## Warning in scpcaTools::add_miQC(filtered_sce): prob_compromised was already
## calculated and will be replaced.
## Warning in miQC::mixtureModel(sce): Unable to identify two distributions. Use plotMetrics function
## to confirm assumptions of miQC are met.
## Warning in miQC::mixtureModel(sce): Unable to identify two distributions. Use plotMetrics function
## to confirm assumptions of miQC are met.
## Warning in miQC::mixtureModel(sce): Unable to identify two distributions. Use plotMetrics function
## to confirm assumptions of miQC are met.
RNA-seq Experiment Summary
Cell Statistics
Method used to filter empty droplets
|
emptyDropsCellRanger
|
Number of cells post filtering empty droplets
|
2,308
|
Percent of reads in cells
|
51.29%
|
Median UMI count per cell
|
663
|
Median genes detected per cell
|
605
|
Median percent reads mitochondrial
|
3.03%
|
Method used to filter low quality cells
|
Minimum_gene_cutoff
|
Cells after filtering low quality cells
|
2,306
|
Normalization method
|
deconvolution
|
Minimum genes per cell cutoff
|
200
|
Knee Plot
The total UMI count of each droplet (barcode) plotted against the
rank of that droplet allows visualization of the distribution of
sequencing depth across droplets. The droplets that are expected to
contain cells were identified with DropletUtils::emptyDropsCellRanger()
,
unless otherwise specified in the Cell Statistics
table,
which uses both the total UMI counts and expressed gene content (adapted
from Lun et
al. 2019). As the boundary between droplets passing and failing
this filter is not solely dependent on total UMI count, some regions
contain droplets in both categories. The color in this plot indicates
the percentage of droplets in a region passing the filter.
Cell Read Metrics
The above plot of cell metrics includes only droplets which have
passed the emptyDropsCellRanger()
filter. The plot will
usually display a strong (but curved) relationship between the total UMI
count and the number of genes detected. Cells with low UMI counts and
high mitochondrial percentages may require further filtering.
miQC Model Diagnostics
We calculate the probability that a cell is compromised due to
degradation or rupture using miQC
(Hippen et
al. 2021). This relies on fitting a mixture model using the
number of genes expressed by a cell and the percentage of mitochondrial
reads. The expected plot will show a characteristic triangular shape and
two model fit lines. Cells with low numbers of genes expressed may have
both low and high mitochondrial percentage, but cells with many genes
tend to have a low mitochondrial percentage. Compromised cells are
likely to have a fewer genes detected and higher percentage of
mitochondrial reads.
If the model has failed to fit properly, the pattern of cells may
differ, and there may not be model fit lines. This can be the result of
a low-quality library or may occur if there is no mitochondrial content,
as in the case of a high-quality single-nucleus sample. In such
situations, the calculated probability of compromise may not be valid
(see miQC
vignette for more details).
Removing low quality cells
The below plot highlights cells that were removed prior to
normalization and dimensionality reduction. Cells that should be removed
based on RNA counts are those that are identified to be low quality
cells, such as cells with high probability of being compromised. The
method of filtering is indicated above the plot as either
miQC
or Minimum gene cutoff
. If
miQC
, cells below the specified probability compromised
cutoff and above the minimum number of unique genes identified are kept
for downstream analyses. If only a Minimum gene cutoff
is
used, then miQC
is not used and only those cells that pass
the minimum number of unique genes identified threshold are retained.
The dotted vertical line indicates the minimum gene cutoff used for
filtering.
The raw counts from all cells that remain after filtering low quality
cells (RNA only) are then normalized prior to selection of highly
variable genes and dimensionality reduction.
Dimensionality Reduction
The below plot shows the UMAP (Uniform Manifold Approximation and
Projection) embeddings for each cell, coloring each cell by the total
number of genes detected per cell.
Expression of highly variable genes
The plots below show the same UMAP embeddings, coloring each cell by
the expression level of the labeled gene. The genes chosen for plotting
are the 12 most variable genes identified in the library. Gene symbols
are used when available to label the UMAP plots. If gene symbols are not
available, the Ensembl id will be shown.
CITE-seq Experiment Summary
This section details quality control statistics from the ADT
(antibody-derived tag) component of CITE-seq experiments.
CITE-seq Experiment Statistics
Number of ADTs assayed
|
22
|
Number of reads sequenced
|
34,265,495
|
Percent reads mapped to ADTs
|
92.98%
|
Percent of ADTs in cells
|
6.07%
|
Percent of cells with ADTs
|
79.42%
|
Median ADT UMIs per cell
|
20
|
ADT Statistics
Antibody
|
Mean UMI count per cell
|
Percent of cells detected
|
ADT target type
|
CD45
|
583.37
|
77.21
|
target
|
CD7
|
54.12
|
74.22
|
target
|
CD117
|
47.48
|
60.44
|
target
|
CD10
|
31.37
|
64.08
|
target
|
CD2
|
23.42
|
45.54
|
target
|
CD38
|
22.68
|
67.03
|
target
|
CD5
|
9.91
|
50.43
|
target
|
CD4
|
9.37
|
37.09
|
target
|
CD8A
|
8.86
|
42.16
|
target
|
CD3
|
8.01
|
46.36
|
target
|
CD22
|
6.43
|
43.72
|
target
|
CD15
|
5.94
|
47.36
|
target
|
CD1A
|
4.54
|
37.44
|
target
|
CD34
|
3.67
|
36.74
|
target
|
CD14
|
3.40
|
35.31
|
target
|
HLA-DR
|
3.25
|
31.98
|
target
|
CD66B
|
2.72
|
33.71
|
target
|
CD123
|
2.71
|
34.23
|
target
|
CD94
|
2.57
|
32.84
|
target
|
CD19
|
2.13
|
29.16
|
target
|
CD33
|
1.20
|
19.89
|
target
|
CD56
|
0.88
|
22.44
|
target
|
ADT Post-processing Statistics
Method used to identify cells to filter
|
No filter
|
Normalization method
|
log-normalization
|
Removing low quality cells based on ADT counts
No ADT filtering was performed on this library.
Expression of highly variable ADTs
The plots in this section visualize the top four most variable ADTS
in the library.
The plot below displays normalized expression of these four ADTs,
with one ADT shown per panel.
The plot below displays UMAP embeddings calculated from RNA
expression, where each cell is colored by the expression level of the
given ADT.
Session Info
R session information
## ─ Session info ───────────────────────────────────────────────────────────────
## setting value
## version R version 4.2.3 (2023-03-15)
## os Ubuntu 18.04.3 LTS
## system x86_64, linux-gnu
## ui X11
## language (EN)
## collate C.UTF-8
## ctype C.UTF-8
## tz Etc/UTC
## date 2023-07-14
## pandoc 2.17.1.1 @ /usr/lib/rstudio-server/bin/quarto/bin/ (via rmarkdown)
##
## ─ Packages ───────────────────────────────────────────────────────────────────
## package * version date (UTC) lib source
## beachmat 2.14.2 2023-04-07 [2] Bioconductor
## beeswarm 0.4.0 2021-06-01 [2] CRAN (R 4.2.1)
## Biobase * 2.58.0 2022-11-01 [2] Bioconductor
## BiocGenerics * 0.44.0 2022-11-01 [2] Bioconductor
## BiocNeighbors 1.16.0 2022-11-01 [2] Bioconductor
## BiocParallel 1.32.6 2023-03-17 [2] Bioconductor
## BiocSingular 1.14.0 2022-11-01 [2] Bioconductor
## bitops 1.0-7 2021-04-24 [2] CRAN (R 4.2.1)
## bslib 0.4.2 2022-12-16 [2] CRAN (R 4.2.1)
## cachem 1.0.7 2023-02-24 [2] CRAN (R 4.2.3)
## cli 3.6.1 2023-03-23 [2] CRAN (R 4.2.3)
## codetools 0.2-19 2023-02-01 [2] CRAN (R 4.2.3)
## colorspace 2.1-0 2023-01-23 [2] CRAN (R 4.2.3)
## cowplot 1.1.1 2020-12-30 [2] CRAN (R 4.2.1)
## crayon 1.5.2 2022-09-29 [2] CRAN (R 4.2.1)
## DelayedArray 0.24.0 2022-11-01 [2] Bioconductor
## DelayedMatrixStats 1.20.0 2022-11-01 [2] Bioconductor
## digest 0.6.31 2022-12-11 [2] CRAN (R 4.2.1)
## dplyr * 1.1.2 2023-04-20 [2] RSPM (R 4.2.0)
## evaluate 0.20 2023-01-17 [2] CRAN (R 4.2.3)
## fansi 1.0.4 2023-01-22 [2] CRAN (R 4.2.3)
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## highr 0.10 2022-12-22 [2] CRAN (R 4.2.1)
## htmltools 0.5.5 2023-03-23 [2] CRAN (R 4.2.3)
## httr 1.4.5 2023-02-24 [2] CRAN (R 4.2.3)
## IRanges * 2.32.0 2022-11-01 [2] Bioconductor
## irlba 2.3.5.1 2022-10-03 [2] CRAN (R 4.2.1)
## jquerylib 0.1.4 2021-04-26 [2] CRAN (R 4.2.1)
## jsonlite 1.8.4 2022-12-06 [2] CRAN (R 4.2.1)
## kableExtra 1.3.4 2021-02-20 [1] RSPM (R 4.2.0)
## knitr 1.42 2023-01-25 [2] CRAN (R 4.2.3)
## labeling 0.4.2 2020-10-20 [2] CRAN (R 4.2.1)
## lattice 0.21-8 2023-04-05 [2] RSPM (R 4.2.0)
## lifecycle 1.0.3 2022-10-07 [2] CRAN (R 4.2.1)
## magrittr 2.0.3 2022-03-30 [2] CRAN (R 4.2.1)
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## pkgconfig 2.0.3 2019-09-22 [2] CRAN (R 4.2.1)
## purrr 1.0.1 2023-01-10 [2] CRAN (R 4.2.3)
## R6 2.5.1 2021-08-19 [2] CRAN (R 4.2.1)
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##
## [1] /home/ccdl/stephanie/R/x86_64-pc-linux-gnu-library/4.2
## [2] /opt/R/4.2.3/lib/R/library
##
## ──────────────────────────────────────────────────────────────────────────────
---
params:
  library: Example
  unfiltered_sce: !r scpcaTools:::sim_sce()
  filtered_sce: NULL
  processed_sce: NULL
  date: !r Sys.Date()

title: "`r glue::glue('ScPCA QC report for {params$library}')`"
author: "Childhood Cancer Data Lab"
date: "`r params$date`"
output:
  html_document:
    toc: true
    toc_depth: 2
    toc_float:
      collapsed: false
    number_sections: false
    code_download: true
---

```{r setup, message = FALSE, echo = FALSE}
# knitr options
knitr::opts_chunk$set(
  echo = FALSE
)

library(SingleCellExperiment)
library(dplyr)
library(ggplot2)

# Set default ggplot theme
theme_set(
  theme_bw() +
  theme(plot.margin = margin(rep(20, 4)), 
        strip.background = element_rect(fill = 'transparent'))
)

# Helper function to change NULL -> "N/A" in a data frame
reformat_nulls <- function(df) {
  df |> mutate(
    across(everything(),
      .fns = \(x) ifelse(x == "NULL", "N/A", x)
    )
  )
}
```

```{r sce_setup}
# save some typing later
library_id <- params$library
unfiltered_sce <- params$unfiltered_sce
filtered_sce <- params$filtered_sce
processed_sce <- params$processed_sce

library_id <- "SCPCL000706" 
unfiltered_sce <- readRDS(glue::glue("{library_id}_unfiltered.rds"))
filtered_sce <- readRDS(glue::glue("{library_id}_filtered.rds"))
processed_sce <- readRDS(glue::glue("{library_id}_processed.rds"))

has_filtered <- !is.null(filtered_sce)
has_processed <- !is.null(processed_sce)

# if there is no filtered sce, use the unfiltered for both
if (!has_filtered){
  filtered_sce <- unfiltered_sce
}

# grab sample id from filtered sce, if missing set sample id to NA
if(is.null(metadata(filtered_sce)$sample_id)){
  sample_id <- NA
} else {
  sample_id <- metadata(filtered_sce)$sample_id
}

# add cell stats if missing
if (is.null(unfiltered_sce$sum)){
  unfiltered_sce <- scuttle::addPerCellQCMetrics(unfiltered_sce)
}
if (is.null(filtered_sce$sum)){
  filtered_sce <- scuttle::addPerCellQCMetrics(filtered_sce)
}
if (is.null(filtered_sce$subsets_mito_percent)){
  filtered_sce$subsets_mito_percent <- NA_real_
  skip_miQC <- TRUE
}else{
  skip_miQC <- FALSE
}

# try to add miQC if it is missing
if (is.null(metadata(filtered_sce)$miQC_model) & !skip_miQC){
  filtered_sce <- scpcaTools::add_miQC(filtered_sce)
}

## Check for additional modalities
modalities <- c("RNA-seq")

has_adt <- "adt" %in% altExpNames(filtered_sce)
if (has_adt) {
  modalities <- c(modalities, "ADT")
}

# check for cellhash to add to list of modalities
has_cellhash <- "cellhash" %in% altExpNames(filtered_sce)
if (has_cellhash) {
  modalities <- c(modalities, "Multiplex")
}

# check for umap, need to be sure that processed_sce exists first
if (has_processed) {
  has_umap <- "UMAP" %in% reducedDimNames(processed_sce)
} else {
  has_umap <- FALSE
}
```


# Processing Information for `r library_id`

```{r, results='asis'}
# only print out multiplexed warning if more than one sample is present
has_multiplex <- length(sample_id) > 1

if (has_multiplex) {
  # convert sample id to bullet separated list
  multiplex_samples <- paste0("<li>", paste(sample_id, collapse = '</li><li>', "</li>"))
  glue::glue("
    <div class=\"alert alert-warning\">

    This library is multiplexed and contains data from more than one sample.
    Data from the following samples are included in this library:

    {multiplex_samples}

    </div>
  ")
}

```

## Raw Sample Metrics

```{r }
# extract sce metadata containing processing information as table
unfiltered_meta <- metadata(unfiltered_sce)

sample_information <- tibble::tibble(
  "Library id" = library_id,
  "Sample id" = paste(sample_id, collapse = ", "),
  "Tech version" = format(unfiltered_meta$tech_version), # format to keep nulls
  "Data modalities" = paste(modalities, collapse = ", "),
  "Cells reported by alevin-fry" =
    format(unfiltered_meta$af_num_cells, big.mark = ',', scientific = FALSE),
  "Number of genes assayed" =
    format(nrow(unfiltered_sce), big.mark = ',', scientific = FALSE),
  "Number of RNA-seq reads sequenced" =
    format(unfiltered_meta$total_reads, big.mark = ',', scientific = FALSE),
  "Percent of RNA-seq reads mapped to transcripts" =
    paste0(round((unfiltered_meta$mapped_reads/unfiltered_meta$total_reads) *100, 2), "%")
)

if (has_adt) {
  adt_exp <- altExp(filtered_sce, "adt") # must be filtered_sce in case has_processed is FALSE
  adt_meta <- metadata(adt_exp)

  sample_information <- sample_information |>
    mutate(
      "Number of antibodies assayed" =
        format(nrow(adt_exp), big.mark = ',', scientific = FALSE),
      "Number of ADT reads sequenced" =
        format(adt_meta$total_reads, big.mark = ',', scientific = FALSE),
      "Percent of ADT reads mapped to ADTs" =
        paste0(round(adt_meta$mapped_reads/adt_meta$total_reads * 100, digits = 2), "%")
    )
}

if (has_cellhash) {
  multiplex_exp <- altExp(filtered_sce, "cellhash")
  multiplex_meta <- metadata(multiplex_exp)

  sample_information <- sample_information |>
    mutate(
      "Number of HTOs assayed" =
        format(nrow(multiplex_exp), big.mark = ',', scientific = FALSE),
      "Number of cellhash reads sequenced" =
        format(multiplex_meta$total_reads, big.mark = ',', scientific = FALSE),
      "Percent of cellhash reads mapped to HTOs" =
        paste0(round(multiplex_meta$mapped_reads/multiplex_meta$total_reads * 100, digits = 2), "%")
    )
}

sample_information <- sample_information |>
  reformat_nulls() |>
  t()

# make table with sample information
knitr::kable(sample_information, align = 'r') |>
  kableExtra::kable_styling(bootstrap_options = "striped",
                            full_width = FALSE,
                            position = "left") |>
  kableExtra::column_spec(2, monospace = TRUE)
```

## Pre-Processing Information

```{r }
# define transcript type
transcript_type <- paste(unfiltered_meta$transcript_type, collapse = " ")

processing_info <- tibble::tibble(
  "Salmon version"       = format(unfiltered_meta$salmon_version),
  "Alevin-fry version"   = format(unfiltered_meta$alevinfry_version),
  "Transcriptome index"  = format(unfiltered_meta$reference_index),
  "Alevin-fry droplet detection"  = format(unfiltered_meta$af_permit_type),
  "Resolution"           = format(unfiltered_meta$af_resolution),
  "Transcripts included" = dplyr::case_when(
      transcript_type == "total spliced" ~ "Total and spliced only",
      transcript_type == "spliced" ~ "Spliced only",
      TRUE ~ transcript_type)
  ) |>
  reformat_nulls() |>
  t()


# make table with processing information
knitr::kable(processing_info, align = 'r') |>
  kableExtra::kable_styling(bootstrap_options = "striped",
                            full_width = FALSE,
                            position = "left") |>
  kableExtra::column_spec(2, monospace = TRUE)
```

# RNA-seq Experiment Summary

## Cell Statistics

```{r}
basic_statistics <- tibble::tibble(
  "Method used to filter empty droplets"          = metadata(filtered_sce)$filtering_method,
  "Number of cells post filtering empty droplets" = format(ncol(filtered_sce), big.mark = ","),
  "Percent of reads in cells"                     = paste0(round((sum(filtered_sce$sum)/sum(unfiltered_sce$sum))*100,2),"%"),
  "Median UMI count per cell"                     = format(median(filtered_sce$sum), big.mark = ","),
  "Median genes detected per cell"                = format(median(filtered_sce$detected), big.mark = ","),
  "Median percent reads mitochondrial"            = paste0(round(median(filtered_sce$subsets_mito_percent), 2), "%")
  )

# if processed sce exists add filtering and normalization table
if (has_processed) {
  processed_meta <- metadata(processed_sce)

  basic_statistics <- basic_statistics |>
    mutate(
      "Method used to filter low quality cells" = format(processed_meta$scpca_filter_method),
      "Cells after filtering low quality cells" = format(dim(processed_sce)[2], big.mark = ',', scientific = FALSE),
      "Normalization method"                    = format(processed_meta$normalization),
      "Minimum genes per cell cutoff"           = format(processed_meta$min_gene_cutoff)
    )
  if (processed_meta$scpca_filter_method == "miQC") {
    basic_statistics <- basic_statistics |>
      mutate(
        "Probability of compromised cell cutoff" = format(processed_meta$prob_compromised_cutoff, big.mark = ",", scientific = FALSE)
      )
  }
}

basic_statistics <- basic_statistics |>
  reformat_nulls() |> # reformat nulls
  t()

# make table with basic statistics
knitr::kable(basic_statistics, align = 'r') |>
  kableExtra::kable_styling(bootstrap_options = "striped",
                            full_width = FALSE,
                            position = "left") |>
  kableExtra::column_spec(2, monospace = TRUE)

```

```{r, results='asis'}
if (has_filtered &&
   (metadata(filtered_sce)$filtering_method == "UMI cutoff")) {
  glue::glue("
    <div class=\"alert alert-warning\">

    This library may contain a low number of cells and was unable to be filtered using `DropletUtils`.
    Droplets with a total UMI count ≥ {metadata(filtered_sce)$umi_cutoff} are included in the filtered `SingleCellExperiment` object.

    </div>
  ")
}
```

```{r, results='asis'}
# check for number of filtered cells
min_filtered <- 100
if(has_filtered){
  if(ncol(filtered_sce) < min_filtered){
    glue::glue("
      <div class=\"alert alert-warning\">

      This library contains fewer than {min_filtered} cells in the filtered `SingleCellExperiment` object.
      This may affect the interpretation of results.

      </div>
    ")
  }
}

# check for number of cells post processing
min_processed <- 50
if(has_processed){
  if(ncol(processed_sce) < min_processed){
    glue::glue("
      <div class=\"alert alert-warning\">

      This library contains fewer than {min_processed} cells in the processed `SingleCellExperiment` object after removal of low quality cells.
      UMAP is unable to be calculated and plots will not be shown.

      </div>
    ")
  }
}
```

## Knee Plot

```{r, fig.alt="Smoothed knee plot of filtered and unfiltered droplets"}
unfiltered_celldata <- data.frame(colData(unfiltered_sce)) |>
  mutate(
    rank = rank(- unfiltered_sce$sum, ties.method = "first"), # using full spec for clarity
    filter_pass = colnames(unfiltered_sce) %in% colnames(filtered_sce)
  ) |>
  select(sum, rank, filter_pass) |>
  filter(sum > 0) # remove zeros for plotting


grouped_celldata <- unfiltered_celldata |>
  mutate(rank_group = floor(rank / 100) )|>
  group_by(rank_group) |>
  summarize(
    med_sum = median(sum),
    med_rank = median(rank),
    pct_passed = sum(filter_pass) / n() * 100
  )

top_celldata <- unfiltered_celldata |>
  filter(rank <= 50) |>
  mutate(filter_pct = ifelse(filter_pass, 100, 0))

ggplot(grouped_celldata, aes(x = med_rank, y = med_sum, color = pct_passed)) +
  geom_point(mapping = aes(x = rank, y = sum, color = filter_pct),
             data = top_celldata,
             alpha = 0.5) +
  geom_line(linewidth = 2, lineend = "round", linejoin= "round") +
  scale_x_log10(labels = scales::label_number(accuracy = 1)) +
  scale_y_log10(labels = scales::label_number(accuracy = 1)) +
  scale_color_gradient2(low = "grey70",
                        mid = "forestgreen",
                        high = "darkgreen",
                        midpoint = 50) +
  labs(
    x = "Rank",
    y = "Total UMI count",
    color = "% passing\ncell filter"
  ) +
  theme(legend.position = c(0, 0),
        legend.justification = c(0,0),
        legend.background = element_rect(color = "grey20", linewidth = 0.25),
        legend.box.margin = margin(rep(5, 4)))
```

The total UMI count of each droplet (barcode) plotted against the rank of that droplet allows visualization of the distribution of sequencing depth across droplets.
The droplets that are expected to contain cells were identified with [`DropletUtils::emptyDropsCellRanger()`](https://bioconductor.org/packages/release/bioc/html/DropletUtils.html), unless otherwise specified in the `Cell Statistics` table, which uses both the total UMI counts and expressed gene content (adapted from [Lun  _et al._ 2019](https://doi.org/10.1186/s13059-019-1662-y)).
As the boundary between droplets passing and failing this filter is not solely dependent on total UMI count, some regions contain droplets in both categories.
The color in this plot indicates the percentage of droplets in a region passing the filter.

## Cell Read Metrics

```{r, fig.alt="Total UMI x genes expressed"}
filtered_celldata <- data.frame(colData(filtered_sce))

ggplot(filtered_celldata,
       aes (x = sum,
            y = detected,
            color = subsets_mito_percent)) +
  geom_point(alpha = 0.3) +
  scale_color_viridis_c(limits = c(0, 100)) +
  scale_x_continuous(labels = scales::label_number(accuracy = 1)) +
  scale_y_continuous(labels = scales::label_number(accuracy = 1)) +
  labs(x = "Total UMI count",
       y = "Number of genes detected",
       color = "Percent reads\nmitochondrial") +
  theme(legend.position = c(0, 1),
        legend.justification = c(0,1),
        legend.background = element_rect(color = "grey20", linewidth = 0.25),
        legend.box.margin = margin(rep(5, 4)))
```

The above plot of cell metrics includes only droplets which have passed the `emptyDropsCellRanger()` filter.
The plot will usually display a strong (but curved) relationship between the total UMI count and the number of genes detected.
Cells with low UMI counts and high mitochondrial percentages may require further filtering.

## miQC Model Diagnostics

```{r, fig.alt="miQC model diagnostics plot", results='asis', warning=FALSE}
if (skip_miQC) {
  cat("miQC model not created, skipping miQC plot. Usually this is because mitochondrial gene data was not available.")
} else {
  # remove prob_compromised if it exists, as this will cause errors with plotModel
  filtered_sce$prob_compromised <- NULL
  miQC_model <- metadata(filtered_sce)$miQC_model

  if (is.null(miQC_model) || length(miQC_model@components) < 2) {
    # model didn't fit, just plot metrics
    miQC_plot <- miQC::plotMetrics(filtered_sce)
  } else {
    miQC_plot <- miQC::plotModel(filtered_sce, model = miQC_model)
  }

  miQC_plot +
    coord_cartesian(ylim = c(0,100)) +
    scale_x_continuous(labels = scales::label_number(accuracy = 1)) +
    labs(x = "Number of genes detected",
         y = "Percent reads mitochondrial") +
    theme(legend.position = c(1, 1),
          legend.justification = c(1,1),
          legend.background = element_rect(color = "grey20", linewidth = 0.25),
          legend.box.margin = margin(rep(5, 4)))
}
```

We calculate the probability that a cell is compromised due to degradation or rupture using [`miQC`](https://bioconductor.org/packages/release/bioc/html/miQC.html) ([Hippen _et al._ 2021](https://doi.org/10.1371/journal.pcbi.1009290)).
This relies on fitting a mixture model using the number of genes expressed by a cell and the percentage of mitochondrial reads.
The expected plot will show a characteristic triangular shape and two model fit lines.
Cells with low numbers of genes expressed may have both low and high mitochondrial percentage, but cells with many genes tend to have a low mitochondrial percentage.
Compromised cells are likely to have a fewer genes detected and higher percentage of mitochondrial reads.

If the model has failed to fit properly, the pattern of cells may differ, and there may not be model fit lines.
This can be the result of a low-quality library or may occur if there is no mitochondrial content, as in the case of a high-quality single-nucleus sample.
In such situations, the calculated probability of compromise may not be valid (see [miQC vignette](https://bioconductor.org/packages/3.13/bioc/vignettes/miQC/inst/doc/miQC.html#when-not-to-use-miqc) for more details).

## Removing low quality cells

The below plot highlights cells that were removed prior to normalization and dimensionality reduction.
Cells that should be removed based on RNA counts are those that are identified to be low quality cells, such as cells with high probability of being compromised.
The method of filtering is indicated above the plot as either `miQC` or `Minimum gene cutoff`.
If `miQC`, cells below the specified probability compromised cutoff and above the minimum number of unique genes identified are kept for downstream analyses.
If only a `Minimum gene cutoff` is used, then `miQC` is not used and only those cells that pass the minimum number of unique genes identified threshold are retained.
The dotted vertical line indicates the minimum gene cutoff used for filtering.


```{r results='asis'}
if (has_filtered & has_processed) {

  # grab cutoffs and filtering method from processed sce
  min_gene_cutoff <- processed_meta$min_gene_cutoff

  filter_method <- processed_meta$scpca_filter_method

  # add column to coldata labeling cells to keep/remove based on filtering method
  filtered_coldata_df <- colData(filtered_sce) |>
    as.data.frame() |>
    tibble::rownames_to_column("barcode")

  ggplot(filtered_coldata_df, aes(x = detected, y = subsets_mito_percent, color = scpca_filter)) +
    geom_point(alpha = 0.5, size = 1) +
    geom_vline(xintercept = min_gene_cutoff, linetype = "dashed") +
    labs(x = "Number of genes detected",
         y = "Mitochondrial percentage",
         color = "Filter",
         title = stringr::str_replace(filter_method, "_", " ")) +
    theme(plot.title = element_text(hjust = 0.5),
          legend.position = c(1, 1),
          legend.justification = c(1,1),
          legend.background = element_rect(color = "grey20", linewidth = 0.25),
          legend.title = element_text(hjust = 0.5))
} else {
  glue::glue("
    <div class=\"alert alert-warning\">

    No filtering of low quality cells was performed on this library.

    </div>
  ")
}
```

The raw counts from all cells that remain after filtering low quality cells (RNA only) are then normalized prior to selection of highly variable genes and dimensionality reduction.



<!-- Next section include only if UMAP is present -->
```{r, child='umap_qc.rmd', eval = has_umap}

```

<!-- Next section included only if CITE-seq data is present -->
```{r, child='cite_qc.rmd', eval = has_adt}
```

<!-- Next section only included if multiplex data is present -->
```{r, child='multiplex_qc.rmd', eval = has_cellhash}

```


# Session Info
<details>
<summary>R session information</summary>
```{r session_info}
if (requireNamespace("sessioninfo", quietly = TRUE)) {
  sessioninfo::session_info()
} else {
  sessionInfo()
}

```
</details>

