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public event EventHandler<MyEventArgs> SomeEvent;

Calendar_year_lookupYr=Agg_yr_qt_mt_mn_wk_rg_cy_sn_sr_qt_maYr AND Calendar_year_lookupWeek_In_Year=Agg_yr_qt_mt_mn_wk_rg_cy_sn_sr_qt_maWk

In general, it is better to use this approach rather than defining your own delegate For many events, the EventArgs parameter is unused To help facilitate the creation of code in these situations, the NET Framework includes a non-generic delegate called EventHandler, which can be used to declare event handlers in which no extra information is needed Here is an example that uses EventHandler:

stress raisers Incipient cracks emanate from these inclusions and enlarge and propagate under repeated stresses, forming a network of cracks that develops into a fatigue spall or pit Inclusion location with respect to the maximum shear stress is of primary importance, as are size and orientation 1071 Melting Practice Both suf cient data and practical experience exist which indicate that the use of vacuummelted materials, and, speci cally, CVM, can increase cam surface-pitting fatigue life beyond that obtainable by air-melted materials However, it is recommended that conservative estimates for life improvements be considered, such as a factor of 3 for CVM processing and a factor of 10 for VIM-VAR processing Data available on other melting techniques such as a vacuum induction, vacuum degassing, and electroslag remelting indicate that the life improvement approaches or equals that of the CVM process However, it is also important to differentiate between CVM and CVD (carbon vacuum degassing) The CVM process yields cleaner and more homogenous steels than CVD does 1072 Heat Treatment Heat treatment of cams is employed to improve cam surface-fatigue life At present, no controls exist over heat treatment to produce a consistent, nished product The thermal cycle is left to the individual producer for grain size and hardness ranges Hardness is discussed, but in the case of grain size, lack of de nitive data precludes discussing here Heat treatment is accomplished by furnace hardening, carburizing, induction hardening, or ame hardening Cams are either case-hardened, through-hardened, nitrided, or precipitation-hardened for the proper combination of roughness and hardness Heat-treatment distortion must be minimized if the cam is to have increased service life Several hardening techniques have proved useful For moderate service life increases, the cams are hardened but kept within the range of machinability so that distortion produced by heat treatment can be machined away Where maximum durability is required, surface hardening is necessary Carburizing, nitriding, and induction hardening are generally used However, precision cams can be ensured only by nishing after hardening Full-contour induction hardening is an economical and effective method for surface-hardening cams The extremely high but localized heat allows small sections to come to hardening temperatures while the balance of the gear dissipates heat Thus, major distortions are eliminated Conventional methods such as ame hardening can be employed Nitriding is a satisfactory method of hardening small-and medium-size cams Distortion is minimal because furnace temperatures are comparatively low The hardening pattern is uniform but depth of hardness is limited Best results are achieved when special materials, suited to nitriding, are speci ed Also, cam contour cross-sections should be thick enough to withstand distortion from heat treatment Figure 1014 shows the plasma/ion nitriding of a cast iron cam drive for the graphic arts industry The glow is a result of the iron nitriding process The thin dark line is a thermocouple wire utilized in the process 1073 Metalworking Proper grain ow or ber orientation can signi cantly affect pitting-fatigue life Proper ber orientation can be de ned as grain ow parallel to the cam shape Standard forging of cams as opposed to machining a forged disk is one way of obtaining proper ber.

// Use the built-in EventHandler delegate using System; // Declare a class that contains an event class MyEvent { public event EventHandler SomeEvent; // uses EventHandler delegate // This is called to raise SomeEvent public void OnSomeEvent() {

1 Either draw join lines between the respective tables and columns or use the pulldown menu Insert | Join Note that the second join is a complex join that must be entered manually 2 Add these two new joins to a new context If you have correctly defined the complex join, you can use the Detect Context button or use the pull-down menu Insert | Context to include the two joins in a new context Complete the entries as follows:

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