Difference between revisions of "Process using.m"
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{{DISPLAYTITLE:process_using.m}} | {{DISPLAYTITLE:process_using.m}} | ||
| − | + | Applies the specified trained neural network file to the supplied DEER trace. | |
==Syntax== | ==Syntax== | ||
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==Arguments== | ==Arguments== | ||
| − | + | deer_traces - DEER trace(s) as a column vector or a | |
| − | + | matrix with multiple columns. The num- | |
| − | + | ber of rows must match the input size | |
| − | + | of the neural network. | |
| − | + | ||
| − | + | net_file_name - the name of the checkpoint file produ- | |
| − | + | ced by the train() function of Matlab | |
| − | + | Neural Network Toolbox, including the | |
| + | full path and the .mat extension. | ||
==Outputs== | ==Outputs== | ||
| − | + | answers - neural network output(s) as a column | |
| − | + | vector or a matrix with multiple col- | |
| − | + | umns. The number of rows mathes the | |
| − | + | output size of the neural network. | |
| − | |||
==Examples== | ==Examples== | ||
Revision as of 10:02, 23 August 2018
Applies the specified trained neural network file to the supplied DEER trace.
Contents
Syntax
answers=process_using(deer_traces,net_file_name)
Arguments
deer_traces - DEER trace(s) as a column vector or a
matrix with multiple columns. The num-
ber of rows must match the input size
of the neural network.
net_file_name - the name of the checkpoint file produ-
ced by the train() function of Matlab
Neural Network Toolbox, including the
full path and the .mat extension.
Outputs
answers - neural network output(s) as a column
vector or a matrix with multiple col-
umns. The number of rows mathes the
output size of the neural network.
Examples
In the example below, a batch of 100 distribution and DEER trace pairs are generated and then
% Load the parameters
run('net_set_any_peaks/netset_params.m');
% Specify number of traces to produce
parameters.ntraces=100;
% Generate test batch
[time_grid,dist_grid,dist_distr_lib,~,~,deer_trace_lib,~,~,parameters]=deer_lib_gen([],parameters);
% Run the analysis on the example set
answers=process_using(deer_trace_lib,'net_set_any_peaks/1.mat');
The network answers can be plotted against the correct answer:
% Plot an example
example=randi(100); figure;
subplot(1,2,1); plot(time_grid,deer_trace_lib(:,example));
title('Input DEER trace');
xlabel('time, $\mu$s','interpreter','LaTex');
subplot(1,2,2); plot(dist_grid,[answers(:,example) dist_distr_lib(:,example)]);
title('Output distribution');
xlabel('distance, $\rm{\AA}$','interpreter','LaTex');
legend('Network answer','True answer');
Notes
- Input and intermediate layers must have the 'tansig' activation function.
- The function supports 'logsig' or 'tansig' activation functions in the output layer, if a different function is detected then an error will be returned.
- The function assumes a simple feed-forward network topology.
- The number of points in the input signal must equal the input layer dimensions.
- The output signal length will be defined by the network output layer dimensions.
- Network layers are not required to be uniform.
See also
Version 2.2, authors: Ilya Kuprov, Steve Worswick