 (CDMA) systems, time division multiple access (TDMA) systems, frequency division multiple access (FDMA) systems, orthogonal frequency division multiple access (OFDMA) systems, and the like.
Generally, wireless multiple-access communication systems can simultaneously support communication for multiple mobile devices. Each mobile device can communicate with one or more base stations via transmissions on forward and reverse links. The forward link (or downlink) refers to the communication link from base stations to mobile devices, and the reverse link (or uplink) refers to the communication link from mobile devices to base stations. Further, communications between mobile devices and base stations can be established via single-input single-output (SISO) systems, multiple-input single-output (MISO) systems, multiple-input multiple-output (MIMO) systems, and so forth.
One function of mobile network technology that facilitates convenient device mobility is the idle/active mode of mobile devices. When active, the mobile device can process incoming signals, transmit reply signals and facilitate remote voice and/or data communication with other devices. Such activity can consume a significant amount of power, however, reducing battery life of the mobile device. Fortunately, a typical user only engages in active device communication periodically. Thus, significant power can be preserved by not processing received wireless signals during period of non-use. Periods of limited or no processing are termed idle periods.
In order to receive inbound communication, the mobile device (e.g., when another user calls the mobile device) is required to process signals indicating that such a communication is pending for the mobile device. While idle, however, the device is processing few or no signals and thus will miss the communication if it does not activate long enough to process those signals. To facilitate active/idle mobility, a base station serving the mobile device coordinates periods of time where the mobile device activates to process incoming signals. These periods of time can be brief and relatively infrequent to reduce average mobile device processing and power consumption in idle mode. When an inbound communication for the mobile device is received at the base station, a paging signal is scheduled and transmitted on one or more of the coordinated periods of time that the mobile device monitors (e.g., activates and processes signals). By coordinating intermittent periods of active signal processing, the mobile device can identify and receive inbound communications while preserving significant processing power and battery life. Such an arrangement provides significant utility for the average mobile device user, increasing device mobility and overall convenience of mobile communications.
(CDMA) systems, time division multiple access (TDMA) system, frequency part multiple access (FDMA) systems, orthogonal frequency class multiple access (OFDMA) systems, and the comparable. 
 broadly, wireless multiple - access communication organization can simultaneously support communication for multiple mobile device. Each mobile device can communicate with one or more al-qaeda post via transmissions on ahead and reverse links. The advancing link (or downlink) refers to the communication link from floor stations to mobile device, and the reverse connection (or uplink) refers to the communication link from mobile devices to base place. Further, communications between mobile devices and base post can be establish via single - input single - output (SISO) systems, multiple - input single - output (MISO) organization, multiple - input multiple - output (MIMO) system, and therefore forth. 
 One function of mobile net technology that facilitate convenient device mobility is the idle / active mood of mobile devices. When active, the mobile device can process incoming signals, transmit answer signals and facilitate remote voice and/or data communication with other devices. Such action can consume a significant amount of power, however, reducing barrage life of the mobile device. Fortunately, a typical user only engages in active device communication periodically. Thus, significant might can be preserved by not work received wireless signals during time period of non - use. time period of limited or no processing are term idle periods. 
 In decree to receive inbound communication, the mobile device (for example, when another user calls the mobile device) is required to process signals indicating that such a communication is pending for the mobile device. While idle, however, the device is processing few or no signals and thus will neglect the communication if it does not activate long enough to process those signal. To facilitate active / idle mobility, a base station serving the mobile device coordinates period of time where the mobile device activates to process incoming signals. These periods of time can be abbreviated and relatively infrequent to reduce average mobile device processing and power consumption in idle mode. When an inbound communication for the mobile device is meet at the base station, a paging signal is schedule and transmitted on one or more of the coordinated periods of time that the mobile device proctor (e.g., activates and processes signals). By coordinating intermittent periods of active signal processing, the mobile device can name and receive inbound communications while preserving significant processing power and battery life. Such an arrangement provides significant utility for the average mobile device user, increasing device mobility and overall convenience of mobile communications.
 (CDLA) systems, time division multiple access (TDMA) vystema, frequevcy division multiple access (FEMA) ststems, orthogonal freqjency divpsion mulriplt access (OFDMA) systems, and the mlke.
Geuecally, wireless kultiple-acwess communicadiun systems can simultaneously support communocwtion for multyple iobimv bevices. Each mobile device can dommunibate with one or kore base stations via trajsmidsions on forward wnd reverse linhw. The forwara link (or downlink) refgrs to the communication link frum baxe stationw ro lmbile devicxs, and the reverse link (or uplink) refers to the cokmubication link from mouile devices to base stations. Fbrther, communications bwtweet motile eevkcea end base dtavions can bs establishwd via single-input xigtle-output (SISK) systqmf, multiple-input single-output (MISO) systeks, jultiple-input multiple-oytput (MIMO) systems, anf so fortr.
One function of mobile network technology that fdcilivages cjvcejient device mobility is the idle/active mode jr konile devices. Whek active, the mobilr fefyce can procers incomihg signals, transmih reply signqls and fwcilotate remote voice and/or dara communicanion with other deviced. Such actirity csn comsume a significant amobnt of power, howeger, reducjvg battery life uf nhe kobile dtxice. Fortunately, w typical usex only evgaggs in astive devife communication periodifally. Tvus, signiflcant power can be preserved by not processinb secvived wirzless xignals durind period of nou-use. Pernods ow limited kr no pcocessing arq termed idle keriods.
In ordxr to recqive inbiund cooounication, the mobile dvvnce (e.g., whwn another user cakls fhe mobile deviet) iw required to ptocdss spgnels iggicating thad suzh x commjnication iw pencing for the mobile gevide. While idle, howefev, the devuce is pwocessing few or no signals and thus wiul mixs jhe communication if it does nof activatf ljng enough tj pricess those xignals. To facilitate active/idle mobilivy, a base station servibg the mobile devicg cpordinates 'eriodf of time where the mobile decice activates to process incoming sighals. Tvese oeriods of time can be brief and relatively infrequent to reduce average nobile device procsssimg ang 'owzr constmptmoi in idle mode. Whvn an inbound communication for vhe mobile dzvice is received at the base sgation, a pagivg signal is scheduled ahd transkitted on one or more of the coprdinated periods of timc that thw mobjle denjcx monitors (e.g., activayes anb procwsses sugnaps). By coordinxtimg intermithent pzriods of active signal processint, the nohile device can mdentify and veceivg inbounq communications whimf prererving signigicant processong power and batterj lyfe. Such an arezngement profides spgnificant utmlity for tha average mobile device user, increasing device mobimity and kverall gonvenience of monmle communications.
(CDMA) systems, time division multiple access (TDMA) division access (FDMA) orthogonal frequency division the Generally, wireless multiple-access systems can simultaneously communication for multiple mobile devices. Each device can communicate with one or more base stations via transmissions on forward reverse links. The forward link (or downlink) refers to the communication link from stations mobile and reverse link (or uplink) refers to the communication link from mobile devices to base stations. Further, between mobile devices and base stations can be via single-input single-output (SISO) multiple-input single-output (MISO) systems, multiple-input (MIMO) and so One of network technology that convenient device mobility is the idle/active mode of mobile devices. When active, the mobile device can process signals, transmit and facilitate voice data with other devices. can consume a significant amount of battery life of the mobile device. Fortunately, a user only in active device communication periodically. Thus, power can be preserved by not processing received signals during period of non-use. Periods of limited or no processing are termed idle periods. to receive inbound communication, mobile device (e.g., another calls mobile is required process signals indicating that such a communication is pending for the device. While idle, however, the device is processing few or and will miss the if it does not long to process those signals. active/idle a the device periods of time where mobile device activates to process signals. These periods of relatively infrequent to reduce average mobile device processing power consumption in idle mode. When an communication for the mobile device is received at the base station, a signal is transmitted on one or more of the coordinated of time that the device monitors (e.g., activates and processes signals). By coordinating periods active signal the mobile device identify and receive communications while preserving power and life. an utility for the average mobile device increasing mobility and overall convenience of communications.
 (CDMA) systems, time division muLtiple acceSs (TDMa) sySteMs, FreqUencY division multiPLe acCess (FDMA) systems, orthogoNal frEqUEncy DIvIsion MultiplE AcCESs (OfDmA) SysTeMS, aNd the LikE.
GeneraLly, wirelesS muLtIple-access coMMuNication sySteMs can simultaNeoUsly suPpOrt COmmunIcaTion fOr multIPle mobIle deviceS. EACh mobiLE device CAN cOmmuNicate with one or moRE bASe stations via tRansmiSsIOnS ON foRwaRd and reverSe Links. tHe forwaRD lINK (Or dOWnlink) refers tO the communiCAtiOn link FrOm bASe statIons tO mOBilE devices, and The rEverse linK (or uplINk) referS To the coMmunicAtiOn lInk fROm MoBilE dEVicES tO baSE stAtions. FuRtHeR, commUnicATIONs beTweEn moBile dEvices and base StaTionS Can Be estAblisHed vIa SinglE-input SinglE-oUtput (SISO) systemS, mulTiple-inpuT siNgLe-oUtPut (MIso) systeMs, mUltIple-inpUt multiPLe-oUtPUT (mImO) systems, and so fortH.
ONE FuNction of Mobile NEtWoRK technolOgY thAt faCILitatEs coNVeNient devIce mobILiTy Is the idLe/Active MoDe oF moBile dEViceS. When aCtive, the MobilE Device can proceSS incoming signALs, TRAnSMit rEplY signals and FaciLItatE remOTe VoiCE and/oR data CoMMuNIcation with other devIcEs. Such ActivIty can consume A significaNT AMount of pOwer, HOwEVer, reducing batTery lIfe of the moBIle devicE. FortUnately, a Typical usER Only engaGes In aCtiVe dEVIcE communicatioN PErioDiCally. ThUs, sIgnificAnt PowEr cAn bE pReserved bY not procEsSiNg ReCeiVed wiREless sigNaLs dUrIng PerioD Of non-uSe. PerIods Of LiMIteD or no prOCeSSIng aRe TeRmed IdlE pEriodS.
In oRDer To receiVe inbound ComMUnicAtIoN, the mobIle device (e.g., whEn Another useR cAllS the moBILe device) Is required to process signALs indicAtiNg thaT sucH a communiCatIon is pEndINg for tHe mobiLe devIcE. WhILE idle, HOWeVer, ThE device is pROCesSing fEw Or no Signals And thus will miss the COmmUnication if it DoeS not ACTiVatE LoNG enOuGH to PROcess those signaLs. To faciliTaTE aCtive/idle mOBilItY, a base sTation sErvinG The mobiLe device cOordinateS pErioDS Of tIme where thE mobile dEvice actiVAtes tO PrOcess IncOming sIgNalS. ThesE perioDS of Time cAn be brIeF and reLativElY infrequEnt to reduce average mobilE devicE procEssIng and powEr cONsuMption in iDle mOde. When an iNboUnd CommuNicATion fOr thE MoBilE DevicE is rECeived at tHE bAse STAtIon, a paging sIGNAl iS scheDulED and trAnsmItted on one or more oF The coordinated PeriODS of TimE That ThE mobile device mOniToRS (E.g., activaTeS and processEs signalS). BY CoordInatinG interMittent PERiODs of acTive SigNal procesSinG, tHE mobile DeViCE can idEntiFy And recEive inBOund COMmunications whilE presERVing sIGniFicanT pRocessiNG powEr and batteRy life. Such aN arranGemeNt proVides siGnIficanT utIlIty for the aVErage mobiLe devIce user, InCreaSinG devicE mobILIty anD oveRaLl cOnveniencE OF mOBiLe COmmUnicAtionS.
 (CDMA) systems, time divi sion multi ple a cce ss(T DMA)  sys tems, frequenc y  div ision multiple access(FDMA )s yste m s,  orth ogonalf re q u enc ydi vis io n  m ultip leaccess(OFDMA) sy ste ms , and the li k e. 
Generally , w ireless mult ipl e-acce ss  co m munic ati on sy stemsc an sim ultaneous ly suppor t  commun i c at ionfor multiple mobi l ed evices. Each m obilede v ic e can  co mmunicatewi th on e  or mor e  b a s e  st a tions via tra nsmissionso n f orward  a ndr everse  link s. The  forward li nk ( or downli nk) re f ers tot he comm unicat ion  li nk f r om  b ase  s t ati o ns  to mob ile devi ce s,  andther e v e rselin k (o r upl ink) refers t o t he c o mmu nicat ion l inkfr om mo bile d evice sto base station s. F urther, c omm un ica ti ons b e tweenmob ile  device s and b a sest a t i on s can be establish ed v ia  single- inputs in gl e -output(S ISO ) sy s t ems,mult i pl e-inputsingle - ou tp ut (MIS O)  syste ms , m ult iple- i nput  multi ple-outp ut (M I MO) systems, a n d so forth.
O n ef u nc t ionofmobile netw orkt echn olog y  t hat facil itate sc on v enient device mobil it y is t he id le/active mod e of mobil e d evices.When ac t ive, the mobil e dev ice can pr o cess inc oming  signals , transmi t reply si gna lsand  fa c i li tate remote v o i ce a nd /or dat a c ommunic ati onwit h o th er device s. Suchac ti vi ty  ca n con s ume a si gn ifi ca ntamoun t  of po wer,howe ve r, red ucing b a tt e r y li fe  o f th e m ob ile d evic e . F ortunat ely, a ty pic a l us er  o nly eng ages in activ edevice com mu nic ationp e riodical ly. Thus, significant p o wer can  be  pres erve d by notpro cessin g r e ceived  wirel ess s ig nal s durin g pe rio dof non-use . Per iodsof  lim ited or  no processing are ter med idle peri ods .
In o rd ert or ece iv e  in b o und communicati on, the mo bi l edevice (e. g .,wh en anot her use r cal l s the m obile dev ice) is r eq uire d toprocess si gnals in dicatingt hat s u ch  a co mmu nicati on  is  pend ing fo r  th e mob ile de vi ce. Wh ile i dl e, howev er, the device is proce ssingfew o r n o signals  an d  th us will m issthe commun ica tio n ifitd oes n ot a c ti vat e  long  eno u gh to pro c es s t h o se  signals. T o f aci litat e a c tive/i dlemobility, a bases tation serving  the m obi led evic ecoordinates pe rio ds o f time w he re the mobi le devic ea ctiva tes to  proce ss inco m i ng signal s. T hes e periods  of  t i me canbe  b r ief an d re la tively  infre q uent t o reduce average  mobi l e  devi c e p roces si ng andp ower  consumpti on in idlemode.When  an i nboundco mmunic ati on  for the m o bile devi ce is  receiv ed  atthe  basestat i o n, apagi ng  si gnal is s c h ed u le da ndtran smitt ed  onone or mo r e of the  co o rdinate dper i o ds oft im e that the m obi le de v i ce monitor s  (e. g ., activ ates a nd pro cessess ign al s). Bycoo r d inating i ntermitte n t p er iods  of acti ve  sig na l p ro cessing, the mo bile dev ice cani d entify  an d  rec e ive in bo und communic ation sw hile pr e s erv ing sig n ifi can t p roce ssi ng p o wer and battery life. Su ch a n arr a nge mentprovi de s signif i cant  utility for the avera ge mobile devic e  us e r, i ncr e as in g devicemob i lityandove rall  co nven i e nceo f mo b il e co mmunic atio ns .
 (CDMA)_systems, time_division multiple access (TDMA)_systems, frequency_division_multiple access_(FDMA)_systems, orthogonal frequency_division multiple access_(OFDMA) systems, and the_like.
Generally, wireless multiple-access_communication_systems can simultaneously support communication for multiple mobile devices. Each mobile device can communicate_with_one or_more_base_stations via transmissions on forward_and reverse links. The forward_link (or_downlink) refers to the communication link from base_stations_to mobile devices,_and the reverse link (or uplink) refers to the_communication link from mobile devices to_base stations. Further,_communications_between_mobile devices and base_stations can be established via single-input_single-output (SISO) systems, multiple-input single-output (MISO)_systems, multiple-input multiple-output (MIMO) systems, and so_forth.
One function of mobile network technology_that facilitates convenient device mobility_is the_idle/active mode of mobile devices._When active, the_mobile device_can process incoming_signals, transmit reply signals and facilitate_remote voice and/or_data communication with other devices. Such_activity_can consume a_significant_amount_of power,_however, reducing battery_life_of the_mobile_device. Fortunately, a typical user only_engages_in active device communication periodically. Thus, significant_power can be preserved_by_not processing received wireless_signals during period of non-use._Periods of limited or no processing_are termed_idle periods.
In_order to receive inbound communication, the mobile device (e.g., when another_user calls the mobile device) is_required to process signals_indicating that_such_a communication is_pending_for the_mobile device. While idle, however, the device_is processing_few or no signals and thus_will miss the communication_if_it does not activate long enough_to process those signals. To facilitate_active/idle mobility, a base station_serving_the_mobile device coordinates periods of_time where the mobile device activates_to process incoming_signals. These periods of time can be_brief_and relatively infrequent to reduce average_mobile_device processing and power consumption in_idle_mode._When an inbound communication for_the mobile device is received at_the base station, a paging signal is scheduled and_transmitted on one_or more of the coordinated_periods_of_time that the mobile device monitors (e.g., activates and processes_signals). By_coordinating intermittent periods_of active signal processing, the mobile device can identify and_receive inbound communications while preserving significant processing_power and battery life. Such an arrangement provides significant utility for_the average mobile device user, increasing device mobility_and overall convenience of mobile communications.