Hey everyone,
thank you for providing this great software! I am trying to correlate gene expression data obtained from the Allen Institute with alterations in cortical thickness after premature birth (cortical thickness was obtained with Freesurfer 7.1.1. from MRI scans). I know that this might not be a typical questionaire, but this was done before using GSEA (e.g., by Grothe et al., 2018,
doi: 10.1093/brain/awy189).
I have loaded the gene expression data already. My gene expression file contains microarray data of post-mortem human brains, mapped into 34 cortical regions, i.e., it encompasses ~20,000 genes expressed in 34 cortical regions (~20,000 x 34 matrix).
I am now struggling with my phenotype file.
So, the gene expression data stem from different subjects than the
cortical thickness data. Thus, it makes no sense to create a
categorical label file, which would assign a label to every gene in my
gene expression file.
I want to know which spatial gene expression patterns correlate with the cortical thickness spatial pattern of preterm-born adults (94 subjects x 34 cortical regions matrix). I don't know how I can pack this information into the software. I have tried to select one cortical regions and have the cortical thickness values per region for preterm (group 1) and term (group 2) in the .cls file, but that would not completely target my question. Furthermore, I was not able to load this file into the software as the following error occurs:
<Error Details>
---- Full Error Message ----
There were errors: ERROR(S) #:1
Parsing trouble
edu.mit.broad.genome.parsers.Par ...
---- Stack Trace ----
# of exceptions: 1
------Bad format - expect ncols: 1 but found: 91 on line: 2.749562047 2.809810894 2.866150727 2.962548811 2.723956322 2.750069286 2.82168507 2.814755101 2.759250852 2.897585537 2.877386235 2.702128659 2.762923479 2.803125165 2.700904401 2.836375431 2.78659849 2.71437065 2.879222549 2.73334584 2.696816635 2.928802572 2.870653038 2.627452449 2.761699222 2.814952018 2.886370885 2.786795407 2.652745406 1.585854809 2.904930644 2.981246396 2.792719486 2.860247359 2.77558061 2.800261511 3.007275509 2.753342278 2.87508468 2.708947496 2.737134 2.673829077 2.927583762 2.500938524 2.499587915 3.243827755 2.585854806 2.849421171 2.727857637 1.998297241 2.735783391 2.753342278 2.84671963 2.86022669 2.64006159 2.928934372 2.844018412 2.730380309 2.808721447 2.931635912 2.60764439 2.753520824 2.483201091 2.915605859 2.799445084 2.87508468 2.918307077 2.928934372 3.270663328 2.815653362 2.839966262 2.622502381 2.495535765 2.739835219 2.358936016 3.003223359 2.756043819 2.794042002 2.920830072 2.758745359 2.900747868 2.59413733 2.340025875 2.855996316 2.746588909 3.359809984 2.983141155 3.143875258 2.600925952 2.88583039 2.926438127 ------
edu.mit.broad.genome.parsers.ParserException: Bad format - expect ncols: 1 but found: 91 on line: 2.749562047 2.809810894 2.866150727 2.962548811 2.723956322 2.750069286 2.82168507 2.814755101 2.759250852 2.897585537 2.877386235 2.702128659 2.762923479 2.803125165 2.700904401 2.836375431 2.78659849 2.71437065 2.879222549 2.73334584 2.696816635 2.928802572 2.870653038 2.627452449 2.761699222 2.814952018 2.886370885 2.786795407 2.652745406 1.585854809 2.904930644 2.981246396 2.792719486 2.860247359 2.77558061 2.800261511 3.007275509 2.753342278 2.87508468 2.708947496 2.737134 2.673829077 2.927583762 2.500938524 2.499587915 3.243827755 2.585854806 2.849421171 2.727857637 1.998297241 2.735783391 2.753342278 2.84671963 2.86022669 2.64006159 2.928934372 2.844018412 2.730380309 2.808721447 2.931635912 2.60764439 2.753520824 2.483201091 2.915605859 2.799445084 2.87508468 2.918307077 2.928934372 3.270663328 2.815653362 2.839966262 2.622502381 2.495535765 2.739835219 2.358936016 3.003223359 2.756043819 2.794042002 2.920830072 2.758745359 2.900747868 2.59413733 2.340025875 2.855996316 2.746588909 3.359809984 2.983141155 3.143875258 2.600925952 2.88583039 2.926438127
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.StringDataframeParser._parse(StringDataframeParser.java:164)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.StringDataframeParser.parseSdf(StringDataframeParser.java:144)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ClsParser._parse_new_style(ClsParser.java:273)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ClsParser.parse(ClsParser.java:228)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ParserFactory._readTemplates(ParserFactory.java:341)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ParserFactory.readTemplate(ParserFactory.java:292)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ParserFactory.read(ParserFactory.java:752)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ParserFactory.read(ParserFactory.java:725)
at org.gsea_msigdb.gsea/edu.mit.broad.genome.parsers.ParserWorker.doInBackground(ParserWorker.java:51)
at java.desktop/javax.swing.SwingWorker$1.call(Unknown Source)
at java.base/java.util.concurrent.FutureTask.run(Unkno
wn
Source)
at java.desktop/javax.swing.SwingWorker.run(Unknown Source)
at java.base/java.util.concurrent.ThreadPoolExecutor.runWorker(Unknown Source)
at java.base/java.util.concurrent.ThreadPoolExecutor$Worker.run(Unknown Source)
at java.base/java.lang.Thread.run(Unknown Source)
Do you have any idea how I could address my question?
Best, Melissa