[coconParticipant]

The catch here is when you want to use a library written in C through a module, you might use pointers to call the C API (for example the OpenGL API), personally I would no find something odd about this approach.

[coconParticipant]

Perhaps using a wrapper around the C standard library might make lot sense, I find no other better.

http://www.cplusplus.com/reference/cstdlib/rand/

[coconParticipant]

Now I have created a 3D cube example.

Update 29 Nov 2016: I have fixed some odd problems with the cube and cleaned up the example.The only problem is that I get weird draw Z order in the faces of the cube.
This problem is fixed, I have declared the order of vertices in a proper manner.
The vertex declaration is from a C++ glm example, the matrix math is from OpenTK library.
I switched into using the Monogame math since it’s much lean and clean implementation.

Monkey

#Import "<mojo>" Using std.. Using mojo.. Using gles20.. Function glLoadProgram:GLuint(vertexSource:String, fragmentSource:String) Local vs := mojo.graphics.glutil.glCompile(GL_VERTEX_SHADER, vertexSource) Local fs := mojo.graphics.glutil. glCompile(GL_FRAGMENT_SHADER, fragmentSource) Local program := glCreateProgram() glAttachShader(program, vs) glAttachShader(program, fs) mojo.graphics.glutil.glLink(program) glDeleteShader(vs) glDeleteShader(fs) Return program End Function LoadShader:GLuint() Local vertex:String = " uniform mat4 Matrix; attribute vec3 Position; varying vec3 OutColor; void main() { gl_Position = Matrix * vec4(Position, 1); // Higher vertices can be yellow and lower can be red. OutColor = (Position.y < 0.0) ? vec3(1, 0, 0) : vec3(1, 1, 0); } " Local fragment:String = " varying vec3 OutColor; void main() { gl_FragColor = vec4(OutColor, 1); } " Local program := glLoadProgram(vertex, fragment) glBindAttribLocation(program, 0, "Position") Return program End Class Matrix ' Matrix class is based on Monogame math. Private Field data:Float[] = New Float[16] Public Field M11:Float, M12:Float, M13:Float, M14:Float Field M21:Float, M22:Float, M23:Float, M24:Float Field M31:Float, M32:Float, M33:Float, M34:Float Field M41:Float, M42:Float, M43:Float, M44:Float Property ToArray:Float[]() data[0] = M11 data[1] = M12 data[2] = M13 data[3] = M14 data[4] = M21 data[5] = M22 data[6] = M23 data[7] = M24 data[8] = M31 data[9] = M32 data[10] = M33 data[11] = M34 data[12] = M41 data[13] = M42 data[14] = M43 data[15] = M44 Return data End Operator*:Matrix(matrix:Matrix) Local result := New Matrix result.M11 = (Self.M11 * matrix.M11) + (Self.M12 * matrix.M21) + (Self.M13 * matrix.M31) + (Self.M14 * matrix.M41) result.M12 = (Self.M11 * matrix.M12) + (Self.M12 * matrix.M22) + (Self.M13 * matrix.M32) + (Self.M14 * matrix.M42) result.M13 = (Self.M11 * matrix.M13) + (Self.M12 * matrix.M23) + (Self.M13 * matrix.M33) + (Self.M14 * matrix.M43) result.M14 = (Self.M11 * matrix.M14) + (Self.M12 * matrix.M24) + (Self.M13 * matrix.M34) + (Self.M14 * matrix.M44) result.M21 = (Self.M21 * matrix.M11) + (Self.M22 * matrix.M21) + (Self.M23 * matrix.M31) + (Self.M24 * matrix.M41) result.M22 = (Self.M21 * matrix.M12) + (Self.M22 * matrix.M22) + (Self.M23 * matrix.M32) + (Self.M24 * matrix.M42) result.M23 = (Self.M21 * matrix.M13) + (Self.M22 * matrix.M23) + (Self.M23 * matrix.M33) + (Self.M24 * matrix.M43) result.M24 = (Self.M21 * matrix.M14) + (Self.M22 * matrix.M24) + (Self.M23 * matrix.M34) + (Self.M24 * matrix.M44) result.M31 = (Self.M31 * matrix.M11) + (Self.M32 * matrix.M21) + (Self.M33 * matrix.M31) + (Self.M34 * matrix.M41) result.M32 = (Self.M31 * matrix.M12) + (Self.M32 * matrix.M22) + (Self.M33 * matrix.M32) + (Self.M34 * matrix.M42) result.M33 = (Self.M31 * matrix.M13) + (Self.M32 * matrix.M23) + (Self.M33 * matrix.M33) + (Self.M34 * matrix.M43) result.M34 = (Self.M31 * matrix.M14) + (Self.M32 * matrix.M24) + (Self.M33 * matrix.M34) + (Self.M34 * matrix.M44) result.M41 = (Self.M41 * matrix.M11) + (Self.M42 * matrix.M21) + (Self.M43 * matrix.M31) + (Self.M44 * matrix.M41) result.M42 = (Self.M41 * matrix.M12) + (Self.M42 * matrix.M22) + (Self.M43 * matrix.M32) + (Self.M44 * matrix.M42) result.M43 = (Self.M41 * matrix.M13) + (Self.M42 * matrix.M23) + (Self.M43 * matrix.M33) + (Self.M44 * matrix.M43) result.M44 = (Self.M41 * matrix.M14) + (Self.M42 * matrix.M24) + (Self.M43 * matrix.M34) + (Self.M44 * matrix.M44) Return result End Function Identity:Matrix() Local result := New Matrix result.M11 = 1.0 result.M22 = 1.0 result.M33 = 1.0 result.M44 = 1.0 Return result End Function Translation:Matrix(x:Float, y:Float, z:Float) Local result := Identity() result.M41 = x result.M42 = y result.M43 = z Return result End Function RotateX:Matrix(angle:Float) Local cos:Float = Cast<Float>(Cos(angle)) Local sin:Float = Cast<Float>(Sin(angle)) Local result := Identity() result.M22 = cos result.M23 = sin result.M32 = -sin result.M33 = cos Return result End Function RotateY:Matrix(angle:Float) Local cos:Float = Cast<Float>(Cos(angle)) Local sin:Float = Cast<Float>(Sin(angle)) Local result := Identity() result.M11 = cos result.M13 = -sin result.M31 = sin result.M33 = cos Return result End Function Perspective:Matrix(fovy:Float, aspect:Float, near:Float, far:float) Local yMax:Float = near * Tan(0.5 * fovy) Local yMin:Float = -yMax Local xMin:Float = yMin * aspect Local xMax:Float = yMax * aspect Return Frustum(xMin, xMax, yMin, yMax, near, far) End Function Frustum:Matrix(left:Float, right:Float, bottom:Float, top:Float, near:Float, far:Float) Local invRL:Float = 1.0 / (right - left) Local invTB:Float = 1.0 / (top - bottom) Local invFN:Float = 1.0 / (far - near) Local result := New Matrix() result.M11 = 2.0 * near * invRL result.M12 = 0.0 result.M13 = 0.0 result.M14 = 0.0 result.M21 = 0.0 result.M22 = 2.0 * near * invTB result.M23 = 0.0 result.M24 = 0.0 result.M31 = (right + left) * invRL result.M32 = (top + bottom) * invTB result.M33 = -(far + near) * invFN result.M34 = -1.0 result.M41 = 0.0 result.M42 = 0.0 result.M43 = -2.0 * far * near * invFN result.M44 = 0.0 Return result End End Class MyWindow Extends GLWindow Field vbo:GLuint Field ebo:GLuint Field shader:GLuint Field elementsLength:Int Field matrixView:Matrix Field matrixProjection:Matrix Field matrixViewProjection:Matrix Field matrixUniform:Int Method _LoadShader() End Method _LoadVertexBuffer() End Method New() ' enable OpenGL states glClearColor(0.1, 0.1, 0.5, 1.0) glEnable(GL_DEPTH_TEST) glEnable(GL_CULL_FACE) ' define the shape for a cube ' ' 7_________6 ' / / Top vertices ' 4________5 ' ' 3_________2 ' / / Bottom Vertices ' 0________1 Local vertices := New Float[](-1, -1, -1, 1, -1, -1, 1, -1, 1, -1, -1, 1, -1, 1, -1, 1, 1, -1, 1, 1, 1, -1, 1, 1) Local elements := New Int[]( 4, 7, 6, 6, 5, 4, ' Top 0, 1, 2, 2, 3, 0, ' Bottom 0, 3, 7, 7, 4, 0, ' Left 1, 5, 6, 6, 2, 1, ' Right 3, 2, 6, 6, 7, 3, ' Front 0, 4, 5, 5, 1, 0) ' Back elementsLength = elements.Length ' load shader shader = LoadShader() Print("Program ID: " + shader) Print("Attribute Location: " + glGetAttribLocation(shader, "Position")) ' create vertex buffer glGenBuffers(1, Varptr vbo) glBindBuffer(GL_ARRAY_BUFFER, vbo) glBufferData(GL_ARRAY_BUFFER, vertices.Length * 4, vertices.Data, GL_STATIC_DRAW) ' create element buffer glGenBuffers(1, Varptr ebo) glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, ebo) glBufferData(GL_ELEMENT_ARRAY_BUFFER, elements.Length * 4, elements.Data, GL_STATIC_DRAW) ' create matrix stuff matrixProjection = Matrix.Perspective(Pi / 4.0, Cast<Float>(Width)/Height, 0.5, 100) matrixViewProjection = New Matrix matrixUniform = glGetUniformLocation(shader, "Matrix") End Method OnRender(canvas:mojo.graphics.Canvas) Override App.RequestRender() Super.OnRender(canvas) canvas.DrawText("Monkey2 OpenGL", 10, 10) End Method OnRenderGL() Override ' update the view projection matrix matrixView = Matrix.RotateY(App.Millisecs * -0.0005) * Matrix.RotateX(Sin(App.Millisecs*0.0001)) matrixView *= Matrix.Translation(0, 0, -5) matrixViewProjection = matrixView * matrixProjection ' use the shader and update the matrix uniform glUseProgram(shader) glUniformMatrix4fv(matrixUniform, 1, False, matrixViewProjection.ToArray.Data) ' bind the vertex buffer object and enable the vertex attributes glBindBuffer(GL_ARRAY_BUFFER, vbo) glEnableVertexAttribArray(0) glVertexAttribPointer(0, 3, GL_FLOAT, False, 0, Cast<Void Ptr>(0)) ' bind the element buffer object glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, ebo) ' finally do the drawing glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT) glDrawElements(GL_TRIANGLES, elementsLength, GL_UNSIGNED_INT, Cast<Int Ptr>(0)) End End Function Main() New AppInstance New MyWindow App.Run() End

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#Import "<mojo>" Using std.. Using mojo.. Using gles20..   Function glLoadProgram:GLuint(vertexSource:String, fragmentSource:String) Local vs := mojo.graphics.glutil.glCompile(GL_VERTEX_SHADER, vertexSource) Local fs := mojo.graphics.glutil. glCompile(GL_FRAGMENT_SHADER, fragmentSource) Local program := glCreateProgram() glAttachShader(program, vs) glAttachShader(program, fs) mojo.graphics.glutil.glLink(program) glDeleteShader(vs) glDeleteShader(fs) Return program End   Function LoadShader:GLuint() Local vertex:String = " uniform mat4 Matrix; attribute vec3 Position; varying vec3 OutColor; void main() { gl_Position = Matrix * vec4(Position, 1); // Higher vertices can be yellow and lower can be red. OutColor = (Position.y < 0.0) ? vec3(1, 0, 0) : vec3(1, 1, 0); } "   Local fragment:String = " varying vec3 OutColor; void main() { gl_FragColor = vec4(OutColor, 1); } "   Local program := glLoadProgram(vertex, fragment) glBindAttribLocation(program, 0, "Position") Return program End   Class Matrix ' Matrix class is based on Monogame math. Private Field data:Float[] = New Float[16]   Public Field M11:Float, M12:Float, M13:Float, M14:Float Field M21:Float, M22:Float, M23:Float, M24:Float Field M31:Float, M32:Float, M33:Float, M34:Float Field M41:Float, M42:Float, M43:Float, M44:Float   Property ToArray:Float[]() data[0] = M11 data[1] = M12 data[2] = M13 data[3] = M14 data[4] = M21 data[5] = M22 data[6] = M23 data[7] = M24 data[8] = M31 data[9] = M32 data[10] = M33 data[11] = M34 data[12] = M41 data[13] = M42 data[14] = M43 data[15] = M44 Return data End   Operator*:Matrix(matrix:Matrix) Local result := New Matrix   result.M11 = (Self.M11 * matrix.M11) + (Self.M12 * matrix.M21) + (Self.M13 * matrix.M31) + (Self.M14 * matrix.M41) result.M12 = (Self.M11 * matrix.M12) + (Self.M12 * matrix.M22) + (Self.M13 * matrix.M32) + (Self.M14 * matrix.M42) result.M13 = (Self.M11 * matrix.M13) + (Self.M12 * matrix.M23) + (Self.M13 * matrix.M33) + (Self.M14 * matrix.M43) result.M14 = (Self.M11 * matrix.M14) + (Self.M12 * matrix.M24) + (Self.M13 * matrix.M34) + (Self.M14 * matrix.M44)   result.M21 = (Self.M21 * matrix.M11) + (Self.M22 * matrix.M21) + (Self.M23 * matrix.M31) + (Self.M24 * matrix.M41) result.M22 = (Self.M21 * matrix.M12) + (Self.M22 * matrix.M22) + (Self.M23 * matrix.M32) + (Self.M24 * matrix.M42) result.M23 = (Self.M21 * matrix.M13) + (Self.M22 * matrix.M23) + (Self.M23 * matrix.M33) + (Self.M24 * matrix.M43) result.M24 = (Self.M21 * matrix.M14) + (Self.M22 * matrix.M24) + (Self.M23 * matrix.M34) + (Self.M24 * matrix.M44)   result.M31 = (Self.M31 * matrix.M11) + (Self.M32 * matrix.M21) + (Self.M33 * matrix.M31) + (Self.M34 * matrix.M41) result.M32 = (Self.M31 * matrix.M12) + (Self.M32 * matrix.M22) + (Self.M33 * matrix.M32) + (Self.M34 * matrix.M42) result.M33 = (Self.M31 * matrix.M13) + (Self.M32 * matrix.M23) + (Self.M33 * matrix.M33) + (Self.M34 * matrix.M43) result.M34 = (Self.M31 * matrix.M14) + (Self.M32 * matrix.M24) + (Self.M33 * matrix.M34) + (Self.M34 * matrix.M44)   result.M41 = (Self.M41 * matrix.M11) + (Self.M42 * matrix.M21) + (Self.M43 * matrix.M31) + (Self.M44 * matrix.M41) result.M42 = (Self.M41 * matrix.M12) + (Self.M42 * matrix.M22) + (Self.M43 * matrix.M32) + (Self.M44 * matrix.M42) result.M43 = (Self.M41 * matrix.M13) + (Self.M42 * matrix.M23) + (Self.M43 * matrix.M33) + (Self.M44 * matrix.M43) result.M44 = (Self.M41 * matrix.M14) + (Self.M42 * matrix.M24) + (Self.M43 * matrix.M34) + (Self.M44 * matrix.M44)   Return result End   Function Identity:Matrix() Local result := New Matrix result.M11 = 1.0 result.M22 = 1.0 result.M33 = 1.0 result.M44 = 1.0 Return result End Function Translation:Matrix(x:Float, y:Float, z:Float) Local result := Identity() result.M41 = x result.M42 = y result.M43 = z Return result End Function RotateX:Matrix(angle:Float) Local cos:Float = Cast<Float>(Cos(angle)) Local sin:Float = Cast<Float>(Sin(angle))         Local result := Identity() result.M22 = cos result.M23 = sin result.M32 = -sin result.M33 = cos Return result End Function RotateY:Matrix(angle:Float)         Local cos:Float = Cast<Float>(Cos(angle)) Local sin:Float = Cast<Float>(Sin(angle))         Local result := Identity() result.M11 =  cos result.M13 = -sin result.M31 =  sin result.M33 =  cos Return result End   Function Perspective:Matrix(fovy:Float, aspect:Float, near:Float, far:float) Local yMax:Float = near * Tan(0.5 * fovy) Local yMin:Float = -yMax Local xMin:Float = yMin * aspect Local xMax:Float = yMax * aspect Return Frustum(xMin, xMax, yMin, yMax, near, far) End Function Frustum:Matrix(left:Float, right:Float, bottom:Float, top:Float, near:Float, far:Float) Local invRL:Float = 1.0 / (right - left) Local invTB:Float = 1.0 / (top - bottom) Local invFN:Float = 1.0 / (far - near) Local result := New Matrix() result.M11 = 2.0 * near * invRL result.M12 = 0.0 result.M13 = 0.0 result.M14 = 0.0 result.M21 = 0.0 result.M22 = 2.0 * near * invTB result.M23 = 0.0 result.M24 = 0.0 result.M31 = (right + left) * invRL result.M32 = (top + bottom) * invTB result.M33 = -(far + near) * invFN result.M34 = -1.0 result.M41 = 0.0 result.M42 = 0.0 result.M43 = -2.0 * far * near * invFN result.M44 = 0.0 Return result End End   Class MyWindow Extends GLWindow Field vbo:GLuint Field ebo:GLuint Field shader:GLuint Field elementsLength:Int Field matrixView:Matrix Field matrixProjection:Matrix Field matrixViewProjection:Matrix Field matrixUniform:Int Method _LoadShader() End   Method _LoadVertexBuffer() End Method New() ' enable OpenGL states glClearColor(0.1, 0.1, 0.5, 1.0) glEnable(GL_DEPTH_TEST) glEnable(GL_CULL_FACE) ' define the shape for a cube ' '  7_________6 '  /        /    Top vertices ' 4________5 ' '  3_________2 '  /        /    Bottom Vertices ' 0________1 Local vertices := New Float[](-1, -1, -1, 1, -1, -1, 1, -1,  1, -1, -1,  1, -1,  1, -1, 1,  1, -1, 1,  1,  1, -1,  1,  1) Local elements := New Int[]( 4, 7, 6, 6, 5, 4, ' Top 0, 1, 2, 2, 3, 0, ' Bottom 0, 3, 7, 7, 4, 0, ' Left 1, 5, 6, 6, 2, 1, ' Right 3, 2, 6, 6, 7, 3, ' Front 0, 4, 5, 5, 1, 0) ' Back elementsLength = elements.Length ' load shader shader = LoadShader() Print("Program ID: " + shader) Print("Attribute Location: " + glGetAttribLocation(shader, "Position")) ' create vertex buffer glGenBuffers(1, Varptr vbo) glBindBuffer(GL_ARRAY_BUFFER, vbo) glBufferData(GL_ARRAY_BUFFER, vertices.Length * 4, vertices.Data, GL_STATIC_DRAW) ' create element buffer glGenBuffers(1, Varptr ebo) glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, ebo) glBufferData(GL_ELEMENT_ARRAY_BUFFER, elements.Length * 4, elements.Data, GL_STATIC_DRAW) ' create matrix stuff matrixProjection = Matrix.Perspective(Pi / 4.0, Cast<Float>(Width)/Height, 0.5, 100) matrixViewProjection = New Matrix matrixUniform = glGetUniformLocation(shader, "Matrix") End Method OnRender(canvas:mojo.graphics.Canvas) Override App.RequestRender() Super.OnRender(canvas) canvas.DrawText("Monkey2 OpenGL", 10, 10) End Method OnRenderGL() Override ' update the view projection matrix matrixView = Matrix.RotateY(App.Millisecs * -0.0005) * Matrix.RotateX(Sin(App.Millisecs*0.0001)) matrixView *= Matrix.Translation(0, 0, -5) matrixViewProjection = matrixView * matrixProjection ' use the shader and update the matrix uniform glUseProgram(shader) glUniformMatrix4fv(matrixUniform, 1, False, matrixViewProjection.ToArray.Data) ' bind the vertex buffer object and enable the vertex attributes glBindBuffer(GL_ARRAY_BUFFER, vbo) glEnableVertexAttribArray(0) glVertexAttribPointer(0, 3, GL_FLOAT, False, 0, Cast<Void Ptr>(0)) ' bind the element buffer object glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, ebo) ' finally do the drawing glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT) glDrawElements(GL_TRIANGLES, elementsLength, GL_UNSIGNED_INT, Cast<Int Ptr>(0)) End End   Function Main() New AppInstance New MyWindow App.Run() End

[coconParticipant]

I see that you are very good developer based on what you posted on this forum. Perhaps you can use this power to create an awesome game and donate the 10% of your earnings. It’s more challenging (because you will complete the project that way) and fair (win-2-win) in my opinion.

[coconParticipant]

Very nice stuff, currently I have in the works to create a cool 3D cube, but I have stucked a bit. I might get some ideas by your code because things get stuck.

Here I have started a thread that it will based mostly on OpenGL snippets.
http://monkey2.monkey-x.com/forums/topic/monkey2-opengl-experiments/

[coconParticipant]

Very good stuff, the battleship and cards games did well, indeed.

[coconParticipant]

Good tips, thanks to all.

[coconParticipant]

Now trying some rain effect.

Virtually, any sort of cool effects can be created here.

 

Monkey

#Import "<mojo>" Using mojo.. Using std.collections Using std.geom Using std.graphics Using std.random Class RainEffect Field rain:Vec2f[] Method Generate(width:Int, height:Int) rain = New Vec2f[100] For Local i := 0 Until rain.Length rain[i] = New Vec2f(Rnd(0, width), Rnd(0, height)) Next End Method Update(width:Int, height:Int) For Local i := 0 Until rain.Length rain[i].Y += 10 If rain[i].Y > height + 50 rain[i].Y = -50 rain[i].X = Rnd(0, width) End Next End Method Draw(canvas:Canvas) For Local i := Eachin rain canvas.DrawRect(i.X, i.Y - 25, 2, 50) Next End End Class MyWindow Extends Window Field imgCanvas:Canvas Field imgBuffer:Image Field rain:RainEffect Method New() imgBuffer = New Image(Width, Height, TextureFlags.Dynamic) imgCanvas = New Canvas(imgBuffer) imgCanvas.Color = Color.Black imgCanvas.DrawRect(0, 0, Width, Height) rain = New RainEffect rain.Generate(Width, Height) End Method OnRender(canvas:Canvas) Override imgCanvas.Color = New Color(0.1, 0.1, 0.1, 0.1) imgCanvas.DrawRect(0, 0, Width, Height) imgCanvas.Color = Color.White rain.Update(Width, Height) rain.Draw(imgCanvas) imgCanvas.Flush() canvas.DrawImage(imgBuffer, 0, 0) App.RequestRender() End End Function Main() For Local i := 0 To 1000 Rnd(1, 1000) Next New AppInstance New MyWindow App.Run() End

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#Import "<mojo>" Using mojo.. Using std.collections Using std.geom Using std.graphics Using std.random   Class RainEffect Field rain:Vec2f[] Method Generate(width:Int, height:Int) rain = New Vec2f[100] For Local i := 0 Until rain.Length rain[i] = New Vec2f(Rnd(0, width), Rnd(0, height)) Next End Method Update(width:Int, height:Int) For Local i := 0 Until rain.Length rain[i].Y += 10 If rain[i].Y > height + 50 rain[i].Y = -50 rain[i].X = Rnd(0, width) End Next End Method Draw(canvas:Canvas) For Local i := Eachin rain canvas.DrawRect(i.X, i.Y - 25, 2, 50) Next End End Class MyWindow Extends Window Field imgCanvas:Canvas Field imgBuffer:Image Field rain:RainEffect Method New() imgBuffer = New Image(Width, Height, TextureFlags.Dynamic) imgCanvas = New Canvas(imgBuffer) imgCanvas.Color = Color.Black imgCanvas.DrawRect(0, 0, Width, Height) rain = New RainEffect rain.Generate(Width, Height) End Method OnRender(canvas:Canvas) Override imgCanvas.Color = New Color(0.1, 0.1, 0.1, 0.1) imgCanvas.DrawRect(0, 0, Width, Height) imgCanvas.Color = Color.White rain.Update(Width, Height) rain.Draw(imgCanvas) imgCanvas.Flush() canvas.DrawImage(imgBuffer, 0, 0) App.RequestRender() End End Function Main() For Local i := 0 To 1000 Rnd(1, 1000) Next   New AppInstance New MyWindow App.Run() End

[coconParticipant]

Is it like? SeedRnd(Millisecs())

However I don’t know if you type it on Main function the application elapsed milliseconds would be 0, perhaps on somewhere else like loading a new scene or level initialization might make sense better, right?

[coconParticipant]

 

By design it’s impossible to do that, however there are clever workarounds. Wine is such clever workaround. I don’t know if there’s other alternative.

The most standard one is going for the “automated builds” (you would write a Python script to execute shell commands). Once you run various virtual machines and let them do daily builds you might suffer less from manual effort.

[coconParticipant]

It will be a good idea, won’t hurt to post it. Can you make a huge image (i.e. 1500×1500) that explains it?

 

Generally I use “gihub for windows” but I consider switching to sourcetree, lots of people like this one.

[coconParticipant]

Doing some tests…

Monkey

#Import "<std>" Using std.. Struct Test Private Field value:Float End Struct Test Extension ' Mutator methods are allowed. Method SetValue(v:Float) value = v End ' Accessor methods are allowed. Method GetValue:Float() Return value End ' Properties are not allowed. 'Property GetSomething:String() ' Return "Hello" 'End End Function Main() Local a := New Test a.SetValue(100) Print(a.GetValue()) End

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#Import "<std>" Using std..   Struct Test Private Field value:Float End   Struct Test Extension ' Mutator methods are allowed. Method SetValue(v:Float) value = v End   ' Accessor methods are allowed. Method GetValue:Float() Return value End ' Properties are not allowed. 'Property GetSomething:String() ' Return "Hello" 'End End   Function Main() Local a := New Test a.SetValue(100) Print(a.GetValue()) End

[coconParticipant]

Now that you mention it, a snippets sub forum (not projects) might be a good idea.

[coconParticipant]

Awesome stuff, this could be actually very interesting for general purpose usage.

[coconParticipant]

Very interesting, how about trying some old school effects?

I would not mind if there’s serious pixel pushing.

[Author]

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