diff --git a/addons/ShaderLib_v2_2_4/Procedural/Noise/Voronoi.gd b/addons/ShaderLib_v2_2_4/Procedural/Noise/Voronoi.gd
index 0ccdec2..7607946 100644
--- a/addons/ShaderLib_v2_2_4/Procedural/Noise/Voronoi.gd
+++ b/addons/ShaderLib_v2_2_4/Procedural/Noise/Voronoi.gd
@@ -1,9 +1,6 @@
 @tool
 class_name VisualShaderNodeProceduralVoronoi extends ShaderLib
 
-func _init() -> void:
-	output_port_for_preview = 0
-
 func _get_name() -> String:
 	return "Voronoi"
 
@@ -63,7 +60,7 @@ func _get_input_port_default_value(port: int) -> Variant:
 				2:
 					return 2.0
 				3:
-					return 2.0
+					return 5.0
 				_:
 					return null
 		_:
@@ -113,13 +110,15 @@ func _get_code(input_vars: Array[String], output_vars: Array[String], mode: Shad
 
 	var cell_density: String = input_vars[1]
 	var angle_offset: String = input_vars[2]
-	var chebyshev_power: String = "0."
-
-	if distance_index == 2:
-		if input_vars[3]:
-			chebyshev_power = input_vars[3]
 
 	var output: String = output_vars[0]
 	var cells: String = output_vars[1]
 
-	return "voronoi_noise(%s, %s, %s, %s, %s, %s, %s);" % [uv, cell_density, angle_offset, distance_index, chebyshev_power, output, cells]
+	match distance_index:
+		1:
+			return "%s = voronoi_noise_manhattan(%s, %s, %s, %s);" % [output, uv, cell_density, angle_offset, cells]
+		2:
+			var chebyshev_power: String = input_vars[3]
+			return "%s = voronoi_noise_chebyshev(%s, %s, %s, %s, %s);" % [output, uv, cell_density, angle_offset, chebyshev_power, cells]
+		_:
+			return "%s = voronoi_noise_euclidean(%s, %s, %s, %s);" % [output, uv, cell_density, angle_offset, cells]
diff --git a/addons/ShaderLib_v2_2_4/Procedural/Procedural.gdshaderinc b/addons/ShaderLib_v2_2_4/Procedural/Procedural.gdshaderinc
index 6263de2..1ca1bdc 100644
--- a/addons/ShaderLib_v2_2_4/Procedural/Procedural.gdshaderinc
+++ b/addons/ShaderLib_v2_2_4/Procedural/Procedural.gdshaderinc
@@ -130,7 +130,7 @@ vec2 voronoi_random_vector(vec2 p) {
 	return fract(sin(p * matrix) * 46839.32);
 }
 
-void voronoi_noise(vec2 uv, float cell_density, float angle_offset, int distance_index, float chebyshev_power, out float output, out float cells){
+float voronoi_noise_euclidean(vec2 uv, float cell_density, float angle_offset, out float cells){
 	vec2 grid_uv = fract(uv * cell_density);
 	vec2 grid_id = floor(uv * cell_density);
 	vec2 cell_id = vec2(0);
@@ -142,18 +142,31 @@ void voronoi_noise(vec2 uv, float cell_density, float angle_offset, int distance
 			vec2 n = voronoi_random_vector(grid_id + offset);
 			vec2 p = offset + vec2(sin(n.x + angle_offset) * .5 + .5, cos(n.y + angle_offset) * .5 + .5);
 			float d = min_dist;
-
-			switch(distance_index){
-				case 1:
-					d = manhattan_distance_2d(grid_uv, p);
-					break;
-				case 2:
-					d = chebyshev_distance_2d(grid_uv, p, chebyshev_power);
-					break;
-				default:
-					d = distance(grid_uv, p);
-					break;
+			d = distance(grid_uv, p);
+			if(d < min_dist) {
+				min_dist = d;
+				cell_id = voronoi_random_vector(grid_id + offset);
 			}
+		}
+	}
+
+	cells = cell_id.y;
+	return min_dist;
+}
+
+float voronoi_noise_manhattan(vec2 uv, float cell_density, float angle_offset, out float cells){
+	vec2 grid_uv = fract(uv * cell_density);
+	vec2 grid_id = floor(uv * cell_density);
+	vec2 cell_id = vec2(0);
+	float min_dist = 100.;
+
+	for(float y = -1.; y <= 1.; y++) {
+		for(float x = -1.; x <= 1.; x++) {
+			vec2 offset = vec2(x, y);
+			vec2 n = voronoi_random_vector(grid_id + offset);
+			vec2 p = offset + vec2(sin(n.x + angle_offset) * .5 + .5, cos(n.y + angle_offset) * .5 + .5);
+			float d = min_dist;
+			d = manhattan_distance_2d(grid_uv, p);
 
 			if(d < min_dist) {
 				min_dist = d;
@@ -162,8 +175,33 @@ void voronoi_noise(vec2 uv, float cell_density, float angle_offset, int distance
 		}
 	}
 
-	output = min_dist;
 	cells = cell_id.y;
+	return min_dist;
+}
+
+float voronoi_noise_chebyshev(vec2 uv, float cell_density, float angle_offset, float chebyshev_power, out float cells){
+	vec2 grid_uv = fract(uv * cell_density);
+	vec2 grid_id = floor(uv * cell_density);
+	vec2 cell_id = vec2(0);
+	float min_dist = 100.;
+
+	for(float y = -1.; y <= 1.; y++) {
+		for(float x = -1.; x <= 1.; x++) {
+			vec2 offset = vec2(x, y);
+			vec2 n = voronoi_random_vector(grid_id + offset);
+			vec2 p = offset + vec2(sin(n.x + angle_offset) * .5 + .5, cos(n.y + angle_offset) * .5 + .5);
+			float d = min_dist;
+			d = chebyshev_distance_2d(grid_uv, p, chebyshev_power);
+
+			if(d < min_dist) {
+				min_dist = d;
+				cell_id = voronoi_random_vector(grid_id + offset);
+			}
+		}
+	}
+
+	cells = cell_id.y;
+	return min_dist;
 }
 
 float ellipse_shape(vec2 uv, float width, float height) {
diff --git a/documentation/Nodes/Procedural/Noise/Voronoi.md b/documentation/Nodes/Procedural/Noise/Voronoi.md
index 9099384..6d1a212 100644
--- a/documentation/Nodes/Procedural/Noise/Voronoi.md
+++ b/documentation/Nodes/Procedural/Noise/Voronoi.md
@@ -25,7 +25,9 @@ Generates a Voronoi or Worley noise based on input UV. Voronoi noise is generate
 <br>`res://addons/ShaderLib/Procedural/Procedural.gdshaderinc`
 
 **Method signature**
-<br>`void voronoi_noise(vec2 uv, float cell_density, float angle_offset, int distance_index, float chebyshev_power, out float output, out float cells)`
+<br>`float voronoi_noise_euclidean(vec2 uv, float cell_density, float angle_offset, out float cells)`
+<br>`float voronoi_noise_manhattan(vec2 uv, float cell_density, float angle_offset, out float cells)`
+<br>`float voronoi_noise_chebyshev(vec2 uv, float cell_density, float angle_offset, float chebyshev_power, out float cells)`
 
 **Parameters**
 |Name|Type|Description|
@@ -33,8 +35,6 @@ Generates a Voronoi or Worley noise based on input UV. Voronoi noise is generate
 |uv|vec2|Input UV value|
 |cell_density|float|Density of generated cells|
 |angle_offset|float|Offset values for points|
-|distance_index|int|Distance matrix to use for Voronoi, 0 = Euclidean, 1 = Manhattan, 2 = Chebyshev|
 |chebyshev_power|float|Power for Chebyshev distance|
-|output|out float|Output noise value|
 |cells|out float|Output raw cell data|
 ___
\ No newline at end of file