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The effect on the audio is more interesting than previously because the balance of sound changes between the left and right ears (the left and right speakers). FancyPants is initially loudest for the right ear/speaker (when the listener s angle is 0). As the listener turns, the volume decreases in the right ear and increases in the left, until at 90 degrees the sound is the same from both speakers. As the listener continues turning toward 180 degrees, the sound in the right ear decreases almost to nothing and becomes louder in the left ear. At 180 degrees, the left ear is nearest to the source and the sound is at its loudest there. Thereafter, the volume starts increasing again in the right ear. At 270 degrees, the listener is facing the source, and the sound has the same volume from both speakers once again. After that, the left speaker gets quieter until the listener returns to its starting orientation at 360 degrees. The following is the main() function of TurningListener.java: public static void main(String[] args) { if (args.length != 1) { System.out.println("Usage: runJOAL TurningListener <WAV name>"); System.exit(1); } String soundName = args[0]; JOALSoundMan soundMan = new JOALSoundMan(); // the listener is at (0,0,0) facing along the negative z-axis soundMan.moveListener(1,0); // now at (1,0,0) if (!soundMan.load(soundName, 2,0,0, true)) System.exit(1); soundMan.play(soundName); // at (2,0,0)

Note There is a substantial difference between the way records are written to the general query log

Figure 4 2. Testing hit points against a rotated scaled sprite Having arranged the points as shown in Figure 4 2(b), we can now perform a simple check to see whether each point is within the left-right and top-bottom boundaries, just as we did with the bounding box test. This is a very simple calculation and gives us exactly the results we are looking for. The code to perform this check is fairly straightforward. The main focus of the calculation is to perform the rotation of the test point around the rectangle s origin. We don t need to actually perform any calculation on the rectangle at all; we just need to rotate the points and then check them against the rectangle s unrotated width and height, which is already returned to us from the BoundingBox property. When we rotate a point in space, it always rotates around the origin the point at coordinate (0, 0). If we want to rotate around the rectangle s origin, we therefore need to find the distance from the rectangle origin to the test point. The calculation can then be performed in coordinates relative to the rectangle, not the screen. We can do this simply by subtracting the origin position from the test point position, as shown in Figure 4 3. In Figure 4 3(a), we see the coordinates specified as screen coordinates the actual pixel position on the screen that forms the origin of the rectangle and the user s touch points. In Figure 4 3(b), these coordinates are specified relative to the rectangle origin. As you can see, this has simply subtracted 200 from the x values and 100 from the y values because they are the rectangle s origin coordinate.

// rotate listener anticlockwise for(int i=0; i < 60; i++) { soundMan.turnListener(6); // 6 degrees each time try { Thread.sleep(250); // sleep for 0.25 secs } catch(InterruptedException ex) {} } soundMan.cleanUp(); } // end of main() The only new coding feature here is the call to JOALSoundMan.turnListener() inside the loop.

versus the binary log. Commands are recorded in the general query log in the order they are received by the server. Commands are recorded in the binary log in the order in which they are executed by the server. This variance exists because of the different purposes of the two logs. While the general query log serves as an information repository for investigating the activity on the server, the binary log s primary purpose is to provide an accurate recovery method for the server. Because of this, the binary log must write records in execution order so that the recovery process can rely on the database s state being restored properly.

(a) Screen coordinates Rectangle origin (200, 100)