#!/bin/bash # pyr0ball script functions library # Initial Vars functionsrev=2.1.2 #scriptname="${BASH_SOURCE[0]##*/}" #rundir="${BASH_SOURCE[0]%/*}" #runuser="$(whoami)" pretty_date="$(date +%Y-%m-%d_%H-%M-%S)" short_date="$(date +%Y-%m-%d)" # rundir_absolute=$(pushd $rundir ; pwd ; popd) # escape_dir=$(printf %q "${rundir_absolute}") # logfile="${rundir}/${pretty_date}_${scriptname}.log" # ensure ctrl-c to cancel script ends the entire process and not just the current function # trap ctrl_c INT # Commented out by default to prevent abnormal background exits # return any cursor mods to normal on exit cleanup(){ tput cnorm } trap cleanup EXIT # Escape characters (if your shell uses a different one, you can modify it here) # By default this is using the usual bash escape code ESC=$( printf '\033') # Detect OS type case $OSTYPE in linux-gnu*|cygwin|msys) ESC=$( printf '\033') ;; darwin* ) ESC=$( printf '\e') ;; esac # Utilities (Setting up colors and bounding boxes) # boxtype changes what borders are used for the boxborder functions. # options are "single" "double" "char" # for the "char" option, change the "borderchar" variable to # whichever unicode character you wish to use # boxtype="${boxtype:-single}" # Sets default 'single' if not already set # borderchar="${borderchar:-#}" # Sets default '#' if not already set boxtype="norm" # Sets default 'single' if not already set borderchar="#" # Sets default '#' if not already set # Colorization options if [[ "$TERM" != "linux" ]] ; then red="${ESC}[38;5;1m" # red grn="${ESC}[38;5;2m" # green ylw="${ESC}[38;5;3m" # yellow blu="${ESC}[38;5;27m" # blue lbl="${ESC}[38;5;69m" # light blue mag="${ESC}[38;5;5m" # magenta cyn="${ESC}[38;5;6m" # cyan pur="${ESC}[38;5;135m" # purple ong="${ESC}[38;5;166m" # orange lyl="${ESC}[38;5;228m" # light yellow lrd="${ESC}[38;5;196m" # light red gry="${ESC}[38;5;240m" # Grey norm="${ESC}[39m" # default/normal # bld="${ESC}[1m" # bold unb="${ESC}[21m" # un-bold dim="${ESC}[2m" # dim und="${ESC}[22m" # un-dim unl="${ESC}[4m" # underline nln="${ESC}[24m" # not-underline blk="${ESC}[5m" # blinking unbl="${ESC}[25m" # stop blinking inv="${ESC}[7m" # invert rsinv="${ESC}[27m" # reset invert hid="${ESC}[8m" # hidden unh="${ESC}[28m" # unhide dfl="${ESC}[0m" # restore default fi check_unicode_support() { # Check if LANG indicates UTF-8 [[ "${LANG,,}" == *".utf-8"* || "${LANG,,}" == *".utf8"* ]] || return 1 # Check if terminal can display Unicode echo -ne "\u2714" >/dev/null 2>&1 || return 1 return 0 } box_chars_simple() { # Simple ASCII box characters top_border="-" bottom_border="-" left_border="|" right_border="|" left_top_border="+" right_top_border="+" left_bottom_border="+" right_bottom_border="+" box_break_line="-" } set_box_chars() { if check_unicode_support; then unicode_supported=true case "$OSTYPE" in linux-gnu*|cygwin|msys) return_arrow=$(echo -e "\u2BAC") enter_arrow=$(echo -e "\u21B5") green_check=${grn}$(echo -e "\u2714")${dfl} red_x=${lrd}$(echo -e "\u00D7")${dfl} selected_opt=$(echo -e "\u25C9") deselected_opt=$(echo -e "\u25CE") light_h='─' norm_h='━' double_h='═' light_v='│' norm_v='┃' double_v='║' ;; darwin*) return_arrow="⮬" return_arrow=$(echo -e "⮬") enter_arrow=$(echo -e "↵") green_check=${grn}$(echo -e "✔")${dfl} red_x=${lrd}$(echo -e "×")${dfl} selected_opt=$(echo -e "◉") deselected_opt=$(echo -e "◎") light_h='─' norm_h='━' double_h='═' light_v='│' norm_v='┃' double_v='║' ;; *) # Fallback to simple ASCII if OS is unknown return_arrow=">" green_check="+" red_x="x" selected_opt="*" deselected_opt="o" ;; esac else # ASCII fallbacks unicode_supported=false return_arrow=">" enter_arrow="<" green_check="+" red_x="x" selected_opt="*" deselected_opt="o" box_chars_simple fi } # For drawing pretty boxes update_terminal_width() { local min_width=40 # Minimum usable width local max_width=100 # Maximum usable width local default_width=80 # Try to get terminal width, fallback to default if failed terminal_width=$(tput cols 2>/dev/null || echo "$default_width") # Ensure minimum width if (( terminal_width < min_width )); then terminal_width=$min_width fi if (( terminal_width > max_width )); then terminal_width=$max_width fi # Set box width with 1 character margin BOXWIDTH=$((terminal_width - 1)) } # Add trap for terminal resize trap 'update_terminal_width' WINCH set_borders() { top_border=$1 bottom_border=$2 left_border=$3 right_border=$4 left_top_border=$5 right_top_border=$6 left_bottom_border=$7 right_bottom_border=$8 box_break_line=$9 } # Box border type single-line box-norm() { case $OSTYPE in linux-gnu*|cygwin|msys) set_borders "${norm_h}" "${norm_h}" "${norm_v}" "${norm_v}" "┏" "┓" "┗" "┛" "▫" ;;& darwin* ) set_borders "${norm_h}" "${norm_h}" "${norm_v}" "${norm_v}" "┏" "┓" "┗" "┛" "▫" ;; esac } # Box border type double-line box-double() { case $OSTYPE in linux-gnu*|cygwin|msys) set_borders "${double_h}" "${double_h}" "${double_v}" "${double_v}" "╔" "╗" "╚" "╝" "▫" ;;& darwin* ) set_borders "${double_h}" "${double_h}" "${double_v}" "${double_v}" "╔" "╗" "╚" "╝" "▫" ;; esac } # Box border type thick-line box-heavy(){ case $OSTYPE in linux-gnu*|cygwin|msys) set_borders "▀" "▄" "▌" "▐" "▛" "▜" "▙" "▟" "▫" ;;& darwin* ) set_borders "▀" "▄" "▌" "▐" "▛" "▜" "▙" "▟" "▫" ;; esac } # Box border type thin-line box-light(){ case $OSTYPE in linux-gnu*|cygwin|msys) set_borders "${light_h}" "${light_h}" "${light_v}" "${light_v}" "▫" "▫" "▫" "▫" "⎯" ;;& darwin* ) set_borders "${light_h}" "${light_h}" "${light_v}" "${light_v}" "▫" "▫" "▫" "▫" "⎯" ;; esac } box-rounded(){ case $OSTYPE in linux-gnu*|cygwin|msys) set_borders "${light_h}" "${light_h}" "${light_v}" "${light_v}" "╭" "╮" "╰" "╯" "▢" ;;& darwin* ) set_borders "${light_h}" "${light_h}" "${light_v}" "${light_v}" "╭" "╮" "╰" "╯" "▢" ;; esac } box-singlechar(){ set_borders "$borderchar" "$borderchar" "$borderchar" "$borderchar" "$borderchar" "$borderchar" "$borderchar" "$borderchar" "-" } set-boxtype() { # Accept a parameter if provided, otherwise use the global variable local style="${1:-$boxtype}" # Update the global variable to match what we're using boxtype="$style" # Ensure characters are defined set_box_chars update_terminal_width # box-norm/double/heavy/light/rounded all draw with hardcoded Unicode corner # glyphs; on a terminal without Unicode support, box_chars_simple() (called # from set_box_chars above) already set full ASCII borders/corners, so skip # the style dispatch entirely rather than clobbering them. if [[ "$unicode_supported" != true && "$style" != "char" ]]; then return fi # Set the box style case $style in norm) box-norm ;; double) box-double ;; heavy) box-heavy ;; light) box-light ;; rounded) box-rounded ;; char) box-singlechar ;; *) # Handle unknown box types by falling back to normal echo "Warning: Unknown box type '$style', falling back to 'norm'" >&2 boxtype="norm" if [[ "$unicode_supported" == true ]]; then box-norm fi ;; esac } format_boxborder() { local alignment="left" local box_type="norm" # Parse options while [[ "$1" == --* ]]; do case "$1" in --center) alignment="center" ;; --right) alignment="right" ;; --box-type=*) box_type="${1#--box-type=}" ;; esac shift done # Set box type set-boxtype boxtop for line in "$@"; do case "$alignment" in center) center "$line" ;; right) right_align "$line" ;; *) boxline "$line" ;; esac done boxbottom } update_terminal_width set-boxtype repchar() { # More robust parameter checking if [[ $# -lt 2 ]]; then echo "Error: repchar() Incorrect usage. Usage: repchar " >&2 # Return a safe fallback instead of failing echo "----" return 0 fi local char="$1" local count="$2" # Validate count is a number if ! [[ "$count" =~ ^[0-9]+$ ]]; then echo "Error: repchar() count must be a number. Got: '$count'" >&2 # Return a safe fallback instead of failing echo "----" return 0 fi # Create and output the repeated character string printf -v result "%*s" "$count" "" echo "${result// /$char}" } boxtop() { printf "%s%s%s\n" "${brdr}$left_top_border" "$(repchar "$top_border" "$((BOXWIDTH-1))")" "$right_top_border${dfl}" } boxbottom() { printf "%s%s%s\n" "${brdr}$left_bottom_border" "$(repchar "$bottom_border" "$((BOXWIDTH-1))")" "$right_bottom_border${dfl}" } boxlinelog() { local content="$1" logger printf "%s%s\r${ESC}[%sC%s\n" "$left_border" "$content" "$BOXWIDTH" "$right_border" } boxline() { local content="$1" if ! printf "%s%s\r${ESC}[%sC%s\n" "$left_border" "$content" "$BOXWIDTH" "$right_border" 2>/dev/null; then # Fallback to simple output if fancy formatting fails printf "%s %s %s\n" "$left_border" "$content" "$right_border" fi } boxseparator(){ printf '%s%s%s\n' "${brdr}" "$(repchar "$box_break_line" $((BOXWIDTH-3)))" "${dfl}" } boxborder(){ boxtop for line in "$@" ; do boxline "$line" done boxbottom } # Experimental! subboxborder() { level=${1:-0} local indent=$((level*2)) local border_char="━" local top_border="" local bottom_border="" # Set the border characters based on the level of nesting if ((level==0)); then left_border="$left_top_border" right_border="$right_top_border" top_border="$rep_char $border_char $indent" bottom_border="$rep_char $border_char $indent" else left_border="$left_border" right_border="$right_border" top_border="$rep_char $border_char $indent" bottom_border="$rep_char $border_char $indent" fi # Generate the top border boxline "$(boxborder "$top_border")" ((level++)) # Generate the output lines for line in "${@:2}" ; do boxline "$(repchar " " $indent)$(boxline "$line")" boxseparator done # Generate the bottom border ((level--)) boxline "$(boxborder "$bottom_border")" } # Helper function to get visual length of string (accounting for ANSI escape codes) get_visual_length() { local text="$1" # Remove ANSI escape sequences and count remaining characters local stripped stripped=$(printf "%s" "$text" | sed 's/\x1b\[[0-9;]*m//g') printf "%s" "${#stripped}" } # For printing center-justified text. To change the padding character, replace the ' ' <~~ whitespace in front of the '{' in the padding variable center() { local text="$1" # Early return for non-interactive/debug mode if (( !interactive )) || (( xtrace )); then printf "%s %s\n" "$text" return fi # Calculate available inner width (total width minus borders) local inner_width=$(( BOXWIDTH - 2 )) local text_length=$(get_visual_length "$text") # If text is too long, just print it with borders if (( text_length >= inner_width )); then printf "%s%s%s\n" "$left_border" "$text" "$right_border" return fi # Calculate padding sizes local padding_left=$(( (inner_width - text_length) / 2 )) local padding_right=$(( inner_width - text_length - padding_left )) # Create padding strings local left_pad right_pad printf -v left_pad "%*s" "$padding_left" "" printf -v right_pad "%*s" "$padding_right" "" # Print with consistent borders printf "%s%s%s%s%s\n" \ "$left_border" \ "$left_pad" \ "$text" \ "$right_pad" \ "$right_border" } right_align() { local text="$1" # Early return for non-interactive/debug mode if (( !interactive )) || (( xtrace )); then printf "%s %s\n" "$text" return fi # Calculate available inner width (total width minus borders) local inner_width=$(( BOXWIDTH - 2 )) local text_length=$(get_visual_length "$text") # If text is too long, just print it with borders if (( text_length >= inner_width )); then printf "%s%s%s\n" "$left_border" "$text" "$right_border" return fi # Calculate padding size local padding=$(( inner_width - text_length )) # Create padding string local pad printf -v pad "%*s" "$padding" "" # Print with consistent borders printf "%s%s%s%s\n" \ "$left_border" \ "$pad" \ "$text" \ "$right_border" } # For printing spanned text, e.g. single-pair lists ($name...$title) spanner() { local left="$1" local right="$2" local spacer="${3:-.}" # Default to dot if no spacer provided # Early return for non-interactive/debug mode if (( !interactive )) || (( xtrace )); then printf "%s %s\n" "$left" "$right" return fi # Calculate available inner width (total width minus borders) local inner_width=$(( BOXWIDTH - 2 )) local left_length=$(get_visual_length "$left") local right_length=$(get_visual_length "$right") # Minimum space between left and right text local min_space=1 # Calculate space needed for spacer local spacer_width=$(( inner_width - left_length - right_length )) # If not enough space, just print with minimal formatting if (( spacer_width < min_space )); then printf "%s%s %s%s\n" \ "$left_border" \ "$left" \ "$right" \ "$right_border" return fi # Create spacer string local spacer_string printf -v spacer_string "%*s" "$spacer_width" "" spacer_string=${spacer_string// /$spacer} # Print with consistent borders printf "%s%s%s%s%s\n" \ "$left_border" \ "$left" \ "$spacer_string" \ "$right" \ "$right_border" } # Workflow and logging pushd(){ command pushd "$@" > /dev/null } popd(){ command popd "$@" > /dev/null } popdfail(){ ec=$? popd $(exit $ec) #restore the exit code fail "$@" } run(){ _cmd=$@ if [[ $dry_run != true ]] ; then logger $_cmd else logger boxline "DryRun: $_cmd" fi } logger(){ if [[ -w "$logfile" ]]; then "$@" 2>&1 | tee -a "$logfile" | while IFS= read -r line; do # strip any escaped strings for logging output _line="${line//[$'\t\r\x01-\x1F\x7F-\xFF']}" # only print out non-empty lines to log [[ -n $_line ]] && printf '[%s][%s] %s\n' "$scriptname" "$pretty_date" "$_line" >> "$logfile" done else "$@" fi } # File handling functions take-backup(){ name="$1" if [[ $update_run != true ]] ; then # Check if a backup file or symbolic link already exists if [[ -e "$name.bak" || -L "$name.bak" ]]; then run boxline " $name.bak backup already exists" else # Check if the file is a hidden file (starts with a dot) if [[ "$name" == .* ]]; then # Add a dot to the beginning of the backup file name backup_name=".${name}.bak" else # Create the backup file name by appending ".bak" to the original file name backup_name="${name}.bak" fi # Copy the file to the backup file with preservation of file attributes run cp -p "$name" "$backup_name" # Add the original file to the list of backup files backup_files+=("$name") # Log the original file name to the backup file list file run echo "$name" >> "$rundir/backup_files.list" fi fi } restore-backup(){ run echo "${#backup_files[@]}" for file in "${backup_files[@]}" ; do run cp "$file".bak $file run echo "$file is restored" done backup_files=() if [ -f $rundir/backup_files.list ] ; then run rm $rundir/backup_files.list fi } install-file(){ local _source="$1" local _destination="$2" local _source_root="$3" local _filename=${_source##*/} local _destination_file=${_destination}/${_filename#${_source_root}} installed_files+=("${_destination_file}") if [[ $update_run == true ]] ; then run boxline "$scriptname: added file ${_destination_file} to list" else run cp -p $_source $_destination_file && boxline "Installed ${_filename}" || warn "Unable to install ${_filename}" run echo "${_destination_file}" >> $rundir/installed_files.list fi } install-dir() { local _source="$1" local _destination="$2" installed_dirs+=("$_source -> $_destination") # Iterate through all files in the source directory recursively while IFS= read -r -d '' source_file; do # Construct the destination file path by removing the source directory path # and appending it to the destination directory path local _filename="${source_file#${_source}}" local destination_file="${_destination}/${source_file#${_source}}" # Create the parent directory of the destination file if it doesn't exist # Log the destination file path to the logfile #echo "$destination_file" >> "$logfile" installed_files+=($destination_file) if [[ $update_run == true ]] ; then run boxline "$scriptname: added file ${destination_file} to list" else run mkdir -p "$(dirname "$destination_file")" run cp -p ${_source}${_filename} $destination_file && boxline "Installed ${_filename}" || warn "Unable to install ${_filename}" run echo "${destination_file}" >> $rundir/installed_files.list fi done < <(find "$_source" -type f -print0) } # Utilities success(){ _line="$@" echo -e "\n" boxtop boxline "${scriptname} ${grn}SUCCESS${dfl} ${_line}" boxbottom exit 0 } warn(){ ec=$? _line="$@" echo -e "\n" boxtop boxline "${lrd}WARNING${lyl}[${ong}code=${red}$ec${lyl}]: ${_line}${dfl}" boxbottom } fail(){ ec=$? _line="$@" echo -e "\n" boxtop boxline "${lrd}FAILED${lyl}[${ong}code=${red}$ec${lyl}]: ${_line}${dfl}" boxbottom exit $ec } clone-repo(){ # git clone local _url=$1 local _destination=$2 if [ ! -z $_destination ] ; then run mkdir -p $_destination fi run git clone --recurse-submodules $_url $_destination } # Executes: grep "$1" | grep "$2" | grep "$3" | ... chained-grep(){ local pattern="$1" if [[ -z "$pattern" ]]; then cat return fi shift grep -- "$pattern" | chained-grep "$@" } # Remove leading/trailing whitespace trim(){ local var=${@:2} var="${var#"${var%%[![:space:]]*}"}" var="${var%"${var##*[![:space:]]}"}" printf '%s' "$var" } strip-html-tags(){ local input="$1" local stripped=$(echo "$input" | sed 's/<[^>]*>//g' | sed -e 's/^[[:space:]]*//' -e 's/[[:space:]]*$//') echo "$stripped" } # Retrieve and run a script from url run-from-url(){ url=$1 # boxline "url=$url" args=${*:2} # boxline "args=$args" # check the interpreter using the shebang at the top of the file interpreter=$(curl -ks $url | head -n 1 | sed -n -e 's\/\#//g' 2>/dev/null) # boxline "interpreter=$interpreter" # In case of missing shebang, default to local shells if [ -z $interpreter ] ; then if [ -x /bin/bash ] ; then interpreter="/bin/bash" elif [ -x /bin/sh ] ; then interpreter="/bin/sh" elif [ -x /bin/zsh ] ; then interpreter="/bin/zsh" fi fi logger boxline "Running online script $url with args $args" if [[ "$interpreter" == "/bin/bash" ]] ; then run curl -H 'Cache-Control: no-cache' -kLs $url | $interpreter -s -- $args else run curl -H 'Cache-Control: no-cache' -kLs $url > ${url##*/} run $interpreter ${url##*/} $args ec=$? run rm ${url##*/} fi return $ec } check-git-repository(){ repodir=${1:-$rundir} if [ -z $repodir ] ; then warn "check-git-repository() Incorrect usage. Usage: check-git-repository " return 2 fi if git -C "$repodir" rev-parse --is-inside-work-tree >/dev/null 2>&1; then echo "Directory '$repodir' is a valid Git repository." return 0 # Your script logic here else echo "Directory '$repodir' is not a valid Git repository" return 1 fi } # fancy script exits ctrl_c(){ echo -e "\n" fail "User interrupted with Ctrl-C" } # Cosmetics PRBL_LOGO=" ${ESC}[38;5;202m_!*(xL}}xvr!,.${dfl} ${ESC}[38;5;202m>}KM3${ong}nLL}}}}}LLTh${ESC}[38;5;202m%5u>.${dfl} ${ESC}[38;5;202mP${ESC}[38;5;202m8}.${dfl} ${ESC}[38;5;202m?g${ong}2!${ESC}[38;5;202m%888${ESC}[38;5;178mB${ylw}B${ESC}[38;5;178mev*${ong}${ESC}[38;5;178m***^${ong}!!!!!.L${ESC}[38;5;202mB&?${dfl} ${ESC}[38;5;202m>gF${ong}=${ESC}[38;5;202mRg8${ong}8${ylw}#5${dfl} ${ESC}[38;5;202m,${ong}^}${ESC}[38;5;202m#Be-${dfl} ${ESC}[38;5;202mPg${ong}'${ESC}[38;5;202ma88${ong}8${ylw}#B ${ESC}[38;5;202m,unnnnn}- .ZO${ong}_${ESC}[38;5;202mN${ESC}[38;5;208m#B${ESC}[38;5;202mgr${dfl} ${ESC}[38;5;202m-gZ${ong}-${ESC}[38;5;202mg88${ong}8${ylw}B, ${ESC}[38;5;202m.U88${ong}!${ESC}[38;5;202mj${ESC}[38;5;208m#B#${ESC}[38;5;202m${ESC}[38;5;202mQs.${dfl} ${ESC}[38;5;202m.NM${ong}-${ESC}[38;5;202mD88${ong}N${ylw}! .${ESC}[38;5;202mj888${ong}=${ESC}[38;5;202mX${ESC}[38;5;208mQQ${ESC}[38;5;202mQ${ong}O${ESC}[38;5;202mQQ=${dfl} ${ESC}[38;5;202m28${ong}>u${ESC}[38;5;202m8g< ${ESC}[38;5;178m,${ong}!!!!!!!!!!!!!!!!${ESC}[38;5;178m>Lp${ESC}[38;5;202mQ888K${ong},${ESC}[38;5;202mQQ${ESC}[38;5;208mg${ESC}[38;5;202my ,V>${dfl} ${ESC}[38;5;202m_OM${ong}:K${ESC}[38;5;202m? ${ylw}.&#${ong}Q${ESC}[38;5;202m88888888888888${ESC}[38;5;178m#${ylw}@@${ESC}[38;5;178m#${ESC}[38;5;202m888M${ong}:p${ESC}[38;5;202m#${ESC}[38;5;208m#Q${ESC}[38;5;202m8G! .${dfl} ${ESC}[38;5;202m,WM${ong}!.!!${ESC}[38;5;202m^p${ESC}[38;5;178m#${ylw}@@${ESC}[38;5;178m#${ong}#${ESC}[38;5;202mQ88g8888Q${ong}B${ESC}[38;5;178m#${ylw}@@${ESC}[38;5;178m#Q${ESC}[38;5;202m888e${ong}!W${ESC}[38;5;202m#${ESC}[38;5;208m####${ESC}[38;5;202mBBg2!${dfl} ${ESC}[38;5;202m.u&n${ong}^y${ESC}[38;5;202mg88${ong}8${ESC}[38;5;178mQ${ylw}##@${ESC}[38;5;178m@${ong}@${ESC}[38;5;202m@@@${ong}@${ESC}[38;5;178m@@${ylw}@#${ESC}[38;5;178mB8${ong}8${ESC}[38;5;202m88K${ong}*}${ESC}[38;5;202mQ${ESC}[38;5;208m###${ESC}[38;5;202mBQ${ong}Q${ESC}[38;5;202mQ${ESC}[38;5;208mBB${ESC}[38;5;202m##gL.${dfl} ${ESC}[38;5;202m_nD${ong}j?${ESC}[38;5;202mxmPggg${ESC}[38;5;178m8${ylw}88Q${ESC}[38;5;178mQQQ${ylw}Q8${ESC}[38;5;178m88${ong}88${ESC}[38;5;202m8Wx${ong}?z${ESC}[38;5;202mQ${ESC}[38;5;208m#########${ESC}[38;5;202mQ${ESC}[38;5;208m#${ong}@${ESC}[38;5;202mQ8Z.${dfl} ${ESC}[38;5;202m.^y${ong}Oj${ESC}[38;5;202mLLL${ESC}[38;5;208m}${ESC}[38;5;202mjP${ong}%OEOM${ESC}[38;5;202m5suLxL${ong}jQ${ESC}[38;5;202m#${ESC}[38;5;208m######${ESC}[38;5;214mQ${ESC}[38;5;208m###${ESC}[38;5;202mB88&2${ong}vvn${ESC}[38;5;202mWQ(${dfl} ${ESC}[38;5;202m.!}${ong}%QQNWKessaG%gB${ESC}[38;5;202m###${ESC}[38;5;208m########${ESC}[38;5;202mB${ESC}[38;5;214mQ@@@${ESC}[38;5;208m#${ESC}[38;5;202mR?. r<${dfl} ${ESC}[38;5;202m.!LP${ESC}[38;5;208m8B${ESC}[38;5;214m##${ESC}[38;5;202m#Q${ong}5${ESC}[38;5;202mV%8${ESC}[38;5;208mB##B88${ong}QQ${ESC}[38;5;202mB${ESC}[38;5;208m##B${ESC}[38;5;202mB${ESC}[38;5;214m#@@@@@${ong}Q${ESC}[38;5;202me?,${dfl} ${ESC}[38;5;202m_*${ESC}[38;5;208mTW${ESC}[38;5;214m#${ESC}[38;5;202mP_ !K${ESC}[38;5;208mQ${ESC}[38;5;214m#${ESC}[38;5;202m@${ong}BM^^}${ESC}[38;5;202mOB${ESC}[38;5;208m##BB#${ESC}[38;5;202m#${ESC}[38;5;214m@@@#B${ESC}[38;5;202ma<${dfl} ${ESC}[38;5;202m-${ESC}[38;5;208m<${ESC}[38;5;202m!. :j${ESC}[38;5;208mg${ESC}[38;5;214m##${ESC}[38;5;202mh: _ry${ESC}[38;5;208mW8BBB${ESC}[38;5;202mB#${ESC}[38;5;214m#@@@@@${ESC}[38;5;202m#}.${dfl} ${ESC}[38;5;202m'!?${ESC}[38;5;214mn${ESC}[38;5;202mn?=. .-_,${ong}=${ESC}[38;5;202m^x${ESC}[38;5;214mAQ#@@${ESC}[38;5;202mB>${dfl} ${ESC}[38;5;202m>s${ESC}[38;5;214mQ@${ESC}[38;5;202m@?${dfl} ${ESC}[38;5;202m_n${ESC}[38;5;214mB${ESC}[38;5;202m#,${dfl} ${ESC}[38;5;202m-hv${dfl} " prbl-logo(){ echo "${PRBL_LOGO}" } # Function for spinner status # usage: spin "command [args]" set_spinner() { case $1 in spinner1) FRAME="⠋⠙⠹⠸⠼⠴⠦⠧⠇⠏" FRAME_INTERVAL=0.05 ;; spinner2) FRAME="-\|/" FRAME_INTERVAL=0.1 ;; spinner3) FRAME="◐◓◑◒" FRAME_INTERVAL=0.2 ;; spinner4) FRAME="⇐⇖⇑⇗⇒⇘⇓⇙" FRAME_INTERVAL=0.1 ;; spinner5) FRAME="◇◈◆◈" FRAME_INTERVAL=0.2 ;; spinner6) FRAME="⚬⚭⚮⚯⚮⚭" FRAME_INTERVAL=0.15 ;; spinner7) FRAME="░▒▓█▓▒" FRAME_INTERVAL=0.2 ;; spinner8) FRAME="☉◎◉◎☉" FRAME_INTERVAL=0.1 ;; spinner9) FRAME="♡♥❤♥♡" FRAME_INTERVAL=0.15 ;; spinner10) FRAME="▁▂▃▄▅▆▇█▇▆▅▄▃▂▁" FRAME_INTERVAL=0.1 ;; spinner11) FRAME="←↖↑↗→↘↓↙" FRAME_INTERVAL=0.1 ;; spinner12) FRAME="▖▘▝▗" FRAME_INTERVAL=0.2 ;; spinner13) FRAME="▙▛▜▟" FRAME_INTERVAL=0.2 ;; spinner14) FRAME="▚▞" FRAME_INTERVAL=0.5 ;; spinner15) FRAME="☰☱☳☶☵☳☶☴☰☰" FRAME_INTERVAL=0.1 ;; spinner16) FRAME="▤▧▥▨" FRAME_INTERVAL=0.2 ;; spinner17) FRAME="▉▊▋▌▍▎▏▎▍▌▋▊▉" FRAME_INTERVAL=0.1 ;; spinner18) FRAME="⣾⣽⣻⢿⡿⣟⣯⣷" FRAME_INTERVAL=0.1 ;; spinner19) FRAME="┤┘┴└├┌┬┐" FRAME_INTERVAL=0.1 ;; *) warn "No spinner is defined for $1" esac } spin() { CMD=$@ tput civis sc=0 $CMD & _PID=$! while [ -d /proc/$_PID ] ; do for i in "${FRAME[@]}" ; do printf "\b${FRAME:sc++:1}" ((sc==${#FRAME})) && sc=0 #echo -ne "\b${FRAME[$i]}" sleep $FRAME_INTERVAL done done printf "\r\n" tput cnorm } spinstart() { sstop=false tput civis sc=0 until [[ $sstop != false ]] ; do for i in "${FRAME[@]}" ; do printf "\b${FRAME:sc++:1}" ((sc==${#FRAME})) && sc=0 #echo -ne "\b${FRAME[$i]}" sleep $FRAME_INTERVAL done done } spinstop() { export sstop=true printf "\r\n" tput cnorm } # https://github.com/fearside/ProgressBar/blob/master/progressbar.sh progress-bar() { # Process data let _progress=(${1}*100/${2}*100)/100 let _done=(${_progress}*4)/10 let _left=40-$_done # Build progressbar string lengths _done=$(printf "%${_done}s") _left=$(printf "%${_left}s") # 1.2 Build progressbar strings and print the ProgressBar line # 1.2.1 Output example: # 1.2.1.1 Progress : [########################################] 100% printf "\rProgress : [${_done// /#}${_left// /-}] ${_progress}%%" } # Menu functions # Renders a text based list of options that can be selected by the # user using up, down and enter keys and returns the chosen option. # # Arguments : list of options, maximum of 256 # "opt1" "opt2" ... # Return value: selected index (0 for opt1, 1 for opt2 ...) select_option(){ # little helpers for terminal print control and key input cursor_blink_on() { printf "$ESC[?25h"; } cursor_blink_off() { printf "$ESC[?25l"; } cursor_to() { printf "$ESC[$1;${2:-1}H"; } print_option() { printf " $1 "; } print_selected() { printf " $ESC[7m $1 $ESC[27m"; } get_cursor_row() { IFS=';' read -sdR -p $'\E[6n' ROW COL; echo ${ROW#*[}; } key_input() { read -s -n3 key 2>/dev/null >&2 if [[ $key = $ESC[A ]]; then echo up; fi if [[ $key = $ESC[B ]]; then echo down; fi if [[ $key = "" ]]; then echo enter; fi; } # initially print empty new lines (scroll down if at bottom of screen) for opt; do printf "\n"; done # determine current screen position for overwriting the options local lastrow=`get_cursor_row` local startrow=$(($lastrow - $#)) # ensure cursor and input echoing back on upon a ctrl+c during read -s trap "cursor_blink_on; stty echo; printf '\n'; exit" 2 cursor_blink_off local selected=0 while true; do # print options by overwriting the last lines local idx=0 for opt; do cursor_to $(($startrow + $idx)) if [ $idx -eq $selected ]; then print_selected "$opt" else print_option "$opt" fi ((idx++)) done # user key control case `key_input` in enter) break;; up) ((selected--)); if [ $selected -lt 0 ]; then selected=$(($# - 1)); fi;; down) ((selected++)); if [ $selected -ge $# ]; then selected=0; fi;; esac done # cursor position back to normal cursor_to $lastrow printf "\n" cursor_blink_on return $selected } # Example for above select_option #echo "Select one option using up/down keys and enter to confirm:" #echo #options=("one" "two" "three") #select_option "${options[@]}" #choice=$? #echo "Choosen index = $choice" #echo " value = ${options[$choice]}" select_opt(){ select_option "$@" 1>&2 local result=$? echo $result return $result } # Examples for above select_opt #case `select_opt "Yes" "No" "Cancel"` in # 0) echo "selected Yes";; # 1) echo "selected No";; # 2) echo "selected Cancel";; #esac #options=("Yes" "No" "${array[@]}") # join arrays to add some variable array #case `select_opt "${options[@]}"` in # 0) echo "selected Yes";; # 1) echo "selected No";; # *) echo "selected ${options[$?]}";; #esac multiselect(){ # little helpers for terminal print control and key input cursor_blink_on() { printf "$ESC[?25h"; } cursor_blink_off() { printf "$ESC[?25l"; } cursor_to() { printf "$ESC[$1;${2:-1}H"; } print_inactive() { printf "$2 $1 "; } print_active() { printf "$2 $ESC[7m $1 $ESC[27m"; } get_cursor_row() { IFS=';' read -sdR -p $'\E[6n' ROW COL; echo ${ROW#*[}; } local return_value=$1 local -n options=$2 local -n defaults=$3 local selected=() for ((i=0; i<${#options[@]}; i++)); do if [[ ${defaults[i]} = "true" ]]; then selected+=("true") else selected+=("false") fi printf "\n" done # determine current screen position for overwriting the options local lastrow=`get_cursor_row` local startrow=$(($lastrow - ${#options[@]})) # ensure cursor and input echoing back on upon a ctrl+c during read -s trap "cursor_blink_on; stty echo; printf '\n'; exit" 2 cursor_blink_off key_input() { local key IFS= read -rsn1 key 2>/dev/null >&2 if [[ $key = "" ]]; then echo enter; fi; if [[ $key = $'\x20' ]]; then echo space; fi; if [[ $key = "k" ]]; then echo up; fi; if [[ $key = "j" ]]; then echo down; fi; if [[ $key = $'\x1b' ]]; then read -rsn2 key if [[ $key = [A || $key = k ]]; then echo up; fi; if [[ $key = [B || $key = j ]]; then echo down; fi; fi } toggle_option() { local option=$1 if [[ ${selected[option]} == true ]]; then selected[option]=false else selected[option]=true fi } print_options() { # print options by overwriting the last lines local idx=0 for option in "${options[@]}"; do #local prefix="[ ]" local prefix="${gry}${deselected_opt}${dfl}" if [[ ${selected[idx]} == true ]]; then #prefix="[\e[38;5;46m✔\e[0m]" prefix="${selected_opt}" fi cursor_to $(($startrow + $idx)) if [ $idx -eq $1 ]; then print_active "$option" "$prefix" else print_inactive "$option" "$prefix" fi ((idx++)) done } local active=0 while true; do print_options $active # user key control case `key_input` in space) toggle_option $active;; enter) print_options -1; break;; up) ((active--)); if [ $active -lt 0 ]; then active=$((${#options[@]} - 1)); fi;; down) ((active++)); if [ $active -ge ${#options[@]} ]; then active=0; fi;; esac done # cursor position back to normal cursor_to $lastrow printf "\n" cursor_blink_on eval $return_value='("${selected[@]}")' } # Example for above multiselect functions #my_options=( "Option 1" "Option 2" "Option 3" ) #preselection=( "true" "true" "false" ) #multiselect result my_options preselection #idx=0 #for option in "${my_options[@]}"; do # echo -e "$option\t=> ${result[idx]}" # ((idx++)) #done ### IP validation function # returns 0 (true) for valid, 1 (false) for invalid valid-ip() { local ip=$1 local stat=1 if [[ $ip =~ ^[0-9]{1,3}\.[0-9]{1,3}\.[0-9]{1,3}\.[0-9]{1,3}$ ]]; then OIFS=$IFS IFS='.' ip=($ip) IFS=$OIFS [[ ${ip[0]} -le 255 && ${ip[1]} -le 255 \ && ${ip[2]} -le 255 && ${ip[3]} -le 255 ]] stat=$? fi return $stat } # Version comparison function # usage: # vercomp [first version] [second version] # output: # 0 = # 1 > # 2 < vercomp() { if [[ $1 == $2 ]] then return 0 fi local IFS=. local i ver1=($1) ver2=($2) # fill empty fields in ver1 with zeros for ((i=${#ver1[@]}; i<${#ver2[@]}; i++)) do ver1[i]=0 done for ((i=0; i<${#ver1[@]}; i++)) do if [[ -z ${ver2[i]} ]] then # fill empty fields in ver2 with zeros ver2[i]=0 fi if ((10#${ver1[i]} > 10#${ver2[i]})) then # version 1 is greater than version 2 return 1 fi if ((10#${ver1[i]} < 10#${ver2[i]})) then # version 1 is less than version 2 return 2 fi done return 0 } check-prbl-version(){ # TODO: Finish writing this function vercomp } compare-versions(){ vercomp $1 $2 case $? in 0) op='=';; 1) op='>';; 2) op='<';; esac if [[ $op != $3 ]] then echo "Fail: Expected '$3', Actual '$op', Arg1 '$1', Arg2 '$2'" else echo "Pass: '$1 $op $2'" fi } identify-system(){ if type lsb_release >/dev/null 2>&1; then ID=$(lsb_release -si) OS=$(lsb_release -si) VER=$(lsb_release -sr) elif [ -f /etc/os-release ]; then . /etc/os-release ID=${ID:-$VERSION_ID} ID=${ID:-$VERSION} OS=$NAME VER=$VERSION_ID VER=${VER:-$VERSION} elif [ -f /etc/lsb-release ]; then . /etc/lsb-release ID=$DISTRIB_ID OS=$DISTRIB_ID VER=$DISTRIB_RELEASE VER=${VER:-$LSB_VERSION} elif [ -f /etc/debian_version ]; then ID=debian OS=Debian VER=$(cat /etc/debian_version) elif [ -f /etc/redhat-release ]; then OS=$(awk '{print $1}' /etc/redhat-release) else OS=$(uname -s) VER=$(uname -r) fi } ID(){ boxborder \ "ID: $ID" \ "OS: $OS" \ "VER: $VER" } install-packages(){ declare -a packages=() declare -a offline_packages=() for arg in "$@"; do if [[ -f $arg ]]; then offline_packages+=("$arg") else packages+=("$arg") fi done identify-system case $ID in amzn | centos | fedora | rhel) [ "${#packages[@]}" -gt 0 ] && run sudo yum install -y "${packages[@]}" [ "${#offline_packages[@]}" -gt 0 ] && run sudo rpm -i "${packages[@]}" ;; arch | Arch | manjaro) if [ "${#packages[@]}" -gt 0 ]; then run sudo pacman -Syu run sudo pacman -S "${packages[@]}" fi [ "${#offline_packages[@]}" -gt 0 ] && run sudo pacman -U "${offline_packages[@]}" ;; debian | ubuntu | Ubuntu) if [ "${#packages[@]}" -gt 0 ]; then run sudo apt-get update run sudo apt-get install -y "${packages[@]}" fi [ "${#offline_packages[@]}" -gt 0 ] && run sudo dpkg -i "${offline_packages[@]}" ;; opensuse | sles) if [ "${#packages[@]}" -gt 0 ]; then run sudo zypper refresh run sudo zypper install "${packages[@]}" fi [ "${#offline_packages[@]}" -gt 0 ] && run sudo rpm -i "${offline_packages[@]}" ;; slackware) if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do run sudo installpkg "$package" done fi if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do run sudo installpkg "$package_file" done fi ;; brew) [ "${#packages[@]}" -gt 0 ] && run brew install "${packages[@]}" if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do run brew install "$package_file" done fi ;; esac } check-packages() { # Utilizes system package manager to check for installed packages # Declare arrays for online and offline packages declare -a packages=() declare -a offline_packages=() # Separate online and offline packages for arg in "$@"; do if [[ -f $arg ]]; then offline_packages+=("$arg") else packages+=("$arg") fi done # Identify the system identify-system # Check packages based on system type case $ID in amzn | centos | fedora | rhel) # Check online packages if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do if yum list installed "$package" >/dev/null 2>&1; then installed_version=$(yum list installed "$package" | grep "$package" | awk '{print $2}') available_version=$(yum list available "$package" | grep "$package" | awk '{print $2}') if [ "$installed_version" = "$available_version" ]; then return 0 elif [ "$installed_version" \> "$available_version" ]; then return 3 else return 1 fi else return 2 fi done fi # Check offline packages if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do if rpm -q --quiet "$package_file"; then installed_version=$(rpm -q "$package_file" --qf "%{VERSION}") return 0 else return 2 fi done fi ;; arch | Arch | manjaro) # Check online packages if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do if pacman -Q "$package" >/dev/null 2>&1; then installed_version=$(pacman -Q "$package" | awk '{print $2}') available_version=$(pacman -Si "$package" | grep "Version" | awk '{print $3}') if [ "$installed_version" = "$available_version" ]; then return 0 elif [ "$installed_version" \> "$available_version" ]; then return 3 else return 1 fi else return 2 fi done fi # Check offline packages if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do if pacman -Qp "$package_file" >/dev/null 2>&1; then installed_version=$(pacman -Qp "$package_file" | awk '{print $2}') return 0 else return 2 fi done fi ;; debian | ubuntu | Ubuntu) # Check online packages if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do if dpkg -s "$package" >/dev/null 2>&1; then installed_version=$(dpkg -s "$package" | grep -E "^Version:" | awk '{print $2}') available_version=$(apt-cache show "$package" | grep -E "^Version:" | awk '{print $2}') if [ "$installed_version" = "$available_version" ]; then return 0 elif [ "$installed_version" \> "$available_version" ]; then return 3 else return 1 fi else return 2 fi done fi # Check offline packages if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do if dpkg -I "$package_file" >/dev/null 2>&1; then installed_version=$(dpkg -I "$package_file" | grep -E "^ Version:" | awk '{print $3}') return 0 else return 2 fi done fi ;; opensuse | sles) # Check online packages if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do if zypper info "$package" >/dev/null 2>&1; then installed_version=$(zypper info "$package" | grep "Version" | awk '{print $3}') available_version=$(zypper se -i "$package" | grep "Version" | awk '{print $3}') if [ "$installed_version" = "$available_version" ]; then return 0 elif [ "$installed_version" \> "$available_version" ]; then return 3 else return 1 fi else return 2 fi done fi # Check offline packages if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do if rpm -q --quiet "$package_file"; then installed_version=$(rpm -q "$package_file" --qf "%{VERSION}") return 0 else return 2 fi done fi ;; slackware) # Check online packages if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do if slackpkg search "$package" >/dev/null 2>&1; then installed_version=$(slackpkg search "$package" | awk '{print $3}') return 0 else return 2 fi done fi # Check offline packages if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do if slackpkg search "$package_file" >/dev/null 2>&1; then installed_version=$(slackpkg search "$package_file" | awk '{print $3}') return 0 else return 2 fi done fi ;; brew) # Check online packages if [ "${#packages[@]}" -gt 0 ]; then for package in "${packages[@]}"; do if brew list "$package" >/dev/null 2>&1; then installed_version=$(brew list --versions "$package" | awk '{print $2}') available_version=$(brew info "$package" | head -n 1 | awk '{print $3}') if [ "$installed_version" = "$available_version" ]; then return 0 elif [ "$installed_version" \> "$available_version" ]; then return 3 else return 1 fi else return 2 fi done fi # Check offline packages if [ "${#offline_packages[@]}" -gt 0 ]; then for package_file in "${offline_packages[@]}"; do if brew list "$package_file" >/dev/null 2>&1; then installed_version=$(brew list --versions "$package_file" | awk '{print $2}') return 0 else return 2 fi done fi ;; esac } # Power Monitoring Functions for PRbL ################################ # Detect and query power usage from various sources # - NVIDIA GPUs via nvidia-smi # - AMD GPUs via rocm-smi # - System-wide power via RAPL (Running Average Power Limit) # - ACPI battery information # - Power supply information via hwmon ################################ # Main function to get system power information get_power_info() { # Initialize variables total_power=0 cpu_power="N/A" gpu_power="N/A" system_power="N/A" battery_power="N/A" power_sources=() power_values=() power_units=() # Try each method and collect the data get_nvidia_power get_amd_power get_rapl_power get_acpi_power get_hwmon_power # Calculate total known power if [[ "$total_power" -gt 0 ]]; then system_power="${total_power}W" fi # Return results in variables # These variables will be available after calling this function: # - system_power: Total system power if available # - cpu_power: CPU power consumption if available # - gpu_power: GPU power consumption if available # - battery_power: Battery charging/discharging rate if available # - power_sources: Array of power source names # - power_values: Array of power values (numeric) # - power_units: Array of power units (W, mW, etc.) return 0 } # Get NVIDIA GPU power information using nvidia-smi get_nvidia_power() { if command -v nvidia-smi >/dev/null 2>&1; then # Get power usage for all NVIDIA GPUs local gpu_count=$(nvidia-smi --query-gpu=count --format=csv,noheader,nounits | head -n 1) local total_gpu_power=0 # Validate that gpu_count is a number if ! [[ "$gpu_count" =~ ^[0-9]+$ ]]; then # If not a number, default to 1 gpu_count=1 fi # Iterate from 0 to (count-1), not from 0 to count for ((i=0; i<$gpu_count; i++)); do # Get power draw and power limit for this GPU local power_draw=$(nvidia-smi --query-gpu=power.draw --format=csv,noheader,nounits -i $i ) local power_limit=$(nvidia-smi --query-gpu=power.limit --format=csv,noheader,nounits -i $i ) local gpu_name=$(nvidia-smi --query-gpu=name --format=csv,noheader -i $i | cut -c -20) # Check if the value is valid (not N/A or empty) if [[ "$power_draw" != "N/A" && -n "$power_draw" ]]; then # Convert to integer watts for consistency (removing decimal) local power_int=$(printf "%.0f" "$power_draw") total_gpu_power=$((total_gpu_power + power_int)) # Add to the arrays power_sources+=("NVIDIA GPU $i ($gpu_name)") power_values+=($power_int) power_units+=("W") fi done if [[ $total_gpu_power -gt 0 ]]; then gpu_power="${total_gpu_power}W" total_power=$((total_power + total_gpu_power)) fi fi } # Get AMD GPU power information using rocm-smi get_amd_power() { if command -v rocm-smi >/dev/null 2>&1; then # Get power usage for all AMD GPUs local total_amd_power=0 # Parse the output of rocm-smi to get power readings local power_data=$(rocm-smi --showpower) # Process each line to extract power values while IFS= read -r line; do if [[ "$line" == *"Average Graphics Package Power"* ]]; then local power_val=$(echo "$line" | grep -oE '[0-9]+\.[0-9]+' | head -n1) if [[ -n "$power_val" ]]; then local power_int=$(printf "%.0f" "$power_val") total_amd_power=$((total_amd_power + power_int)) # Extract GPU ID local gpu_id=$(echo "$line" | grep -oE 'GPU\[[0-9]+\]' | grep -oE '[0-9]+') # Add to the arrays power_sources+=("AMD GPU $gpu_id") power_values+=($power_int) power_units+=("W") fi fi done <<< "$power_data" if [[ $total_amd_power -gt 0 ]]; then if [[ -n "$gpu_power" && "$gpu_power" != "N/A" ]]; then # If we already have NVIDIA GPU power, add this to it local current_power=$(echo $gpu_power | grep -oE '[0-9]+') gpu_power="$((current_power + total_amd_power))W" else gpu_power="${total_amd_power}W" fi total_power=$((total_power + total_amd_power)) fi fi } # Get CPU and memory power information using RAPL (Running Average Power Limit) get_rapl_power() { # Check if RAPL sysfs entries exist if [ -d /sys/class/powercap/intel-rapl ]; then local total_cpu_power=0 # Find all energy meters local rapl_dirs=$(find /sys/class/powercap/intel-rapl -type d -name "intel-rapl:*") for dir in $rapl_dirs; do # Check if this is a CPU package or a domain within a package local name="" if [ -f "$dir/name" ]; then name=$(cat "$dir/name") fi # Only process packages and memory controller, not subdomains like core or uncore if [[ "$name" == "package-"* || "$name" == "psys" || "$name" == "dram" ]]; then # Get microjoules over time to calculate power if [ -f "$dir/energy_uj" ]; then local start_uj=$(cat "$dir/energy_uj") sleep 0.5 local end_uj=$(cat "$dir/energy_uj") # Calculate power in watts: microjoules to watts = (end-start)/(time in microseconds) local power_w=$(echo "scale=1; ($end_uj - $start_uj) / 500000" | bc) # If microjoule counter wrapped around (rare but possible) if (( $(echo "$power_w < 0" | bc -l) )); then continue fi local power_int=$(printf "%.0f" "$power_w") # Add to total and arrays total_cpu_power=$((total_cpu_power + power_int)) power_sources+=("RAPL $name") power_values+=($power_int) power_units+=("W") fi fi done if [[ $total_cpu_power -gt 0 ]]; then cpu_power="${total_cpu_power}W" total_power=$((total_power + total_cpu_power)) fi fi } # Get battery power information from ACPI get_acpi_power() { # Check if system has a battery if [ -d /sys/class/power_supply ]; then local batteries=$(find /sys/class/power_supply -type d -name "BAT*") local total_battery_power=0 for battery in $batteries; do # Check if power information is available if [ -f "$battery/power_now" ]; then # Power now is in microwatts local power_uw=$(cat "$battery/power_now") local power_w=$(echo "scale=1; $power_uw / 1000000" | bc) local power_int=$(printf "%.0f" "$power_w") # Get battery status (charging/discharging) local status="unknown" if [ -f "$battery/status" ]; then status=$(cat "$battery/status") fi # Add to arrays local bat_name=$(basename "$battery") power_sources+=("Battery $bat_name ($status)") power_values+=($power_int) power_units+=("W") total_battery_power=$((total_battery_power + power_int)) fi done if [[ $total_battery_power -gt 0 ]]; then battery_power="${total_battery_power}W" # We don't add battery power to total_power as it might be redundant with system power fi fi } # Get power supply information from hwmon get_hwmon_power() { # Check for hwmon power information if [ -d /sys/class/hwmon ]; then for hwmon_dir in /sys/class/hwmon/hwmon*; do if [ -f "$hwmon_dir/name" ]; then local device_name=$(cat "$hwmon_dir/name") # Look for power sensors (usually in_*_input or power*_input) for power_file in "$hwmon_dir"/power*_input "$hwmon_dir"/in*_input; do if [ -f "$power_file" ]; then local label_file="${power_file/_input/_label}" local power_label="$device_name" if [ -f "$label_file" ]; then power_label=$(cat "$label_file") fi # Read the power value local power_val=$(cat "$power_file") local power_unit="mW" # Most hwmon power values are in milliwatts # Convert to watts for consistency if needed local power_w=$power_val if [[ "$power_unit" == "mW" ]]; then power_w=$(echo "scale=1; $power_val / 1000" | bc) fi local power_int=$(printf "%.0f" "$power_w") # Only include reasonable values if [[ $power_int -gt 0 && $power_int -lt 2000 ]]; then power_sources+=("PSU $power_label") power_values+=($power_int) power_units+=("W") # Don't add to total as it might double-count # total_power=$((total_power + power_int)) fi fi done fi done fi } # Format the power info for display format_power_info() { local show_details=${1:-false} if [[ "$system_power" != "N/A" || "$cpu_power" != "N/A" || "$gpu_power" != "N/A" ]]; then echo "${bld}Power Usage:${dfl}" if [[ "$system_power" != "N/A" ]]; then echo " ${bld}System:${dfl} ${ong}${system_power}${dfl}" fi if [[ "$cpu_power" != "N/A" ]]; then echo " ${bld}CPU:${dfl} ${lrd}${cpu_power}${dfl}" fi if [[ "$gpu_power" != "N/A" ]]; then echo " ${bld}GPU:${dfl} ${lrd}${gpu_power}${dfl}" fi if [[ "$battery_power" != "N/A" ]]; then echo " ${bld}Battery:${dfl} ${ylw}${battery_power}${dfl}" fi # Show detailed breakdown if requested if [[ "$show_details" == "true" && ${#power_sources[@]} -gt 0 ]]; then echo " ${bld}${unl}Power Details:${dfl}" for ((i=0; i<${#power_sources[@]}; i++)); do printf " %-25s %3d%s\n" "${power_sources[$i]}:" "${power_values[$i]}" "${power_units[$i]}" done fi return 0 else echo "${bld}Power Usage:${dfl} Not available" return 1 fi } # Test function to output all power information test_power_monitoring() { get_power_info boxborder $(format_power_info true) } # Example usage: # get_power_info # boxborder $(format_power_info) set_box_chars update_terminal_width set-boxtype