Can someone verify my code for calculatin​g a Gaussian kernel?

Question

I've attached my VI for calculating a Gausssian kernel function of selectable width and resolution.  I am not an expert in mathmatics and I was hoping someone on here could confirm the validity of my code.  If anyone has any suggestions please let me know. 
Eric
Attachments:
Old Gaussian Kernel.vi ‏24 KB

Answer 1

To better show what it is I'm trying to accomplish, I've attached
the top level VI that's using the kernel function, entitled "Pattern
Analysis of IPIs 2," .  The zip folder contains the top level VI, a
folder with all the subVI's and two data files.  Open the "Pattern
Analysis of IPIs 2" VI and go to the "Files" selector tab toward the
bottom right of the front panel.  Here you'll  be able to select the
folder containing the data files.  You'll need to unzip the attached
folder and save it somewhere, then select that folder as the "current
folder" to be opened (you don't need to specify which data file to
open, it will open both).  Once the folder is selected you can run the
VI and view its results. 
When the program begins
running a boolean indicator located in the bottom left corner will
appear red and the slider bars along the bottom will be disabled.  When
everything has been calculated the boolean will turn green and the
slider bars will become enabled. Choose the selector tab entitled "SPI,
SDF & SDD" to view the spike density function.  The spike density
function (SDF) is what's being created with the Gaussian kernel.  The
enabled slider bars allow you to adjust the x-axis values of the plot. 
The cursors on the plot indicate indicate the start, peak and end of
high rate bursts.  It may be easier to visualize this by viewing the
raw data located at the "Wfm Absolute and Relative Time" selector tab. 
To reduce file sizes the raw data has areas of "quite" removed, so you
will only see the voltage change events, represented by what appear to
be vertical lines.
To move to the next data file, click
the button entitled "Save and Go to Next" located in the bottom right
hand corner.  A prompt will appear asking if you want to save the data,
click "No" and the next file will automatically be loaded.  To stop the
VI, wait until the boolean is green and the slider bars are enabled,
then click the "Stop" bottom located at the bottom right.  It may take
a few seconds for the VI to stop.
Moving to the
block diagram, you'll see a yellow subVI with black writing that says
"SDF,"  this is where the SDF is calculated.  Open the front panel and
block diagram of this subVI.  On the block diagram you'll see the subVI
entitled "Gaussian Kernel," this is the subVI you saw yesterday.  The
generated Gaussian kernel is alligned at peak pulse times (can be seen
in the graph entitled "Gaussian Kernel Alligned at Peak Times") and
summed to create the SDF.  I only choose this method of generating the
SDF because it seemed intuitive to me, it may be wrong.  If it is,
could you please demonstrate how to program the convolution. 
Ultimately, I'm trying to achieve the plot described on the third page
of the attached paper.
Attachments:
Pattern Analysis.zip ‏2916 KB
Stereotyped temporal patterns in electrical communication.pdf ‏380 KB