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grin.stats()
for user-selected lesion types through the new
exons.annotation, exon.chrom.size, and
exon_level arguments. Lesion types not selected for
exon-level modeling continue to use conventional gene- and
chromosome-level target sizes, allowing both approaches to be used in
the same analysis.grin.logRank() for gene-level association
analyses between genomic lesion groups and time-to-event outcomes using
gene-by-subject lesion-group matrices, such as those generated by
prep.lsn.type.matrix(). This function complements the
existing grin.assoc.lsn.outcome() workflow for binary
gene-lesion matrices generated by prep.binary.lsn.mtx() to
evaluate associations with binary and time-to-event outcomes through
logistic regression and Cox proportional hazards models,
respectively.grin.assoc.expr.outcome() for gene-level
association analyses between gene expression and clinical outcomes. The
function fits Cox proportional hazards models for time-to-event outcomes
and logistic regression models for binary outcomes, with optional
covariate adjustment.grin.stats() pipeline so that selected
lesion types can be modeled using the annotated exon target size of each
gene together with the total annotated exonic target size of the
corresponding chromosome. This approach is especially useful when
analyses are restricted to protein-altering exonic variants, such as
missense, nonsense, and coding frameshift variants, and for studies
based on whole-exome sequencing. Other lesion types can continue to use
conventional gene- and chromosome-level target sizes within the same
analysis.get.ensembl.annotation() to retrieve versioned,
pre-generated GRCh38 Ensembl annotation bundles containing gene, exon,
and regulatory-element annotations. Downloaded resources can be cached
locally, are verified using MD5 checksums, and are reused when valid,
reducing dependence on live Ensembl BioMart availability and improving
reproducibility.lsn.transcripts.plot() to support flexible
gene-centered and user-defined regional plots, transcript selection and
labeling, improved rendering of point-like and interval-like lesions,
refined track layout and alignment, customizable lesion colors, and
expanded plotting controls.onco.print.props() to preserve user-specified
color palettes.grin.oncoprint.mtx() to use Ensembl gene IDs
when gene symbols are unavailable, preserve user-specified gene order,
and ensure unique gene labels in OncoPrint matrices.write.grin.xlsx() to exclude the
gene.lsn.data worksheet, reducing workbook size and
improving export performance.expr.mtx documentation
across expression-analysis functions, including the expected
gene-by-subject orientation, identifier requirements, and numeric
expression-value requirements.grin.results,
example_exon_annotation, and
hg38_exon_chrom_size to support examples of transcript
visualization and exon-level GRIN analysis.p.order() to handle single-column inputs correctly,
preventing errors when a lesion dataset contains only one lesion
type.prob.hits() function,
greatly enhancing the performance and speed of probability convolution
calculations for measuring statistical significance of lesion
frequencies.row.bern.conv() function and introduced
pbc() and rpbc(), which compute the
probability that a series of independent Bernoulli trials yields
x or more successes.get.ensembl.annotation() and
lsn.transcripts.plot(). These functions now exclusively
support hg38, and users are encouraged to convert their lesion data
coordinates to hg38 before running GRIN2 analyses.GRIN2, which demonstrates the
package’s preprocessing, analysis, and plotting capabilities.lesion_data,
expr_data, hg38_gene_annotation,
hg38_chrom_size, and hg38_cytoband.get.ensembl.annotation() and
get.chrom.length() now handle database connection issues
with informative error messages.genomewide.lsn.plot(), specifically
regarding color assignment for lesion groups when not automatically
specified by default.grin.colors().These binaries (installable software) and packages are in development.
They may not be fully stable and should be used with caution. We make no claims about them.