes following step:
Step one: construct brain from brain image data and connect network;
Step 2: connect network from brain and extract the cluster coefficients of node as node diagnostic;
Step 3: connect network to extract and select from brain and there is the limit weight of identification as limit feature;
Step 4: merge the node diagnostic in first two steps and limit feature as fusion feature;
Step 5: use support vector regression to estimate brain age fusion feature.
In described step one, to the initial data collected, we use Data Processing Assistant for
Resting-State fMRI (DPARSF) carries out time adjustment (slice timing) of cutting into slices, head dynamic(al) correction (motion
And the standard pretreatment process such as spatial regularization (spatial normalization) correlation),.The most each object
The Naokong corresponding to fMRI image between be divided into 90 according to Automated Anatomical Labeling (AAL) template
Ge Nao district (summit in each brain district corresponding diagram), calculate each brain district average time sequence and brain interval
Pearson correlation coefficient is as the bonding strength in brain interval.Thus obtain the functional connection network of brain.
In described step 2, we extract the cluster coefficients of node as node diagnostic from brain connection network.First,
We use the method for thresholding, are converted into by the function having the right connection network and have no right network.Given function connects network (square
Battle array) and G=[w (i, j)] ∈ Rn×nWith threshold value T, use formula below thresholding connect network:
Wherein, n represents the number of area-of-interest (region-of-interest, ROI).
Then, we calculate and have no right the cluster coefficients of each node in network.We provide the definition of cluster coefficients.
Definition 1: cluster coefficients
Having no right non-directed graph G for given one, the cluster coefficients computing formula of the i-th node in G is as follows:
Wherein kiRepresent the number of the abutment points of i-th node, EiRepresent the k of i-th nodeiExist between individual abutment points
Limit number.
From formula (2) it can be seen that the connection between the abutment points of a point is the tightst, the value of cluster coefficients is more
High.In the functional network of disease of brain patient, cluster coefficients can well reflect single area-of-interest (region-of-
Interest, ROI) exception.
In described step 3, we extract the weight on limit from brain connection network and select the limit power with identification
Recast is limit feature.Lasso algorithm is used to select the limit weight with identification the weight on the limit extracted.Lasso returns
Estimation rarefaction representation coefficient w is returned to can be described as follows:
It is that the feature in the initial data corresponding to 0 is removed by the coefficient matrix w intermediate value tried to achieve.Obtain one through spy
Levy the eigenmatrix of the relatively low-dimensional after selection.
In described step 4, the feature picked out in step 2 and step 3 is carried out linear fusion obtain one new
Feature.Specifically it is calculated as follows, if the eigenmatrix of node isThe eigenmatrix on limit isThen
Eigenmatrix after fusion isWherein, n represents that number of samples, c represent the spy of node
Levying number, e represents the Characteristic Number on limit.
In described step 5, support vector regression SVR is used to estimate brain age to step 4 obtains fusion feature.
The present invention uses above technical scheme compared with prior art, has the following advantages and beneficial effect:
(1) method merging multiple features that the present invention proposes is carried out after making full use of manifold advantage and being merged
Regression forecasting, achieves and well predicts the outcome;
(2) existing brain network research focuses on how to divide the brain network of different people according to certain division rule mostly
Class, and this clearly demarcated purpose is to do regression forecasting, obtain is a successive value, has more the meaning analyzing reference.
Accompanying drawing explanation
Fig. 1 is the frame diagram of the method for the invention.
Fig. 2 is the physiological age of the embodiment of the present invention and estimates brain corresponding diagram in age.
Detailed description of the invention
Select middle-aged and elderly people 40 example of health below, in conjunction with Fig. 1, said method of the present invention is specifically described.Wherein,
The age of subjects, sex are as shown in table 1 below.Because sample number is less, leaving-one method is used to carry out cross validation in an experiment.Tool
For body, in each experiment, choosing a sample as test sample, remaining sample is as training sample.Final knot
Fruit is to be calculated by the average result of all experiments.
Table 1 subjects's Information Statistics table
Quantity | Male/female ratio | The range of age | Age average/standard deviation | |
Tested sample | 40 | 18/22 | 65~90 | 75.6/6.4 |
The overall procedure of the present invention is as shown in Figure 1.Concrete implementation process comprises five steps:
Step one is to build brain to connect network.Firstly, it is necessary to collect some brain image numbers comprising clinical variable Value Data
According to.Then, to the initial data collected, use Data Processing Assistant for Resting-State
FMRI (DPARSF) carries out time adjustment (slice timing) of cutting into slices, head dynamic(al) correction (motion correlation), and sky
Between the standard pretreatment process such as regularization (spatial normalization).Corresponding to the fMRI image of the most each object
Naokong between be divided into (each brain district pair of 90 Ge Nao districts according to Automated Anatomical Labeling (AAL) template
Should a summit in figure), calculate each brain district average time sequence and the interval Pearson correlation coefficient of brain as brain
Interval bonding strength.Thus obtain the functional connection network of brain.It should be noted that this brain network is a diagonal angle
The symmetrical matrix of 1 it is all on line.
Step 2 is to extract the cluster coefficients of node.To the full Weight network that connects obtained in step one first by public affairs
Formula (1) thresholding connects network, less than threshold value, weight in network is set to 0, is set to 1 more than or equal to threshold value.Thus will
Brain network of having the right is converted into and haves no right brain network.Then, use formula (2) to calculate and have no right the cluster system of each node in brain network
Number.Obtain a matrix comprising node diagnosticIn matrix A, often row represents a sample, each column generation
The cluster coefficients of one node of table.In Setup Experiments, the threshold value in formula (1) is set to 0.6.
Step 3 is to extract and select the weight on limit.The symmetrical full Weight network that connects obtained in step one is carried out
Conversion, pulls into the vector of a 90* (90-1)/2=4005 dimension by the network of this 90*90, and the information that this vector is comprised is
The weighted value on the limit of network.Then, the formula (3) of Lasso algorithm is used to select the limit with identification.Obtain one to comprise
The matrix of limit featureIn matrix B, often row represents a sample, and each column represents one and has identification
Limit weight.In Setup Experiments, the parameter lambda in formula (3) is set to 0.7.
Step 4 is aggregators feature and limit feature.The matrix B that the matrix A obtaining step 2 and step 3 obtain is entered
Row merges, if the eigenmatrix of node isThe eigenmatrix on limit isThen merge
After eigenmatrix be
Step 5 uses support vector regression SVR the eigenmatrix C obtained in step 4 to be carried out regression analysis, to melt
Eigenmatrix C is as independent variable in conjunction, and the age, as dependent variable, carries out regression analysis, estimates brain age.
It is computed, the correlation coefficient value between prediction brain age that fusion method proposed by the invention draws and true brain age
Being 0.8899, root-mean-square error value is 3.1340.
Above in conjunction with accompanying drawing, embodiments of the present invention are explained in detail, but the present invention is not limited to above-mentioned enforcement
Mode, in the ken that those of ordinary skill in the art are possessed, it is also possible on the premise of without departing from present inventive concept
Make a variety of changes.
Claims (6)
1. connect a brain Forecasting Methodology in age for network based on brain, its feature comprises the steps:
(1) from brain image, construct brain connect network;
(2) extraction node diagnostic network is connected from brain;
(3) extract from brain connection network and select limit feature;
(4) the two kinds of features extracted in step (1), (2) are carried out linear fusion;
(5) use support vector regression (Support vector regression, SVR) that age brain is carried out regression forecasting.
The method of a kind of brain prediction in age connecting network based on brain the most according to claim 1, it is characterised in that described step
Suddenly, in (1), from brain image, construct brain connect network.Its implementation includes:
(21) to the initial data collected, we use Data Processing Assistant for Resting-
State fMRI (DPARSF) carries out time adjustment (slice timing) of cutting into slices, head dynamic(al) correction (motion
And the standard pretreatment process such as spatial regularization (spatial normalization) correlation),;
(22) according to Automated Anatomical Labeling (AAL) template by corresponding to the fMRI image of each object
Naokong between be divided into 90 Ge Nao districts (summit in each brain district corresponding diagram);
(23) calculate each brain district average time sequence and the interval Pearson correlation coefficient of brain as the interval connection of brain
Intensity (limit being in figure).
The method of a kind of brain prediction in age connecting network based on brain the most according to claim 1, it is characterised in that described step
Suddenly in (2), connecting from brain and extract node diagnostic network, its implementation includes:
(31) first thresholding function connects network, sets threshold value T, is set to 0, more than or equal to threshold value T less than threshold value T
It is set to 1;
(32) for the connection network after thresholding, the cluster coefficients of node is calculated.
The most according to claim 3 connection from brain extracts node diagnostic network, it is characterised in that described step (32)
In, calculating the cluster coefficients of node, its implementation includes:
(41) for having no right without term diagram G, the computing formula of the cluster coefficients of the i-th node in G is as follows:
Wherein, kiRepresent the number of the abutment points of i-th node, EiRepresent the k of i-th nodeiThe limit existed between individual abutment points
Number;
(42) brain of each sample is connected its cluster coefficients of network calculations, as the feature of node.
The method of a kind of brain prediction in age connecting network based on brain the most according to claim 1, it is characterised in that described step
Suddenly in (3), connecting from brain and extract network and select limit feature, its implementation includes:
(51) network is connected for brain, first can simply obtain the limit in network, limit is pulled into vector and preserves its weight letter
Breath;
(52) Lasso algorithms selection is used to have most the limit of identification, as the feature on limit.
The method of a kind of brain prediction in age connecting network based on brain the most according to claim 1, it is characterised in that described step
Suddenly in (4), the two kinds of features extracted in step (1), (2) being carried out linear fusion, its implementation includes:
(61) merging the characteristic line of the feature on the limit extracted and node.Might as well set the eigenmatrix of node asThe eigenmatrix on limit isEigenmatrix after then merging is
Wherein, n represents that number of samples, c represent the Characteristic Number of node, and e represents the Characteristic Number on limit.
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Cited By (15)
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CN106780475A (en) * | 2016-12-27 | 2017-05-31 | 北京市计算中心 | A kind of image processing method and device based on histopathologic slide's image organizational region |
CN107507162A (en) * | 2017-06-29 | 2017-12-22 | 南京航空航天大学 | A kind of Genotyping methods based on multi-modal brain image |
CN108960341A (en) * | 2018-07-23 | 2018-12-07 | 安徽师范大学 | A kind of structured features selection method towards brain network |
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