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Getting back to the example file, the positions of the orbs are now in a two-dimensional array called _orbPositions. The example file also uses another array, simply called _orbs, to store the orb shapes. The next job is to create the orbs and add them to the stage in the correct positions on the map. The orbs are positioned with a for loop. We can assume that we need one orb for each of the four map positions. That means we can use the _orbPosition array s length property to determine how many orbs to make. This is really handy, because if we ever add more positions to the _orbPosition array, new orbs will be automatically created and added to the stage without us needing to change any other code. for(var i:int = 0; i < _orbPositions.length; i++) { //Create the orb Shape var orb:Shape = new Shape(); // draw the shape and add filters //Add the shape to the _orbs array _orbs.push(orb); //Add the orb to the stage addChild(orb); //Set //the orb.x orb.y } For each orb, we also need a corresponding marker to show its position on the mini-map. These map markers are just little square shapes made with the drawing API. An array called _mapMarkers stores them. We can again use the _orbPosition array s length property to figure out how many of them to make. This is the loop that creates the map markers, pushes them into the _mapMarkers array, adds them to the stage, and positions them on the map: for(var j:int = 0; j < _orbPositions.length; j++) { //Create the marker shape var mapMarker:Shape = new Shape(); // draw the shape the initial orb two-dimensional = _caveBitmap.x = _caveBitmap.y positions using the values from array + _orbPositions[i][0]; + _orbPositions[i][1];

The solution for the identification problem is to use a transaction identifier In the activity diagram, the concept of the transaction identifier is not illustrated It is not illustrated because the transaction identifier is a piece of information in the generated structure The transaction identifier is generated by the client, sent to the server, sent to the executing task, and sent to any generated result Then when the client receives a result, the client can associate the sent transaction identifier with a received transaction identifier Thus the client can decipher which text box a result is destined for From the perspective of the server, the transaction identifier is a black box and not processed Combining the actions, activity diagram, and other details, the implementation of the Infinite Data pattern involves three major pieces: HTML client, task manager, and task implementation.

Figure 12-1. Validator class diagram The Validator class contains an overloaded method called Validate. The purpose of the Validate method is to validate a given object and determine whether or not it passes validation based on the rules of the validator. This method contains two overloaded signatures, as shown in Figure 12-1. The first signature will create a ValidationResults object for you and return it back to the caller. The second method expects an instance of the ValidationResults class to be passed in as one of the method parameters. Both overloads require an object that is to be validated to be passed in as well. The Validator class also contains two public properties that are used to define how and what will be logged in the ValidationResults collection: MessageTemplate and Tag. The MessageTemplate property defines a template that will be used to create a message in the event a ValidationResult object is created. The Tag property is used to filter or categorize a particular validation result.

//Push the shape into the _orbMarkers array _orbMarkers.push(mapMarker); //Add the marker to the stage addChild(mapMarker); //Position the marker on the map mapMarker.x = _mapBitmap.x + ((-_caveBitmap.x + _orbs[j].x) * 0.04); mapMarker.y = _mapBitmap.y + ((-_caveBitmap.y + _orbs[j].y) * 0.04); } The orbs and map markers are now on the stage in the correct positions. The next job is to scroll the orbs so that they stay synchronized with the background.

The HTML client is used to send and receive the structures The task manager is responsible for creating the task data, managing the tasks, and managing the results The task implementation is the application logic, which in the case of this chapter is the prime number calculation and is responsible for the task data association and results generation..