Repository: alacritty/alacritty
File: alacritty/src/renderer/text/builtin_font.rs (Rust)

Code before:
                let color_1 = Pixel::gray(((1. - intery.fract()) * COLOR_FILL._r as f32) as u8);
                let color_2 = Pixel::gray((intery.fract() * COLOR_FILL._r as f32) as u8);
                self.put_pixel(intery.trunc(), x as f32, color_1);
                self.put_pixel(intery.trunc() + 1., x as f32, color_2);
                intery += gradient;
            }
        } else {
            for x in xpxl1 as i32 + 1..xpxl2 as i32 {
                let color_1 = Pixel::gray(((1. - intery.fract()) * COLOR_FILL._r as f32) as u8);
                let color_2 = Pixel::gray((intery.fract() * COLOR_FILL._r as f32) as u8);
                self.put_pixel(x as f32, intery.trunc(), color_1);
                self.put_pixel(x as f32, intery.trunc() + 1., color_2);
                intery += gradient;
            }
        }
    }

    /// Draws a quarter of a circle centered in `(0., self.height - radius)` with radius
    /// `self.width` and an attached rectangle to form a "╭" using a given `stroke_size` in the
    /// bottom-right quadrant of the `Canvas` coordinate system.
    fn draw_rounded_corner(&mut self, stroke_size: usize) {
        let r = (self.width.min(self.height) + stroke_size) as f32 / 2.;
        let w = stroke_size as f32;

        let bigger = self.width.max(self.height);
        let smaller = self.width.min(self.height);

        let d_bias = if smaller % 2 == stroke_size % 2 { 0. } else { 0.5 };

        let mut x_offset = 0.;
        let mut y_offset = 0.;
        let offset = {
            let mut offset = bigger as f32 / 2. - r + w / 2.;
            if (self.width % 2 != self.height % 2) && (bigger % 2 == stroke_size % 2) {
                offset += 1.;
            }
            offset
        };
        if self.height > self.width {
            y_offset = offset;
        } else {
            x_offset = offset;
        }

        let radius_i = (self.width.min(self.height) + stroke_size + 1) / 2;
        for y in 0..radius_i {
            for x in 0..radius_i {
                let y = y as f32;
                let x = x as f32;
                let d = (x * x + y * y).sqrt() + d_bias;
                let v = if d < r - w - 1. {

Review comment (suggestion):
```suggestion
        let short_side = self.width.min(self.height);
```

Code after:
                let color_1 = Pixel::gray(((1. - intery.fract()) * COLOR_FILL._r as f32) as u8);
                let color_2 = Pixel::gray((intery.fract() * COLOR_FILL._r as f32) as u8);
                self.put_pixel(intery.trunc(), x as f32, color_1);
                self.put_pixel(intery.trunc() + 1., x as f32, color_2);
                intery += gradient;
            }
        } else {
            for x in xpxl1 as i32 + 1..xpxl2 as i32 {
                let color_1 = Pixel::gray(((1. - intery.fract()) * COLOR_FILL._r as f32) as u8);
                let color_2 = Pixel::gray((intery.fract() * COLOR_FILL._r as f32) as u8);
                self.put_pixel(x as f32, intery.trunc(), color_1);
                self.put_pixel(x as f32, intery.trunc() + 1., color_2);
                intery += gradient;
            }
        }
    }

    /// Draws a quarter of a circle centered in `(0., self.height - radius)` with radius
    /// `self.width` and an attached rectangle to form a "╭" using a given `stroke_size` in the
    /// bottom-right quadrant of the `Canvas` coordinate system.
    fn draw_rounded_corner(&mut self, stroke_size: usize) {
        let radius = (self.width.min(self.height) + stroke_size) as f32 / 2.;
        let stroke_size_f = stroke_size as f32;

        let mut x_offset = 0.;
        let mut y_offset = 0.;
        let (long_side, short_side, offset) = if self.height > self.width {
            (&self.height, &self.width, &mut y_offset)
        } else {
            (&self.width, &self.height, &mut x_offset)
        };
        let distance_bias = if short_side % 2 == stroke_size % 2 { 0. } else { 0.5 };
        *offset = *long_side as f32 / 2. - radius + stroke_size_f / 2.;
        if (self.width % 2 != self.height % 2) && (long_side % 2 == stroke_size % 2) {
            *offset += 1.;
        }

        let radius_i = (short_side + stroke_size + 1) / 2;
        for y in 0..radius_i {
            for x in 0..radius_i {
                let y = y as f32;
                let x = x as f32;
                let distance = x.hypot(y) + distance_bias;
                let value = if distance < radius - stroke_size_f - 1. {
                    // Inside the circle.
                    0.
                } else if distance < radius - stroke_size_f {
                    // On the inner border.
                    1. + distance - (radius - stroke_size_f)
                } else if distance < radius - 1. {
                    // Inside the stroke.