the preferred embodiments of the present invention will be described with reference to the drawing figures wherein like numerals represent like elements throughout . referring initially to fig1 , there is shown a message listing 10 . wireless devices are typically synchronized with a network so that the devices know to wake up at predetermined periods and check to see if there are any messages for them . to conserve battery , it is preferable for wireless devices to not only be asleep between the predetermined periods , but also to spend as little time as possible determining whether there is a message for them . wireless devices typically determine whether they are the intended recipient of a message by checking a message listing . message listings of the prior art include not only a plurality of identifiers indicative of the destination of each message contained in the listing as well as a count of the number of messages therein , but also the messages themselves . including the messages themselves in the message listing increases the time which wireless devices must remain awake while determining whether a message listing includes a message for them . for example , where a message listing includes 10 messages listed in increasing order of destination identifiers and there are messages for devices one through four , a wireless device having a device identifier “ 5 ” must stay awake for not only the first four message identifiers , but also the first four messages themselves . once device “ 5 ” receives its message it may go back asleep until the next message listing is received , which as mentioned , occurs at predetermined intervals . to decrease the time which devices must remain awake while determining whether particular message listings include a message for them , the present invention arranges message listings as shown in fig1 , 2 and 6 . those message listings may be modified as desired / needed to maximize the message determination process without departing from the scope of the present invention . referring initially to fig1 a first embodiment of a message listing 10 in accordance with the present invention is shown . the message listing 10 includes a count of the number of destination identifiers included in the message listing and is provided at the beginning of the message listing 10 . in this embodiment , the count is indicated with reference numeral 12 and is entitled “ count of identifiers listed .” the destination identifiers 1 - n , referred to generally with reference numeral 14 , are listed in increasing numeric order . each destination identifier 1 - n has an associated message pointer . the message pointers 1 - n , in this embodiment , are also listed in increasing numeric order and are generally referred to with reference numeral 16 . in an alternate embodiment , as shown in fig2 , the message listing 10 may be configured so that the message pointers 1 - n 16 follow their associated destination identifiers 1 - n 14 . it should be noted that , in fig1 and 2 , the destination identifiers 1 - n 14 are organized in increasing monotonic numeric order with their associated message pointers 1 - n 16 , but may also be organized in decreasing monotonic numeric order . a logic diagram showing a method 30 for determining whether a message has arrived for a wireless device is shown in fig3 . the wireless device may be any type of wireless device such as , for example , a wireless telephone , a personal digital assistant , or pocket size personal computer . the methods shown in fig3 , 4 , and 5 may be applied for both embodiments of message listings shown in fig1 and 2 . the method 30 begins with step 32 by initializing a search pointer of the device to a first identifier and loading the count of identifiers listed into a count variable ( i . e . a register or memory unit that contains the count ). the method 30 then proceeds to step 34 to determine whether the count is equal to zero . if the count is equal to zero , the method 30 proceeds to step 36 wherein the message flag is cleared . if the count is not equal to zero , the method proceeds to step 38 . in step 38 , the destination identifier pointed to by the pointer search is loaded by the device . the device preferably loads the destination identifier into a processing element of the device . once the destination identifier is loaded by the device , the method 30 proceeds to step 40 wherein the destination identifier is compared with the device identifier to determine whether the destination identifier is greater than the device identifier . if yes , there are no subsequent messages for the device and the method 30 proceeds to step 36 where , as mentioned , the message flag is cleared . if no , the method 30 proceeds to step 42 wherein it is determined whether the destination identifier is equal to the device identifier . if the destination identifier is equal to the device identifier , there is a message for the device and the method 30 proceeds to step 44 . in step 44 , the message flag is set and a pointer to the message corresponding to the destination identifier is loaded . if the destination identifier is not equal to the device identifier , the method 30 proceeds from step 42 to step 46 . in step 46 , the search pointer is advanced to the next destination identifier and in step 48 the count is decreased . referring now to fig4 , a method 50 for determining whether a message has arrived for a wireless device is shown . in this embodiment the devices are expecting more than one message with the same device identifier within the message listing . the method 50 begins with step 52 wherein a search pointer of a wireless device is initialized to a first identifier , the count of identifiers listed is loaded into a count variable , and the message list and message flag are cleared . from step 52 , the method proceeds to step 54 where it is determined whether the count of the identifiers listed is equal to zero . if the count is equal to zero , the method 50 ends at step 56 . if the count is not is equal to zero , the method 50 proceeds to step 58 wherein the destination identifier pointed to by the search pointer is loaded by the wireless device . from step 58 , the method 50 proceeds to step 60 where it is determined whether the destination identifier is greater than the device identifier . if the destination identifier is greater than the device identifier the method 50 proceeds to step 56 where , as mentioned , the method ends . if the destination identifier is not greater than the device identifier , the method 50 proceeds to step 62 where it is determined whether the destination identifier is equal to the device identifier . in step 62 , if the destination identifier is equal to the device identifier , a message flag is set and the pointer to the message corresponding to the destination identifier is added to the message list for the particular wireless device performing method 50 ( step 64 ). from step 64 , the method proceeds to step 66 wherein the search pointer is advanced to the next destination identifier . if , in step 62 , the destination identifier is not equal to the device identifier , the method 50 proceeds directly from step 62 to step 66 . after step 66 , the count of identifiers listed is decremented . the amount the count is decremented may be determined as desired . referring now to fig5 , a method 70 for determining whether a message has arrived for a wireless device is shown . in this embodiment the devices are expecting more than one message with the same device identifier or multiple identifiers within the message listing . multiple device identifiers for a single device may be used where the user of a particular device subscribes to several wireless multicast services , for example . by way of explanation , a device may have an identifier for messages specifically meant for the device and it may have another identifier assigned to it associated with a group of devices . in this way the entire group may be sent a message with only a single identifier being sent . a device may also be looking for some transmission broadcasted to an arbitrary number of devices such as , for example , sports game information or stock reports . the method 70 begins with step 72 wherein a search pointer to the first device identifier is initialized , the count of identifiers listed is loaded into the count variable , the flag and list messages are cleared , and a first test identifier from a test message list is loaded into a processing element of a wireless device . the test message list contains all of the identifiers that the device could potentially be receiving a message from during the time window is awakened to examine . the test list should be in a monotonic order suitable for searching the received identifiers . from step 72 , the method 70 proceeds to step 74 where it is determined whether the count of identifiers listed is equal to zero . if yes , the method 70 ends at step 76 . if no , the method 70 proceeds to step 78 wherein the destination identifier pointed to by the search pointer is loaded into a processing element of the device . moving to step 80 , it is determined whether the destination identifier is greater than the test identifier . if yes , the method proceeds to step 82 where it is determined whether there is another test identifier in the test list . if there is another test identifier in the list , the next test identifier is loaded in step 84 and the method returns to step 74 . if there is not another test identifier , the method 70 ends at step 86 . returning to step 80 , if the destination identifier is not greater than the test identifier , the method 70 proceeds to step 88 . in step 88 , it is determined whether the destination identifier is equal to the test identifier . if yes , a message flag is set and a pointer to the message corresponding to the destination identifier is added to the message list ( step 90 ). from step 90 , the method 70 proceeds to step 92 . if , in contrast , the destination identifier is not equal to the test identifier , the method 70 proceeds directly to step 92 . in step 92 , the search pointer is advanced to the next destination identifier and in step 94 the count of identifiers listed is decremented . the amount the count is decremented may be determined as desired . referring now to fig6 , there is shown an alternate embodiment of a message listing 100 in accordance with the present invention . in this embodiment there is not a count of the identifiers listed , but rather a list terminator 102 wherein the message listing is terminated by a unique number in the usual identifier position . an efficient value for this terminator in the increasing identifier implementation would be zero . in this way only the pointer needs to be changed during the search , and the comparison for an identifier larger than the one in the listing would terminate the search . a method whereby devices may determine whether a message listing as shown in fig6 includes any messages for them is shown if fig7 . the method 120 begins in step 122 with initializing a search pointer to the first destination identifier . in step 124 , the destination identifier pointed to by the search pointer is loaded into a processing element of the device . in step 126 , it is determined whether the destination identifier is equal to the termination value ( i . e . the value of the list terminator ). if the destination identifier is equal to the termination value , the method proceeds to step 128 where the message flag is cleared and the method 120 ends . if the destination identifier is not equal to the termination value , the method 120 proceeds to step 130 where it is determined whether the destination identifier is greater than the device identifier of the particular device that is determining whether a message listing contains a message for it . if the destination identifier is greater than the device identifier , the method 120 proceeds to step 128 where the message flag is cleared and the method 120 ends . if the destination identifier is less than or equal to the device identifier , the method 120 proceeds to step 132 . in step 132 , it is determined whether the destination identifier is equal to the device identifier . if so , the message flag is set and the pointer to the message that corresponds to the destination identifier is loaded into a processing element of the device ( step 134 ). if not , the search pointer is advanced to the next destination identifier in step 136 and the method 120 continues at step 124 . which of the preceding forms is used , or some variation of those presented , is based on efficiency tradeoffs associated with the numerical values allowed for the identifiers and message pointers , and the processing devices searching for messages . the pointer to the message can be a simple programming language pointer to the information defining the existence of the actual message transmission , or it may be the information itself . the actual information may be of the form : carrier channel , time slot , and channelization code . if the message information is very short ( e . g . telephone number ), it will often be more efficient to insert in the message in the usual position for the message pointer . in this case one or more bits of the message pointer part of the stream will need to be reserved as definition bits for the other bits present . two bits , for instance , could be encoded such that one encoding indicates the rest of the bits is the message , another encoding that the pointer to the message follows , and a third encoding that the pointer to the data defining where to find the message follows . the fourth encoding possibility is a spare for some future use . with respect to implementation of the present invention in 3g radio access networks , there are two basic methods for identifying “ destinations ” and “ message pointers .” broadcast ( bcch over bch / p - ccpch ) or dedicated ( dcch over dch / dpcch + dpdch ) signaling . if dedicated signaling is applied , the signaling is specific for the “ destination ,” and there is no application or benefit in ordering the control information since all of it is for the destination device . if broadcast signaling is applied , the existing mechanism that retrieves this data is independent of the processing of the data . when the number of messages is small , the above - described embodiments are usually the fastest means for locating or determining there is not a message for the device . however , if the list is long , there are faster methods which may be implemented to search a monotonically increasing or decreasing message list . for example , binary search protocols on average require log 2 ( count ) tests . the calculations are more involved , and different processors will be able to perform them with varying speeds . typically if there are more than approximately 32 received identifiers , binary searching will be faster for a single identifier being tested . if there are multiple identifiers being tested , sequential testing is more efficient for a larger count . the choice of protocol may also be chosen based on the values of the identifier or identifiers being tested . if a single number is being searched for is low and the receive sequence ( i . e . message listing ) monotonically increasing , the best approach is to begin the search at the beginning of the received data . if the signal number is high and the receive sequence monotonically increasing , the best approach is to begin the search at the end of the received data . ( data is often transmitted in wireless systems in blocks with interleaving for error correction reasons . all the data of a block therefore needs to be received and decoded before any of it can be examined .) therefore , a preferred embodiment of the present invention is to take into account the number of received identifiers , whether or not there is one or more identifiers to be looked for , and the numeric distribution of the looked for identifiers in the selection of the search protocol utilized for each search occurrence . referring now to fig8 , there is shown a system 200 for optimizing power resources in wireless devices . the system 200 comprises at least one radio network controller ( rnc ), at least one base station ( bs ), and at least one wireless device ( 206 ). the wireless device 206 includes a processor 208 for searching message listings for messages wherein the device 206 is the intended recipient . to maximize the amount of time that the device 206 may be asleep ( i . e . having only the clock running which will tell the device to periodically wake - up ), the message listings are adapted as described above . the device 206 will determine whether a particular message listing includes a message ( s ) for it using the methods described above according to the type of message listing . although particular processing functions have been described as being performed by particular components , it should be understood that performance of processing functions may be distributed among system components as desired . although the present invention has been described in detail , it is to be understood that the invention is not limited thereto , and that various changes can be made therein without departing from the spirit and scope of the invention , which is defined by the attached claims .