This project provides a tool to convert formatted function names in .v.ffn
files to standard function names in V. It also includes functionality to watch files or directories for changes and automatically convert them.
These formatted function names are useful for writing more readable code and makes it easier to understand give good names to functions.
- Convert formatted function names in
.v.ffn
files to standard function names. - Watch files or directories for changes and automatically convert them.
To use the tool from the command line, run:
ffn [--watch] <file_or_directory1> <file_or_directory2> ...
--watch
: Optional flag to watch the specified files or directories for changes.<file_or_directory>
: One or more files or directories to convert.
To build the project from source, just run:
v . -prod
Convert a single file:
ffn examples/test_file.v.ffn
Convert all files in a directory:
ffn examples/
Watch a file for changes:
ffn --watch examples/test_file.v.ffn
Watch a directory for changes:
ffn --watch examples/
module examples
fn abs(x int) int {
if x < 0 {
return -x
}
return x
}
fn draw_point_at_{x}_{y}_in_{color}(x int, y int, color string) {
println('Drawing point at (${x}, ${y}) with color ${color}')
}
fn draw_line_from_{x1}_{y1}_to_{x2}_{y2}_in_{color}(x1 int, y1 int, x2 int, y2 int, color string) {
dx := x2 - x1
dy := y2 - y1
steps := if abs(dx) > abs(dy) {abs(dx)} else { abs(dy) }
if steps == 0 {
draw_point_at_{x1}_{y1}_in_{color}()
return
}
x_increment := dx / steps
y_increment := dy / steps
mut x := x1
mut y := y1
for _ in 0..steps {
draw_point_at_x_y_in_color(int(x), int(y), color)
x = x + x_increment
y = y + y_increment
}
}
fn main() {
draw_line_from_{0}_{0}_to_{10}_{10}_in_{'red'}()
}
module examples
fn abs(x int) int {
if x < 0 {
return -x
}
return x
}
fn draw_point_at_x_y_in_color(x int, y int, color string) {
println('Drawing point at (${x}, ${y}) with color ${color}')
}
fn draw_line_from_x1_y1_to_x2_y2_in_color(x1 int, y1 int, x2 int, y2 int, color string) {
dx := x2 - x1
dy := x2 - y1
steps := if abs(dx) > abs(dy) { abs(dx) } else { abs(dy) }
if steps == 0 {
draw_point_at_x_y_in_color(x1, y1, color)
return
}
x_increment := dx / steps
y_increment := dy / steps
mut x := x1
mut y := y1
for _ in 0 .. steps {
draw_point_at_x_y_in_color(int(x), int(y), color)
x = x + x_increment
y = y + y_increment
}
}
fn main() {
draw_line_from_x1_y1_to_x2_y2_in_color(0, 0, 10, 10, 'red')
}
This project is licensed under the MIT License.