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Games with 3D graphics must have objects that move in the way you would expect them to in the real world. Sometimes it is enough that objects move in a plausible way to create the illusion of depth. Listing 8-1 is an example of how movement alone can create visuals with an apparent third dimension. Listing 8-1. Illusion of Depth (parallaxstars.py) import pygame from pygame.locals import * from random import randint class Star(object): def __init__(self, x, y, speed): self.x = x self.y = y self.speed = speed

This class provides the functionality for XML nodes that can contain other nodes. This class represents the XML document as a whole. This class represents an element in the XML document; that is, it represents a regular XML node that can be a tag (such as<myTag />) or can contain other tags or an attribute, such as myAttribute="myVal". This class represents a document type tag. This class represents a processing instruction, which is a tag of the form < name instruction >. This class represents text contained within the XML document. This class represents the name of a tag or an attribute.

Note Due to the restrictive nature of getting specific information concerning DSDM, it is not possible to

def run(): pygame.init() screen = pygame.display.set_mode((640, 480), FULLSCREEN) stars = [] # Add a few stars for the first frame for n in xrange(200): x = float(randint(0, 639)) y = float(randint(0, 479)) speed = float(randint(10, 300)) stars.append( Star(x, y, speed) ) clock = pygame.time.Clock() white = (255, 255, 255) while True: for event in pygame.event.get(): if event.type == QUIT: return if event.type == KEYDOWN: return

You can see this object model in action by revising the example from the previous section to output XML instead of plain text. LINQ to XML makes this easy to do; begin by modifying the select statement to return an XElement instead of a tuple: |> select (fun m -> new XElement(XName.Get(m.Key), count m)) This gives you an array of XElements that you can then use to initialize another XElement, which provides the root of the document. At that point, it is a simple matter of calling the root XElement s ToString method, which will provide the XML in the form of a string: open open open open System System.Linq System.Reflection System.Xml.Linq

return product; } public static ArrayList SearchForProducts(string searchString) { ArrayList products = new ArrayList(); try { OdbcConnection dataConnection = new OdbcConnection(); dataConnection.ConnectionString = DataUtilities.ConnectionString; dataConnection.Open(); OdbcCommand dataCommand = new OdbcCommand(); dataCommand.Connection = dataConnection; // Build command string StringBuilder commandText = new StringBuilder("SELECT * FROM Products WHERE ProductName LIKE '%'); commandText.Append(searchString); commandText.Append("%'"); dataCommand.CommandText = commandText.ToString(); OdbcDataReader dataReader = dataCommand.ExecuteReader(); while (dataReader.Read()) { product = new Product(); product.ProductID = dataReader.GetInt32(0); product.ProductName = dataReader.GetString(1); product.CategoryID = dataReader.GetInt32(3); product.Price = dataReader.GetDecimal(5); product.Quantity = dataReader.GetInt16(6); products.Add(product); } dataConnection.Close(); } catch (Exception e) { Console.WriteLine("Error: " + e.Message); } return products; }

The types of these two identifiers are unsurprising string and int, respectively. The syntax used by the compiler to describe them is fairly straightforward: the keyword val (meaning value ) and then the identifier, a colon, and finally the type. The definition of the function makeMessage in the next example is a little more interesting. let makeMessage x = (Printf.sprintf "%i" x) + " days to spring time" let half x = x / 2 val makeMessage : int -> string val half : int -> int Note that the makeMessage function s definition is prefixed with the keyword val, just like the two values you saw before; even though it is a function, the F# compiler still considers it to be a value. Also, the type itself uses the notation int -> string, meaning a function that takes an integer and returns a string. The -> between the type names (an ASCII arrow, or just arrow) represents the transformation of the function being applied. The arrow represents a transformation of the value, but not necessarily the type, because it can represent a function that transforms a value into a value of the same type, as shown in the half function on the second line. The types of functions that can be partially applied and functions that take tuples differ. The following functions, div1 and div2, illustrate this.