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Coarse WDM (CWDM) is a form of WDM that is targeted for costsensitive carriers with smaller metro-edge reach requirements Specifically, CWDM uses much wider channel spacing, typically 20 nm, and precludes the need for costly EDFA amplifiers In fact, the CWDM grid (ITU-T G6942) spans the entire SMF spectrum, as shown previously in Figure 82, and supports much smaller channel counts, typically about 16 32 per fiber The main cost savings of this technology comes from its use of low-power/wider-line-width (uncooled) laser sources and lower-cost coarse filtering devices These laser types mitigate center-wavelength temperature drift and allow unamplified transmissions up to 40 km In general, CWDM is very cost effective for client interface speeds under OC-48/ STM-16 (25 Gbps), and hence this technology makes sense for Gigabit Ethernet services Alternatively, faster 10 Gigabit CWDM transceivers are also available but offer less cost reduction than their DWDM counterparts Moreover, the larger economies of scale in the DWDM market will, over time, erode the first-cost advantage of CWDM [3] Finally,

upper left */ coordinates */ lower right */ coordinates */ current attributes */ normal attributes */ active video mode */ screen */ dimensions */ current X and */ Y cursor location */

struct text_info i; gettextinfo(&i);

Much of this code is unchanged from our last implementation. But, we are doing a few things differently. First, we re getting rid of any existing Visuals each time the method is called b. Unlike with a Shape, we can t change the properties of an existing Visual. We create a new DrawingVisual for each NameValuePair c. This Visual is what will eventually get rendered for each bar. We could put all the bars into a single Visual, but if we did that, then we wouldn t be able to tell them apart for things like click-handling. To draw into the DrawingVisual, we have to get a DrawingContext, which we get by calling RenderOpen(). Note that we re making use of a using statement here d; it makes sure that visual.Close() is called when we re done. We could have easily called that method explicitly, but this approach is a little safer and more elegant. We then draw our Column onto the DrawingContext e. Finally, we add our new DrawingVisual to our collection of Children f. Note that we don t have to do anything special to make the Visual redraw itself. When the VisualCollection is

textmode( )

12

void gotoxy(int x, int y)

updated, it automatically handles that for us. We re also storing a reference to the DrawingVisual in the NameValuePair g so that we can use it for hit testing later. We need to do one more thing to our control we need to make sure that our display is appropriately updated when it s resized. To do that, we subscribe to the SizeChanged event, which we can do in the constructor.

The prototype for gotoxy( ) is in <conioh> The gotoxy( ) function sends the text screen cursor to the location specified by x,y If either or both of the coordinates are invalid, no action takes place

This program prints Xs diagonally across the screen:

each station varies slightly from the network data rate In the case of a station transmitting at a slower data rate than the preceding station, this could cause PTQ overflow The idle shaper performs an optional transmit rate synchronization function that eliminates the possibility of PTQ overflow by inserting a variable number of small idle frames in the transmitted data stream The transmit rate synchronization function is part of the MAC datapath The transmit rate synchronization function supports PHYs with data rate clock tolerances of up to 100 ppm The idle shaper limits the MAC-supplied idle traffic to its allocated limits Idle frames are inserted into the transmit datapath at a fixed rate equivalent to 005% of the line rate The rate of inserted idle frames is controlled by the level of the PTQ As the queue fills, the free space becomes less than the idleThreshold value At this threshold, the idle frame rate reduces to 0025% of the line rate, which increases the transmit data rate, which eventually reduces the queue depth Figure 1217 shows a numerical example of the idle shaper operation The idle shaper may optionally be implemented If the idle shaper is not implemented, then no idle frames are generated Idle frames are always discarded by the neighbor station receiving them

SizeChanged += new SizeChangedEventHandler(OnSizeChanged);

#include <conioh> int main(void) { register int i, j;

clrscr(); /* print diagonal Xs */ for(i=1, j=1; j<24; i+=3, j++) { gotoxy(i, j); cprintf("X"); } getche(); clrscr(); return 0; }