1 Functions

2 Data

acc_immune = LoadH5Seurat(file = "./Data/acc_immune.h5seurat")

3 Immune markers

FeaturePlot(acc_immune, features = c("CD8A","MS4A1", "SELL", "CD3E",  "S100A4","CD14","GNLY","MS4A1"))

4 assign cell type

acc_immune <- RenameIdents(object = acc_immune, 
                               "0" = "Naive CD4+ T",
                               "1" = "Memory CD4+",
                               "2" = "CD14+ Mono",
                               "3" = "Memory CD4+",
                               "4" = "CD8+ T",
                               "5" = "B",
                               "6" = "Naive CD4+ T",
                               "7" = "Memory CD4+",
                               "8" = "Memory CD4+")
acc_immune$cell_identity = acc_immune@active.ident
DimPlot(object = acc_immune,label = T)

5 Antigen presenting machinery

apm_genes = c("HLA-A","HLA-B","HLA-C","B2M","TAP1","TAP2", "TAPBP")
apm_score = FetchData(acc_immune,vars = apm_genes,slot = "data") %>% rowMeans()
acc_immune = AddMetaData(object = acc_immune,metadata = apm_score,col.name = "APM_score")
print_tab(plt = FeaturePlot(acc_immune,features = apm_genes),title = "genes")

genes

print_tab(plt = FeaturePlot(acc_immune,features = "APM_score"),title = "score")

score

NA

6 Exhaustion markers

exhausted_genes = c("PDCD1","CD244","CD160","CTLA4","HAVCR2")
FeaturePlot(acc_immune,features = exhausted_genes)

7 Immune receptors

receptors = c("CCR3", "CCR4", "CCR10","CXCR2", "CXCR3", "CXCR4", "IL17A")
FeaturePlot(acc_immune,features = receptors)

8 CellphoneDB

acc_cancer_cells = readRDS("/sci/labs/yotamd/lab_share/avishai.wizel/R_projects/ACC_microenv/Data/acc_cancer_no146_primaryonly15k_cancercells.rds")
# merge cancer and immune
common_genes = intersect(rownames(acc_cancer_cells),rownames(acc_immune))
acc_cancer_and_cd45 = merge(acc_cancer_cells[common_genes,],acc_immune[common_genes,])
  #write metadata

#create lum or myo
lum_over_myo = FetchData(object = acc_cancer_cells,vars = "luminal_over_myo")
lum_over_myo$lum_or_myo = "Unknown"
lum_over_myo$lum_or_myo [lum_over_myo$luminal_over_myo>1]  = "Luminal"
lum_over_myo$lum_or_myo [lum_over_myo$luminal_over_myo<(-1)]  = "Myo"
lum_or_myo = lum_over_myo[,"lum_or_myo",drop = F]
names(lum_or_myo)[1] = "cell_identity"

# combine
immune_identity =FetchData(object = acc_immune,vars = "cell_identity")
all_identity= rbind(lum_or_myo,immune_identity )

#rename and sort columns
all_identity$barcode_sample = rownames(all_identity)
all_identity = all_identity %>% rename(cell_type = cell_identity)
all_identity = all_identity[,c(2,1)]


write.table(x = all_identity,file = "./Data/CellphoneDB/metadata.tsv",row.names =F,sep = "\t")
#write normalized counts
count_matrix = as.data.frame(acc_cancer_and_cd45@assays[["RNA"]]@data)
fwrite(count_matrix, file = "./Data/CellphoneDB/counts.txt",sep = "\t",row.names = T)
library(ktplots)
acc_cancer_and_cd45$cell_type = all_identity[,2,drop = F] # add cells identities to seurat

#read data:
pvals =  read.delim(file = "./Data/CellphoneDB/output/statistical_analysis_pvalues_07_19_2023_12:16:16.txt", check.names = FALSE)
means = read.delim(file = "./Data/CellphoneDB/output/statistical_analysis_means_07_19_2023_12:16:16.txt", check.names = FALSE)

9 significant interactions heatmap

plot_cpdb_heatmap(scdata = acc_cancer_and_cd45, idents = 'cell_type',pvals =  pvals,main = "Number of significant interactions",alpha = 0.05)

10 Costimulatory interactions


print_tab(plt = 
            plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
                      idents = 'cell_type', means = means, pvals = pvals,
                      gene.family = 'costimulatory',return_table = F,max_size = 3,p.adjust.method = "fdr",keep_significant_only = T,cluster_rows = F)+
            ggtitle("costimulatory Luminal")
  ,title = "Luminal")

Luminal

print_tab(plt = 
            plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
                      idents = 'cell_type', means = means, pvals = pvals,
                      gene.family = 'costimulatory',return_table = F,max_size = 3,p.adjust.method = "fdr",keep_significant_only = T,cluster_rows = F)+
            ggtitle("costimulatory Myo")
  ,title = "Myo")

Myo

NA

11 Coinhibitory interactions


print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'coinhibitory',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("coinhibitory Luminal"),title = "Luminal")

Luminal

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'coinhibitory',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("coinhibitory Myo"),title = "Myo")

Myo

NA

12 Chemokines interactions

print_tab(
  plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'chemokines',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("chemokines Luminal"),title = "Luminal")

Luminal

print_tab(
  plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'chemokines',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("chemokines Myo"),title = "Myo")

Myo

NA

13 Chemokine ligands

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
 genes = c("CXCL1\\D", "CXCL2\\D","CXCL3\\D","CXCL17","C3","CXCL14"),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 
 ,title = "Myo")

Myo

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
  genes = c("CXCL1\\D", "CXCL2\\D","CXCL3\\D","CXCL17","C3","CXCL14"),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 
,title = "Luminal")

Luminal

NA

14 CCL22 and CCL28

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
 genes = c("CCL22", "CCL28" ),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F),title = "Myo")

Myo

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
  genes = c("CCL22", "CCL28" ),return_table = F,max_size = 6,p.adjust.method = "fdr" ,keep_significant_only = F),title = "Luminal")

Luminal

NA

plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
 genes = c("JAG", "MYB" ),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 


plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
  genes = c("JAG", "MYB" , "NOTCH","HES1","HEY"),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 

NA
NA
---
title: '`r rstudioapi::getSourceEditorContext()$path %>% basename() %>% gsub(pattern = "\\.Rmd",replacement = "")`' 
author: "Avishai Wizel"
date: '`r Sys.time()`'
output: 
  html_notebook: 
    code_folding: hide
    toc: yes
    toc_collapse: yes
    toc_float: 
      collapsed: FALSE
    number_sections: true
    toc_depth: 1
---



# Functions

```{r warning=FALSE}
```

# Data

```{r}
acc_immune = LoadH5Seurat(file = "./Data/acc_immune.h5seurat")
```

# Immune markers
```{r fig.height=8, fig.width=10}
FeaturePlot(acc_immune, features = c("CD8A","MS4A1", "SELL", "CD3E",  "S100A4","CD14","GNLY","MS4A1"))
```
# assign cell type
```{r fig.height=6, fig.width=8}
acc_immune <- RenameIdents(object = acc_immune, 
                               "0" = "Naive CD4+ T",
                               "1" = "Memory CD4+",
                               "2" = "CD14+ Mono",
                               "3" = "Memory CD4+",
                               "4" = "CD8+ T",
                               "5" = "B",
                               "6" = "Naive CD4+ T",
                               "7" = "Memory CD4+",
                               "8" = "Memory CD4+")
acc_immune$cell_identity = acc_immune@active.ident
DimPlot(object = acc_immune,label = T)
```

# Antigen presenting machinery {.tabset}
```{r}
apm_genes = c("HLA-A","HLA-B","HLA-C","B2M","TAP1","TAP2", "TAPBP")
apm_score = FetchData(acc_immune,vars = apm_genes,slot = "data") %>% rowMeans()
acc_immune = AddMetaData(object = acc_immune,metadata = apm_score,col.name = "APM_score")
```

```{r fig.height=8, fig.width=10, results='asis'}
print_tab(plt = FeaturePlot(acc_immune,features = apm_genes),title = "genes")
print_tab(plt = FeaturePlot(acc_immune,features = "APM_score"),title = "score")
```

# Exhaustion markers
```{r fig.height=8, fig.width=10}
exhausted_genes = c("PDCD1","CD244","CD160","CTLA4","HAVCR2")
FeaturePlot(acc_immune,features = exhausted_genes)
```
# Immune receptors
```{r fig.height=8, fig.width=10}
receptors = c("CCR3", "CCR4", "CCR10","CXCR2", "CXCR3", "CXCR4", "IL17A")
FeaturePlot(acc_immune,features = receptors)

```
# CellphoneDB
```{r}
acc_cancer_cells = readRDS("/sci/labs/yotamd/lab_share/avishai.wizel/R_projects/ACC_microenv/Data/acc_cancer_no146_primaryonly15k_cancercells.rds")
```



```{r}
# merge cancer and immune
common_genes = intersect(rownames(acc_cancer_cells),rownames(acc_immune))
acc_cancer_and_cd45 = merge(acc_cancer_cells[common_genes,],acc_immune[common_genes,])
```

```{r}
  #write metadata

#create lum or myo
lum_over_myo = FetchData(object = acc_cancer_cells,vars = "luminal_over_myo")
lum_over_myo$lum_or_myo = "Unknown"
lum_over_myo$lum_or_myo [lum_over_myo$luminal_over_myo>1]  = "Luminal"
lum_over_myo$lum_or_myo [lum_over_myo$luminal_over_myo<(-1)]  = "Myo"
lum_or_myo = lum_over_myo[,"lum_or_myo",drop = F]
names(lum_or_myo)[1] = "cell_identity"

# combine
immune_identity =FetchData(object = acc_immune,vars = "cell_identity")
all_identity= rbind(lum_or_myo,immune_identity )

#rename and sort columns
all_identity$barcode_sample = rownames(all_identity)
all_identity = all_identity %>% rename(cell_type = cell_identity)
all_identity = all_identity[,c(2,1)]


write.table(x = all_identity,file = "./Data/CellphoneDB/metadata.tsv",row.names =F,sep = "\t")
```

```{r}
#write normalized counts
count_matrix = as.data.frame(acc_cancer_and_cd45@assays[["RNA"]]@data)
fwrite(count_matrix, file = "./Data/CellphoneDB/counts.txt",sep = "\t",row.names = T)
```


```{python include=FALSE}
#download database
import pandas as pd
import glob
import os
# -- Version of the databse
cpdb_version = 'v4.1.0'

# -- Path where the input files to generate the database are located
cpdb_target_dir = os.path.join('./Data/CellphoneDB/', cpdb_version)

# Download database
from cellphonedb.utils import db_utils
db_utils.download_database(cpdb_target_dir, cpdb_version)
```

```{python include=FALSE}
from cellphonedb.src.core.methods import cpdb_statistical_analysis_method

deconvoluted, means, pvalues, significant_means = cpdb_statistical_analysis_method.call(
    cpdb_file_path = "./Data/CellphoneDB/v4.1.0/cellphonedb.zip",                 # mandatory: CellPhoneDB database zip file.
    meta_file_path = "./Data/CellphoneDB/metadata.tsv",                 # mandatory: tsv file defining barcodes to cell label.
    counts_file_path = "./Data/CellphoneDB/counts.txt",             # mandatory: normalized count matrix.
    counts_data = 'hgnc_symbol',                     # defines the gene annotation in counts matrix.
    output_path = "./Data/CellphoneDB/output",                          # Path to save results.
)
```


```{r}
library(ktplots)
acc_cancer_and_cd45$cell_type = all_identity[,2,drop = F] # add cells identities to seurat

#read data:
pvals =  read.delim(file = "./Data/CellphoneDB/output/statistical_analysis_pvalues_07_19_2023_12:16:16.txt", check.names = FALSE)
means = read.delim(file = "./Data/CellphoneDB/output/statistical_analysis_means_07_19_2023_12:16:16.txt", check.names = FALSE)

```

# significant interactions heatmap
```{r}
plot_cpdb_heatmap(scdata = acc_cancer_and_cd45, idents = 'cell_type',pvals =  pvals,main = "Number of significant interactions",alpha = 0.05)
```

# Costimulatory interactions {.tabset}
```{r fig.height=8, results='asis'}

print_tab(plt = 
            plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
                      idents = 'cell_type', means = means, pvals = pvals,
                      gene.family = 'costimulatory',return_table = F,max_size = 3,p.adjust.method = "fdr",keep_significant_only = T,cluster_rows = F)+
            ggtitle("costimulatory Luminal")
  ,title = "Luminal")

print_tab(plt = 
            plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
                      idents = 'cell_type', means = means, pvals = pvals,
                      gene.family = 'costimulatory',return_table = F,max_size = 3,p.adjust.method = "fdr",keep_significant_only = T,cluster_rows = F)+
            ggtitle("costimulatory Myo")
  ,title = "Myo")
```

# Coinhibitory interactions {.tabset}

```{r fig.height=5,results='asis'}

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'coinhibitory',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("coinhibitory Luminal"),title = "Luminal")

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'coinhibitory',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("coinhibitory Myo"),title = "Myo")
```

# Chemokines interactions {.tabset}
```{r fig.height=6, results='asis'}
print_tab(
  plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'chemokines',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("chemokines Luminal"),title = "Luminal")

print_tab(
  plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
          idents = 'cell_type', means = means, pvals = pvals,
          gene.family = 'chemokines',return_table = F,max_size = 4,p.adjust.method = "fdr",keep_significant_only = F,cluster_rows = F)+
  ggtitle("chemokines Myo"),title = "Myo")
```
# Chemokine ligands {.tabset}
```{r results='asis'}
print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
 genes = c("CXCL1\\D", "CXCL2\\D","CXCL3\\D","CXCL17","C3","CXCL14"),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 
 ,title = "Myo")

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
  genes = c("CXCL1\\D", "CXCL2\\D","CXCL3\\D","CXCL17","C3","CXCL14"),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 
,title = "Luminal")

```
# CCL22 and CCL28 {.tabset}
```{r results='asis'}
print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
 genes = c("CCL22", "CCL28" ),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F),title = "Myo")

print_tab(plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
  genes = c("CCL22", "CCL28" ),return_table = F,max_size = 6,p.adjust.method = "fdr" ,keep_significant_only = F),title = "Luminal")



```

```{r fig.height=6}
plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Myo', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
 genes = c("JAG", "MYB" ),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 

plot_cpdb(cell_type1 = 'CD', cell_type2 = 'Luminal', scdata = acc_cancer_and_cd45,
    idents = 'cell_type', means = means, pvals = pvals,
  genes = c("JAG", "MYB" , "NOTCH","HES1","HEY"),return_table = F,max_size = 4,p.adjust.method = "fdr" ,keep_significant_only = F) 


```
<script src="https://hypothes.is/embed.js" async></script>

