Add Ultralytics actions workflow in format.yml (#5)

Co-authored-by: glenn-jocher <[email protected]>

.github/workflows/format.yml

@@ -0,0 +1,20 @@
+# Ultralytics 🚀, AGPL-3.0 license
+# Ultralytics Format Workflow
+# This workflow automatically formats code and documentation in pull requests and pushes to main branch
+
+name: Ultralytics Actions
+
+on:
+  push:
+    branches: [main,master]
+  pull_request:
+    branches: [main,master]
+
+jobs:
+  format:
+    runs-on: ubuntu-latest
+    steps:
+      - name: Checkout Repository
+        uses: actions/checkout@v4
+      - name: Run Ultralytics Formatting Actions
+        uses: ultralytics/actions@main

GEfiles/KML/reactors_DEC99IAEA.kml

@@ -6924,7 +6924,7 @@
 <coordinates>2.5161,47.7339,0 </coordinates>
 </Point>
 </Placemark>
-<Placemark id="EL-4 (MONTS D'ARREE)">
+<Placemark id="EL-4 (MONTHS D'ARREE)">
 <Style>
 <IconStyle>
 <Icon>
@@ -6934,11 +6934,11 @@
 <color>ff000000</color>
 </IconStyle>
 </Style>
-<name>EL-4 (MONTS D'ARREE)</name>
+<name>EL-4 (MONTHS D'ARREE)</name>
 <snippet> </snippet>
 <description><![CDATA[<center><table><tr><th colspan='2' align='center'><em>Attributes</em></th></tr>
 <th>REACTORNAME</th>
-<td>EL-4 (MONTS D'ARREE)</td></tr>
+<td>EL-4 (MONTHS D'ARREE)</td></tr>
 <th>CODE</th>
 <td>FR-6</td></tr>
 <th>STATUS</th>
@@ -6950,7 +6950,7 @@
 <th>CAPACITY_THERMAL</th>
 <td>212</td></tr>
 <th>SITENAME</th>
-<td>MONTS D'ARREE</td></tr>
+<td>MONTHS D'ARREE</td></tr>
 <th>COUNTRY</th>
 <td>FRANCE</td></tr>
 <th>LONGITUDE</th>
@@ -6970,13 +6970,13 @@
 </table></center>]]></description>
 <ExtendedData>
 <SchemaData schemaUrl="UNEPGRID99_">
-<SimpleData name="REACTORAME">EL-4 (MONTS D'ARREE)</SimpleData>
+<SimpleData name="REACTORAME">EL-4 (MONTHS D'ARREE)</SimpleData>
 <SimpleData name="CODE">FR-6</SimpleData>
 <SimpleData name="STATUS">S</SimpleData>
 <SimpleData name="TYPE">HWGCR</SimpleData>
 <SimpleData name="CAPACITY_ELECTRIC">70</SimpleData>
 <SimpleData name="CAPACITY_THERMAL">212</SimpleData>
-<SimpleData name="SITENAME">MONTS D'ARREE</SimpleData>
+<SimpleData name="SITENAME">MONTHS D'ARREE</SimpleData>
 <SimpleData name="COUNTRY">FRANCE</SimpleData>
 <SimpleData name="LONGITUDE">-3.8667</SimpleData>
 <SimpleData name="LATITUDE">48.35</SimpleData>

ML/exhaustive/fcnML123.m

@@ -11,7 +11,7 @@
 om1     = ones(input.nxy^2, input.nrp);
 L       = zeros(input.nxy^2, input.nrp);
 ov1     = ones(input.nxy^2, 1);
-nbatch  = 100; %number of measurments per batch max
+nbatch  = 100; %number of measurements per batch max
 sk      = table.mev.de/4/pi; %stabilizing constant
 pdfur   = zeros(input.nxy^2, nbatch);
 vnrp    = 1:input.nrp;
@@ -63,7 +63,7 @@
 
     %ML2-------------------------------------------------------------------
     if flags.status.ML2 && Ci>0
-        zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin;
+        zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin;
         epdf = e(1)*d1.epdf.kr + e(2)*d1.epdf.mantle + e(3)*d1.epdf.crust + e(4)*d1.epdf.fastneutron + e(5)*d1.epdf.accidental + e(6)*d1.epdf.cosmogenic;
         if flags.status.CRLB
            zn = d1.epdf.all*table.mev.de;

ML/exhaustive/fcnrpprior.m

@@ -5,7 +5,7 @@
     Pexp = input.reactor.power; %GW
     sPexp = .05/.3*Pexp; %GW
     for j = 1:input.nrp
-        P = input.rpVec(j); %unkown reactor mean power
+        P = input.rpVec(j); %unknown reactor mean power
         L(:,j) = L(:,j) - (P-Pexp).^2/sPexp^2;
     end
 end

ML/exhaustive/neutron estimation/fcnML123mobileneutron.m

@@ -73,7 +73,7 @@
 %om1     = ones(input.nxy^2, input.nrp);
 %L       = zeros(input.nxy^2, input.nrp);
 ov1     = ones(input.nxy^2, 1);
-nbatch  = 1; %number of measurments per batch max
+nbatch  = 1; %number of measurements per batch max
 sk      = table.mev.de/4/pi; %stabilizing constant
 pdfur   = zeros(input.nxy^2, nbatch);
 vnrp    = uint16(1:input.nrp);
@@ -329,7 +329,7 @@
 %     
 %     %     %ML2-------------------------------------------------------------------
 %     %     if flags.status.ML2 && Ci>0
-%     %         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin;
+%     %         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin;
 %     %         epdf = e(1)*d1.epdf.kr + e(2)*d1.epdf.mantle + e(3)*d1.epdf.crust + e(4)*d1.epdf.fastneutron + e(5)*d1.epdf.accidental + e(6)*d1.epdf.cosmogenic;
 %     %         if flags.status.CRLB
 %     %            zn = d1.epdf.all*table.mev.de;
@@ -355,7 +355,7 @@
 %     %         L = L + interp1(d1.est.urtable.r, b, d1.est.r) - log(Ti)*Ci;
 %     %     end
 %     if flags.status.ML2 && Ci>0
-%         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin;
+%         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin;
 %         epdf = d1.epdf.fastneutron;
 %         %     if flags.status.CRLB
 %         %         zn = d1.epdf.all*table.mev.de;
@@ -535,7 +535,7 @@
 n1 = size(v1,1); %#ok<*NODEF>
 j = ceil(rand(n1*10,1)*n1); v1 = v1(j,:);  angle = angle(j,:); %random MC reordering
 
-i = mod(1:n0,n1); i(i==0)=n1; %re-use measurements if necessary
+i = mod(1:n0,n1); i(i==0)=n1; %reuse measurements if necessary
 roll = pi*(2*rand(n0,1)-1);
 udxecefs = fcnrotateW2B(roll,fcnel(v0),fcnaz(v0),v1(i,:));
 zas = angle(i); %z angle

ML/exhaustive/neutron estimation/fcnML123neutron.m

@@ -13,7 +13,7 @@
 om1     = ones(input.nxy^2, input.nrp);
 L       = zeros(input.nxy^2, input.nrp);
 ov1     = ones(input.nxy^2, 1);
-nbatch  = 50; %number of measurments per batch max
+nbatch  = 50; %number of measurements per batch max
 sk      = table.mev.de/4/pi; %stabilizing constant
 pdfur   = zeros(input.nxy^2, nbatch);
 vnrp    = uint16(1:input.nrp);
@@ -181,7 +181,7 @@
 
     %     %ML2-------------------------------------------------------------------
     %     if flags.status.ML2 && Ci>0
-    %         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin;
+    %         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin;
     %         epdf = e(1)*d1.epdf.kr + e(2)*d1.epdf.mantle + e(3)*d1.epdf.crust + e(4)*d1.epdf.fastneutron + e(5)*d1.epdf.accidental + e(6)*d1.epdf.cosmogenic;
     %         if flags.status.CRLB
     %            zn = d1.epdf.all*table.mev.de;
@@ -207,7 +207,7 @@
     %         L = L + interp1(d1.est.urtable.r, b, d1.est.r) - log(Ti)*Ci;
     %     end
     if flags.status.ML2 && Ci>0
-        zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin;
+        zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin;
         epdf = d1.epdf.fastneutron;
         %     if flags.status.CRLB
         %         zn = d1.epdf.all*table.mev.de;
@@ -313,7 +313,7 @@
 n1 = size(v1,1); %#ok<*NODEF>
 j = ceil(rand(n1*10,1)*n1); v1 = v1(j,:);  angle = angle(j,:); %random MC reordering
 
-i = mod(1:n0,n1); i(i==0)=n1; %re-use measurements if necessary
+i = mod(1:n0,n1); i(i==0)=n1; %reuse measurements if necessary
 roll = pi*(2*rand(n0,1)-1);
 udxecefs = fcnrotateW2B(roll,fcnel(v0),fcnaz(v0),v1(i,:));
 zas = angle(i); %z angle

ML/exhaustive/neutron estimation/fcnfindplutonium2UNUSED.m

@@ -156,8 +156,8 @@
 function [d, s, DEM] = fcngetpositions()
 %GET GE IMAGE -------------------------------------------------------------
 %cam.ssge = [8 2560-720-77 1280 720];  %1080x720; 27" 27" dual monitor hack
-%hge = actxserver('googleearth.ApplicationGE'); %Create a COM server running Google Earth
-%DEM = fcngetGEDEM(hge,70);  fcnFinishStreamProgress(hge);  x=getscreen(cam.ssge);  DEM.cdata = x.cdata;  save DEMHamburg.mat DEM
+%he = actxserver('googleearth.ApplicationGE'); %Create a COM server running Google Earth
+%DEM = fcngetGEDEM(he,70);  fcnFinishStreamProgress(he);  x=getscreen(cam.ssge);  DEM.cdata = x.cdata;  save DEMHamburg.mat DEM
 %MOL Cosmos, Panama
 
 load DEMHamburg
@@ -228,7 +228,7 @@
     a(:,4) = MC.xhat(:,10,i) - MC.xhat(:,4,i) > 1; %dt > 1ns
     a(:,5) = fcnrange(MC.xhat(:,1:3,i) - MC.xhat(:,7:9,i)) > 10; %dx > 10mm
     a(:,6) = MC.xhat(:,5,i)>0.200; %.3 %first bounce > 100keV
-    a(:,7) = MC.xhat(:,6,i)./MC.xhat(:,12,i) > .2; %dE1/dE2 must be greather than 0.20
+    a(:,7) = MC.xhat(:,6,i)./MC.xhat(:,12,i) > .2; %dE1/dE2 must be greater than 0.20
     a(:,8) = MC.xhat(:,5,i)./MC.xhat(:,18,i) < .9; %dE1./E0 < 0.9
     a(:,9) = MC.xhat(:,5,i)./MC.xhat(:,18,i) > .1; %dE1./E0 > 0.1
     a(:,10) = MC.xhat(:,5,i)<3; %.3 %first bounce > 100keV

ML/fcnenergycut.m

@@ -52,7 +52,7 @@
     n.allbackground*input.fluxnoise.uncorrelated.mean(3) ]; %detector uncertainty (i.e. fiducial volume)
 ne = numel(npebr1svec);
 
-d1.est.br1s    = norm(npebr1svec(1:ne-1)); %backgruond 1sigma only (no fiducial uncertainty)
+d1.est.br1s    = norm(npebr1svec(1:ne-1)); %background 1sigma only (no fiducial uncertainty)
 npebr1svec(ne) = (npebr1svec(ne)^2 + (d1.est.br1s*input.fluxnoise.uncorrelated.mean(3))^2)^.5; %add in detector uncertainty affecting background uncertainty
 d1.est.d1s     = npebr1svec(ne); %background and detector 1sigma
 

NONNEUTRINOBACKGROUND/MULLISS/compute_nnbackgrounds_for_SNIF.m

@@ -6,7 +6,7 @@
 time=input.detectorCollectTime;   %time exposure in days
 %Input Arguments
 %depth = depth in MWE
-%Ecut = energy cut in visibile MeV
+%Ecut = energy cut in visible MeV
 
 %Define SNIF physical characteristics
 %fiducial_vol=160000;    %m^3

NONNEUTRINOBACKGROUND/MULLISS/predict_accidental_background.m

@@ -6,7 +6,7 @@
 %Developed on under contract to the United States Government (USG)
 %Classification: Unclassified
 %
-%Restictions:
+%Restrictions:
 %1) Do not redistribute without permission from USG and/or IAI
 %2) Not reviewed or approved for release under ITAR
 %

NONNEUTRINOBACKGROUND/MULLISS/predict_cosmogenic_background.m

@@ -6,7 +6,7 @@
 %Developed on under contract to the United States Government (USG)
 %Classification: Unclassified
 %
-%Restictions:
+%Restrictions:
 %1) Do not redistribute without permission from USG and/or IAI
 %2) Not reviewed or approved for release under ITAR
 %

NONNEUTRINOBACKGROUND/MULLISS/predict_fastn_background.m

@@ -6,7 +6,7 @@
 %Developed on under contract to the United States Government (USG)
 %Classification: Unclassified
 %
-%Restictions:
+%Restrictions:
 %1) Do not redistribute without permission from USG and/or IAI
 %2) Not reviewed or approved for release under ITAR
 %

NONNEUTRINOBACKGROUND/MULLISS/predict_muon_intensity.m

@@ -6,7 +6,7 @@
 %Developed on under contract to the United States Government (USG)
 %Classification: Unclassified
 %
-%Restictions:
+%Restrictions:
 %1) Do not redistribute without permission from USG and/or IAI
 %2) Not reviewed or approved for release under ITAR
 %==========================================================================

TESTS/movingdetector/run1.m

@@ -71,7 +71,7 @@
 
 %     %ML2-------------------------------------------------------------------
 %     if Ci>0
-%         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin; %CRLB
+%         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin; %CRLB
 %         %zn = d1.epdf.all*table.mev.de;
 %         
 %         zei = find(zn);  zn=zn(zei);  ne=numel(zei);

TESTS/movingdetector/run1static.m

@@ -4,7 +4,7 @@
 nd=200;  %input.detectorCollectTime=365/nd; %days
 % **** MUST PUT THIS IN AS OBSERVATION TIME IN INIT.M **** -----------------------
 sk      = table.mev.de/4/pi; %ML3 stabilizing constant
-nbatch  = 100; %number of measurments per batch max
+nbatch  = 100; %number of measurements per batch max
 om1     = ones(input.nxy^2, input.nrp);
 vnrp    = 1:input.nrp;
 rpscale = input.rpVec;  irpscale=1./rpscale;
@@ -79,7 +79,7 @@
 
 %     %ML2-------------------------------------------------------------------
 %     if Ci>0
-%         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin; %CRLB
+%         zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin; %CRLB
 %         %zn = d1.epdf.all*table.mev.de;
 %         
 %         zei = find(zn);  zn=zn(zei);  ne=numel(zei);

TESTS/movingdetector/test (portugal pass crlb).m

@@ -36,7 +36,7 @@
 
     %ML2-------------------------------------------------------------------
     if Ci>0
-        %zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurments per bin;
+        %zn = accumarray(d1.z.eic, 1, [table.mev.ne 1]); %measurements per bin;
         zn = d1.epdf.all*table.mev.de;
 
         zei = find(zn);  zn=zn(zei);  ne=numel(zei);

functions/fcnPlotSNR.m

@@ -13,17 +13,17 @@
 
 subplot(3,1,1)
 bar(e,u,.8,'EdgeColor',[.7 .7 .7],'FaceColor','b'); ylabel('\mu (mm)'); axis tight; xlabel('E_{\nu} (MeV)','Interpreter','tex')
-title({'Direction Vector Magnitude \mu',sprintf('Detector Type %.0f, Candidate Critera %.0f', input.di, input.ci)})
+title({'Direction Vector Magnitude \mu',sprintf('Detector Type %.0f, Candidate Criteria %.0f', input.di, input.ci)})
 fcncontextmenuexpand(gca)
 
 subplot(3,1,2)
 bar(e,s,.8,'EdgeColor',[.7 .7 .7],'FaceColor','b'); ylabel('1\sigma (mm)'); axis tight; xlabel('E_{\nu} (MeV)','Interpreter','tex')
-title({'Direction Vector 1\sigma Standard Deviation Per Axis', sprintf('Detector Type %.0f, Candidate Critera %.0f', input.di, input.ci)})
+title({'Direction Vector 1\sigma Standard Deviation Per Axis', sprintf('Detector Type %.0f, Candidate Criteria %.0f', input.di, input.ci)})
 fcncontextmenuexpand(gca)
 
 subplot(3,1,3)
 bar(e,snr,.8,'EdgeColor',[.7 .7 .7],'FaceColor','b'); ylabel('SNR'); axis tight; xlabel('E_{\nu} (MeV)','Interpreter','tex')
-title(sprintf('Direction Vector SNR\nDetector Type %.0f, Candidate Critera %.0f', input.di, input.ci))
+title(sprintf('Direction Vector SNR\nDetector Type %.0f, Candidate Criteria %.0f', input.di, input.ci))
 fcncontextmenuexpand(gca)
 
 %FIGURE 1
@@ -65,14 +65,14 @@
 end
 xlabel(h1, 'cos\theta')
 ylabel(h1, 'p(cos\theta)')
-title(h1, sprintf('Smeared Angular Probability\nDetector Type %.0f, Candidate Critera %.0f', input.di, input.ci))
+title(h1, sprintf('Smeared Angular Probability\nDetector Type %.0f, Candidate Criteria %.0f', input.di, input.ci))
 pos = get(h1,'Position');
 set(h1,'Position',pos.*[1 1 .9 1])
 fcncontextmenuexpand(h1)
 
 xlabel(h2, '\theta (deg)')
 ylabel(h2, 'p(\theta)')
-title(h2, sprintf('Smeared Angular Probability\nDetector Type %.0f, Candidate Critera %.0f', input.di, input.ci))
+title(h2, sprintf('Smeared Angular Probability\nDetector Type %.0f, Candidate Criteria %.0f', input.di, input.ci))
 axis(h2,'tight')
 fcncontextmenuexpand(h2)
 end

iDND.m

@@ -45,7 +45,7 @@ function iDND_OpeningFcn(hObject, eventdata, handles, varargin)
 % varargout  cell array for returning output args (see VARARGOUT);
 % Get default command line output from handles structure
 varargout{1} = handles.output;
-%fprintf('AntiNeutrino Source Simulation Succesfully Opened.\n')
+%fprintf('AntiNeutrino Source Simulation Successfully Opened.\n')
 
 function figure1_CloseRequestFcn(hObject, eventdata, handles)
 evalin('base','delete(get(0,''Children'')); clear')