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vignette atime data.t.Rmd
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vignette atime data.t.Rmd
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---
title: "vignette atime"
author: "Doris Amoakohene"
date: "`r Sys.Date()`"
output: html_document
---
Modify atime compare-data.table-tidyverse vignette, and analyze efficiency of packages such as polars, arrow, collapse, spark.
To modify the atime vignette in the compare-data.table-tidyverse package and analyze the efficiency of packages such as polars, arrow, collapse, and spark, you would need to perform the following steps:
Perform Comparison with
data.table
arrow
adding:
collapse
spark
The purpose of this vignette is to make figures which show the efficiency of data.table.
fwrite: Fast csv writer
```{r}
library(data.table)
library(readr)
library(arrow)
library(ggplot2)
library(collapse)
#library(sparklyr)
library(polars)
library(dplyr)
library(plyr)
library(tidyr)
library(stats)
#sc <- sparklyr::spark_connect(master = "local")
```
```{r}
write.colors <- c(
"readr::write_csv"="#9970AB",
"data.table::fwrite"="#D6604D",
"write_csv_arrow"="#BF812D",
"polars::write_csv"="#33A02C",
"write_CSV_COllapse" = "#722f37",
#"write_csv_spark"= "pink",
"write.csv2"= "#1F78B4",
"utils::write.csv"="deepskyblue")
n.rows <- 100
seconds.limit <- 1
atime.write.vary.cols <- atime::atime(
N=as.integer(10^seq(2, 6, by=0.5)),
setup={
set.seed(1)
input.vec <- rnorm(n.rows*N)
input.mat <- matrix(input.vec, n.rows, N)
input.df <- data.frame(input.mat)
#spark_df<- copy_to(sc,input.mat, name = "spark_df")
},
seconds.limit = seconds.limit,
"data.table::fwrite"={
data.table::fwrite(input.df, tempfile(), showProgress = FALSE)
},
"write_csv_arrow"={
arrow::write_csv_arrow(input.df, tempfile())
},
"readr::write_csv"={
readr::write_csv(input.df, tempfile(), progress = FALSE)
},
"polars::write_csv" = {
write_csv(input.df, tempfile())
},
"write_csv_collapse"={
write.csv(input.df,tempfile())
},
#"write_csv_spark"={
#spark_write_csv(spark_df, tempfile(), mode = "overwrite")
#},
"write.csv2" = {
write.csv2(input.df, tempfile())
},
"utils::write.csv"= {
utils::write.csv(input.df, tempfile())
}
)
```
```{r}
refs.write.vary.cols <- atime::references_best(atime.write.vary.cols)
pred.write.vary.cols <- predict(refs.write.vary.cols)
gg.write <- plot(pred.write.vary.cols)+
theme(text=element_text(size=20))+
ggtitle(sprintf("Write real numbers to CSV, %d x N", n.rows))+
scale_x_log10("N = number of columns to write")+
scale_y_log10("Computation time (seconds)
median line, min/max band
over 10 timings")+
facet_null()+
scale_fill_manual(values=write.colors)+
scale_color_manual(values=write.colors)
```
```{r}
gg.write
```
fread: fast CSV reader
```{r}
read.colors <- c(
"readr::read_csv\n(lazy=TRUE)"="#9970AB",
"readr::read_csv\n(lazy=FALSE)"="#9970AB",
"data.table::fread"="#D6604D",
"read_csv_arrow"="#BF812D",
"polars::read_csv"="#33A02C",
"read_csv_collapse"="#722f37",
"read.csv2" = "#1F78B4",
"utils::read.csv"="deepskyblue")
atime.read.vary.cols <- atime::atime(
N=as.integer(10^seq(2, 6, by=0.5)),
setup={
set.seed(1)
input.vec <- rnorm(n.rows*N)
input.mat <- matrix(input.vec, n.rows, N)
input.df <- data.frame(input.mat)
input.csv <- tempfile()
fwrite(input.df, input.csv)
},
seconds.limit = seconds.limit,
"data.table::fread"={
data.table::fread(input.csv, showProgress = FALSE)
},
"read_csv_arrow"={
arrow::read_csv_arrow(input.csv)
},
"readr::read_csv\n(lazy=TRUE)"={
readr::read_csv(input.csv, progress = FALSE, show_col_types = FALSE, lazy=TRUE)
},
"readr::read_csv\n(lazy=FALSE)"={
readr::read_csv(input.csv, progress = FALSE, show_col_types = FALSE, lazy=FALSE)
},
"polars::read_csv" = {
read_csv(input.csv)
},
"read_csv_collapse"={
read.csv(input.csv)
},
"read.csv2" = {
read.csv2(input.csv)
},
"utils::read.csv"=utils::read.csv(input.csv))
```
```{r}
refs.read.vary.cols <- atime::references_best(atime.read.vary.cols)
pred.read.vary.cols <- predict(refs.read.vary.cols)
gg.read <- plot(pred.read.vary.cols)+
theme(text=element_text(size=20))+
ggtitle(sprintf("Read real numbers from CSV, %d x N", n.rows))+
scale_x_log10("N = number of columns to read")+
scale_y_log10("Computation time (seconds)
median line, min/max band
over 10 timings")+
facet_null()+
scale_fill_manual(values=read.colors)+
scale_color_manual(values=read.colors)
```
```{r}
gg.read
```
Summarize by group
```{r}
ml.colors <- c(
"dplyr::summarise"="#9970AB",
"[.data.table"="#D6604D",
"stats::aggregate"="deepskyblue",
"plyr::ddply"="orange",
"tidyr::pivot_longer"="green")
options(dplyr.summarise.inform=FALSE)
n.folds <- 10
ml.atime <- atime::atime(
N=as.integer(10^seq(2, 7, by=0.5)),
setup={
loss.dt <- data.table(
name="loss",
fold=rep(1:n.folds, each=2*N),
loss=rnorm(2*N*n.folds),
set=rep(c("subtrain","validation"),each=N),
epoch=1:N,
key=c("set","epoch","fold"))
},
seconds.limit=seconds.limit,
"[.data.table"={
loss.dt[, .(
loss_length=.N,
loss_mean=mean(loss),
loss_sd=sd(loss)
), by=.(set, epoch)]
},
"stats::aggregate"={
res <- stats::aggregate(
loss ~ set + epoch,
loss.dt,
function(values)list(c(
loss_length=length(values),
loss_mean=mean(values),
loss_sd=sd(values))))
data.frame(
subset(res, select=-loss),
do.call(rbind, res$loss))
},
"plyr::ddply"={
ddply(loss.dt, c("set", "epoch"), summarize,
loss_length = length(loss),
loss_mean = mean(loss),
loss_sd = sd(loss))
},
"tidyr::pivot_longer"={
tidy_data <- pivot_longer(loss.dt, cols = starts_with("loss"), names_to = "GroupVar", values_to = "NumericVar")
summary_data <- tidy_data %>%
group_by(set, epoch) %>%
summarise(
loss_length = length(NumericVar),
loss_mean = mean(NumericVar),
loss_sd = sd(NumericVar)
)
},
"dplyr::summarise"={
loss.dt |>
dplyr::group_by(set, epoch) |>
dplyr::summarise(
loss_length=length(loss),
loss_mean=mean(loss),
loss_sd=sd(loss))
})
```
```{r}
ml.refs <- atime::references_best(ml.atime)
ml.pred <- predict(ml.refs)
ml.gg <- plot(ml.pred)+
theme(text=element_text(size=20))+
ggtitle(sprintf("Mean,SD,Length over %d real numbers, N times", n.folds))+
scale_x_log10("N = number of Mean,SD,Length to compute")+
scale_y_log10("Computation time (seconds)
median line, min/max band
over 10 timings")+
facet_null()+
scale_fill_manual(values=ml.colors)+
scale_color_manual(values=ml.colors)
```
```{r}
ml.gg
```
Summarize by group, expanded
```{r}
options(dplyr.summarise.inform=FALSE)
n.folds <- 10
ml.exp.atime <- atime::atime(
N=as.integer(10^seq(2, 7, by=0.5)),
setup={
loss.dt <- data.table(
name="loss",
fold=rep(1:n.folds, each=2*N),
loss=rnorm(2*N*n.folds),
set=rep(c("subtrain","validation"),each=N),
epoch=1:N)
key.dt <- data.table(loss.dt, key=c("set","epoch","fold"))
},
seconds.limit=seconds.limit,
"[.data.table(no key)"={
loss.dt[, .(
loss_length=.N,
loss_mean=mean(loss),
loss_sd=sd(loss)
), by=.(set, epoch)]
},
"[.data.table(key)"={
key.dt[, .(
loss_length=.N,
loss_mean=mean(loss),
loss_sd=sd(loss)
), by=.(set, epoch)]
},
"stats::aggregate"={
res <- stats::aggregate(
loss ~ set + epoch,
loss.dt,
function(values)list(c(
loss_length=length(values),
loss_mean=mean(values),
loss_sd=sd(values))))
data.frame(
subset(res, select=-loss),
do.call(rbind, res$loss))
},
"dplyr::summarise"={
loss.dt |>
dplyr::group_by(set, epoch) |>
dplyr::summarise(
loss_length=length(loss),
loss_mean=mean(loss),
loss_sd=sd(loss))
},
"collapse::fsummarise"={
loss.dt |>
collapse::fgroup_by(set, epoch) |>
collapse::fsummarise(
loss_length=length(loss),
loss_mean=mean(loss),
loss_sd=sd(loss))
})
```
```{r}
ml.exp.refs <- atime::references_best(ml.exp.atime)
ml.exp.pred <- predict(ml.exp.refs)
ml.exp.colors <- c(
"collapse::fsummarise"="#5AAE61",
"dplyr::summarise"="#9970AB",
"[.data.table(key)"="#D6604D",
"[.data.table(no key)"="#B6604D",
"stats::aggregate"="deepskyblue")
ml.exp.gg <- plot(ml.exp.pred)+
theme(text=element_text(size=20))+
ggtitle(sprintf("Mean,SD,Length over %d real numbers, N times", n.folds))+
scale_x_log10("N = number of Mean,SD,Length to compute")+
scale_y_log10("Computation time (seconds)
median line, min/max band
over 10 timings")+
facet_null()+
scale_fill_manual(values=ml.exp.colors)+
scale_color_manual(values=ml.exp.colors)
```
```{r}
ml.exp.gg
```