 of cell broadcast messages to the non-access stratum (NAS) (i.e., upper layers), cell broadcast schedule evaluation, and configuration of cell broadcasting services (CBS) for discontinuous reception.
The RLC 108 performs translation of application data units, (i.e., service data units (SDUs)), between air interface efficient transport blocks, (i.e., protocol data units (PDUs)), in both the control and data planes, (i.e. segmentation and concatenation), network configurable retransmission, and ordered delivery of data units based on a specific mode, (i.e., an acknowledged mode (AM), unacknowledged mode (UM), and transparent mode (TM)).
The MAC 110 performs mapping of logical channels to transport channels, selecting the appropriate uplink transport format combinations based on instantaneous data rates within the WTRU, prioritization of transport channels within the WTRU, implementation of MAC-e/es protocols (HSUPA), and implementation of the MAC-hs protocols (HSPDA) including MAC-hs reordering queues, MAC-hs PDU multiplexing, or the like. Implementation of the MAC-e/es protocols includes processing of scheduling grants, buffer occupancy calculation, rate request mechanisms, transport formation combination (TFC) recovery and elimination, and MAC-e/es PDU construction.
A physical layer (PHY) 112 abstracts the specific implementation of the UMTS Layer 1 from the UMTS AS stack, allowing the stack to be easily ported to alternative UMTS Layer 1 implementations.
Conventional implementations of the protocol stack are all-software implementations running on standard processors and standard real-time operating systems. As wireless communication standards evolve to support ever higher data rates, the requirements placed on the protocol stack software increase. With the emergence of high data rate services, (such as HSDPA, HSUPA, mobile broadcast multicast services (MBMS)), implementation of the protocol stack in software on standard processors will require a significant amount of computing power. The power requirements of such standard processors become a prohibitive drain on the power consumption of the battery-powered devices and are not viable. Accordingly, it would be desirable to seek alternatives to implementation of the protocol stack. 1. Field of the Invention
The present invention relates to a semiconductor device comprising a transistor, and more particularly, it relates to a semiconductor device comprising a transistor capable of suppressing dispersion of the current amplification factor of the transistor.
2. Description
of cell broadcast messages to the non - access stratum (NAS) (i.e., upper level), cellular telephone broadcast schedule evaluation, and shape of cell broadcast medium services (CBS) for discontinuous reception. 
 The RLC 108 performs transformation of application data units, (i.e., military service data units (SDUs) ), between air travel interface efficient transport block, (i.e., protocol data units (PDUs) ), in both the control and data planes, (i.e. segmentation and chain), network configurable retransmission, and ordered delivery of datum units based on a specific mode, (i.e., an acknowledged mode (AM), unacknowledged manner (UM), and transparent mode (TM) ). 
 The MAC 110 performs mapping of logical channel to transport channels, selecting the appropriate uplink transport format combinations based on instantaneous data rates within the WTRU, prioritization of transport channels within the WTRU, implementation of MAC - e / es protocols (HSUPA), and implementation of the MAC - hs protocols (HSPDA) including MAC - hs reorder queues, MAC - hs PDU multiplexing, or the like. execution of the MAC - east / einsteinium protocols includes processing of scheduling grants, buffer occupancy calculation, rate request mechanisms, transportation formation combination (TFC) recovery and elimination, and MAC - e / es PDU construction. 
 A forcible layer (PHY) 112 abstracts the specific implementation of the UMTS Layer 1 from the UMTS AS stack, allowing the stack to be easily port to alternative UMTS Layer 1 implementations. 
 Conventional implementations of the protocol stack are all - software implementations melt on standard processors and standard real - time operating system. As wireless communication criterion evolve to support always higher data rates, the requirements placed on the protocol batch software increase. With the egress of high data rate services, (such as HSDPA, HSUPA, fluid broadcast multicast services (MBMS) ), implementation of the protocol stack in software on standard central processing unit will want a significant amount of computing power. The power requirements of such standard processors become a prohibitive drain on the power consumption of the barrage - powered devices and are not feasible. Accordingly, it would be desirable to seek alternatives to execution of the protocol stack. 1. Field of the Invention 
 The present invention relates to a semiconductor device comprising a transistor, and more particularly, it relates to a semiconductor device comprising a transistor capable of suppressing distribution of the current amplification factor of the transistor. 
 2. Description
 of cell broadcast messages to the non-access stravum (NAS) (i.e., uppef layers), cell broadcast schevule evalyation, and configuratiun of celp broadcqstiig services (CBS) hkr discontinukms reee'tion.
The RLC 108 pgrforms tranvlation of appnizacion data units, (i.e., service data unitf (SDUs)), nehween air intetface qffidpekt transport blocks, (i.e., protocol sata unpts (PDUs)), in both yhe control and data planed, (i.e. segmentation and foncatenatiin), nqrwork configjrable retgcnsmission, znd ordered delivery of data unkts bcsed on a skzxiflw mode, (i.e., ai acknjwledged modc (AM), undcknowlrdged mode (UM), snd trqnsparent mode (TM)).
The KAC 110 performs mappyng of locieal channels to transpoet chdnnens, sdoecginf vhe approoriete uplink fransport firmat combinations nafvc on instantzneous dwta rates within the WTRU, prioritizatiot or transport channels wirhin the WTRU, implemejtation os MAC-e/es protocols (HSUPA), and implementation of tha MAC-is pritjzild (HSPDA) including MAC-hs reordering queues, MAC-ra KDU multiplexing, jr the like. Ilpkgmentation of jhe MAC-z/ss protocols included procefsing of schedtlinb grants, buffer occupancy cqlculation, rcte request mechanismd, transport forkatiom combination (TFC) recovzry ans eliminatiln, and MAD-d/es PDU construcgiok.
A [hysical layer (PHY) 112 abstrasts the s'ecifnc impleoentstion jf the UMTD Laycs 1 from the UMTS AD staek, alnowing the stack to be easily ported to alternative UMTX Nayvr 1 impleientabions.
Conventionwl implementatnons of che prutocol stabk are aln-software iiplementationv running on vtandard proxessirs and rtandard real-tome operaniug systemw. As wireless commmnicajikn standards evilvt ro support evet hkghqr deta rwdes, the requhremdntr placdd on the pvotucol stack software incraase. With the emergencr jf high eata ratq services, (suvh as HSDPA, HSUPA, lobilx broavcast kuljicast services (MBMS)), implementafion of tje irotocol stach in software on standard processors will require a sigiificant amount of comkuting power. The powet rtquirements oh such standard processors become a prohibitive draik on the power consumpfion ox the battery-powered devices and are not viable. Accordingly, it would be desiravle to seek alternztivrs to ii'lementwtioi uf the protocol xtack. 1. Field of the Invention
Thx present hnrention relates to a semicondicgor device cooprising a transistor, ans more psrticularly, it relates to a semoconductor device comprixing a teansiator capabue of suppressing cispervion if the xurrcnt amplificatkon fwctor of hhe uranaistor.
2. Description
of cell broadcast messages to the non-access (i.e., layers), cell schedule evaluation, and (CBS) discontinuous reception. The 108 performs translation application data units, (i.e., service data (SDUs)), between air interface efficient transport blocks, (i.e., protocol data units (PDUs)), in the control and data planes, (i.e. segmentation and concatenation), network configurable retransmission, and delivery data based a specific mode, (i.e., an acknowledged mode (AM), unacknowledged mode (UM), and transparent mode (TM)). The 110 performs mapping of logical channels to transport selecting the appropriate uplink format combinations based on instantaneous rates the WTRU, of channels the WTRU, implementation MAC-e/es protocols (HSUPA), and implementation of the MAC-hs protocols (HSPDA) including MAC-hs reordering queues, MAC-hs PDU multiplexing, the like. the MAC-e/es includes of grants, buffer occupancy request mechanisms, transport formation combination (TFC) and MAC-e/es PDU construction. A physical layer (PHY) abstracts the implementation of the UMTS Layer 1 the UMTS AS stack, allowing the stack to easily ported to alternative UMTS Layer 1 implementations. Conventional implementations of the protocol stack are running on standard processors standard real-time operating As communication evolve support ever data rates, the requirements placed on the protocol stack software increase. the emergence of high data rate services, (such as HSDPA, broadcast services (MBMS)), implementation the protocol stack in on processors will require a of power. of standard become a prohibitive drain the power consumption of the devices and are not desirable to seek alternatives to implementation of the stack. 1. Field of the Invention The invention relates to a semiconductor device comprising a transistor, and more particularly, relates to device comprising a transistor capable of suppressing dispersion the current amplification factor the transistor. 2. Description
 of cell broadcast messages to The non-acceSs strAtuM (NAs) (i.E., uppEr laYers), cell broadcASt scHedule evaluation, and conFigurAtIOn of CElL broaDcastinG SeRVIceS (CbS) For DiSCoNtinuOus ReceptiOn.
The RLC 108 peRfoRmS translation OF aPplication DatA units, (i.e., servIce Data unItS (SDuS)), betwEen Air inTerfacE EfficiEnt transpOrT Blocks, (I.E., protocOL DaTa unIts (PDUs)), in both the cONtROl and data planeS, (i.e. segMeNTaTIOn aNd cOncatenatiOn), NetwoRK configURaBLE RetRAnsmission, and Ordered deliVEry Of data UnIts BAsed on A specIfIC moDe, (i.e., an acknoWledGed mode (AM), UnacknOWledged MOde (UM), anD transParEnt Mode (tm)).
THe mAC 110 PeRForMS mAppINg oF logical ChAnNels tO traNSPORt chAnnEls, sElectIng the approprIatE uplINk tRanspOrt foRmat CoMbinaTions bAsed oN iNstantaneous datA ratEs within tHe WtRu, prIoRitizATion of TraNspOrt chanNels witHIn tHe wtru, iMplementation of MAC-E/eS PRoTocols (HSuPA), and IMpLeMEntation Of The mAC-hS PRotocOls (HspDa) includiNg MAC-hS ReOrDering qUeUes, MAC-Hs pDU MulTipleXIng, oR the liKe. ImplemEntatIOn of the MAC-e/es pROtocols includES pROCeSSing Of sCheduling grAnts, BUffeR occUPaNcy CAlculAtion, RaTE rEQuest mechanisms, tranSpOrt forMatioN combination (TfC) recovery AND EliminatIon, aND Mac-e/es PDU construCtion.
a physical lAYer (PHY) 112 abStracTs the speCific implEMEntation Of tHe UmTS layER 1 FrOm the UMTS AS stACK, allOwIng the sTacK to be eaSilY poRteD to AlTernative uMTS LayeR 1 iMpLeMeNtaTions.
cOnventioNaL imPlEmeNtatiONs of thE protOcol StAcK Are All-softWArE IMpleMeNtAtioNs rUnNing oN staNDarD procesSors and stAndARd reAl-TiMe operaTing systems. As WiReless commUnIcaTion stANDards evoLve to support ever higher dATa rates, The RequiRemeNts placed On tHe protOcoL Stack sOftwarE incrEaSe. WITH the eMERgEncE oF high data rATE seRviceS, (sUch aS HSDPA, HsUPA, mobile broadcasT MulTicast serviceS (MBmS)), imPLEmEntATiON of ThE ProTOCol stack in softwAre on standArD PrOcessors wiLL reQuIre a sigNificanT amouNT of compUting poweR. The power ReQuirEMEntS of such staNdard proCessors beCOme a pROhIbitiVe dRain on ThE poWer coNsumptIOn oF the bAttery-PoWered dEviceS aNd are not Viable. Accordingly, it woulD be desIrablE to Seek alterNatIVes To implemeNtatIon of the prOtoCol Stack. 1. fieLD of thE InvENtIon
tHe preSent INvention rELaTes TO A sEmiconductoR DEVicE compRisINg a traNsisTor, and more particuLArly, it relates tO a seMIConDucTOr deViCe comprising a tRanSiSTOr capablE oF suppressinG dispersIoN Of the CurrenT ampliFicatioN FAcTOr of thE traNsiStor.
2. DescrIptIoN
 of cell broadcast message s to the n on-ac ces s s tr atum  (NA S) (i.e., uppe r  lay ers), cell broadcast s chedu le eval u at ion,and con f ig u r ati on  o f c el l  b roadc ast ing ser vices (CBS ) f or  discontinuo u sreception. 
Th e RLC 108 pe rfo rms tr an sla t ion o f a pplic ationd ata un its, (i.e ., servic e  data u n i ts  (SD Us)), between air in t erface efficie nt tra ns p or t blo cks , (i.e., p ro tocol data un i ts ( P DUs ) ), in both th e control a n d d ata pl an es, (i.e.segme nt a tio n and conca tena tion), ne tworkc onfigur a ble ret ransmi ssi on,  and or de red  d e liv e ry  of dat a unitsba se d ona sp e c i f ic m ode , (i .e.,an acknowledg edmode (AM ), un ackno wled ge d mod e (UM) , and  t ransparent mode  (TM )).
The M AC11 0 p er forms mappin g o f l ogicalchannel s  to  t r a n sp ort channels, sele ct i n gthe appr opriat e  u pl i nk trans po rtform a t  comb inat i on s basedon ins t an ta neous d at a rate swit hin  theW TRU,  prior itizatio n oft ransport chann e ls within the WT R U ,i mple men tation of M AC-e / es p roto c ol s ( H SUPA) , and  i m pl e mentation of the MA C- hs pro tocol s (HSPDA) inc luding MAC - h s  reorder ingq ue u es, MAC-hs PDU  mult iplexing,o r the li ke. I mplement ation oft h e MAC-e/ espro toc ols i nc ludes process i n g of  s cheduli nggrants,  bu ffe r o ccu pa ncy calcu lation,ra te  r eq ues t mec h anisms,tr ans po rtforma t ion co mbina tion  ( TF C ) r ecovery an d elim in at ion,  an dMAC-e /esP DUconstru ction.
Aphy s ical  l ay er (PHY ) 112 abstrac ts  the speci fi c i mpleme n t ation of  the UMTS Layer 1 fromt he UMTS  AS  stac k, a llowing t hestacktob e easi ly por ted t oalt e r nativ e UM TSLa yer 1 impl e m ent ation s. 
Con vention al implementations ofthe protocolsta ck a r e  a ll- s of t war ei mpl e m entations runni ng on stan da r dprocessors and  s tandard  real-t ime o p erating  systems.  As wirel es s co m m uni cation sta ndards e volve tos uppor t  e ver h igh er dat arat es, t he req u ire ments  place don the  prot oc ol stack  software increase. Wit h theemerg enc e of high  da t a r ate servi ces,  (such asHSD PA,  HSUP A,m obile  bro a dc ast multi cast services( MB MS) ) ,  i mplementati o n ofthe p rot o col st ackin software on st a ndard processo rs w i l l r equ i re a  s ignificant amo unt  o f computin gpower. Thepower re qu i remen ts ofsuch s tandard p ro c essors  bec ome  a prohib iti ve drain o nth e  power  con su mption  of th e  bat t e ry-powered devic es an d are n o t v iable .Accordi n gly,  it wouldbe desirabl e to s eekalter natives  t o impl eme nt ation of t h e protoco l sta ck. 1.Fi eldofthe In vent i o n
The  pre se ntinvention r el a te st o a  sem icond uc tordevice co m prisinga t r ansisto r,  an d more p a rt i c ularly, it  re lates t o a semico n duct o rd evice  compr isinga trans i sto rcapable  of s uppressin g dispers i onof  the  current  a mpli fi cat io n factor of the  transis tor.
2.D e script ion 
 of_cell broadcast_messages to the non-access_stratum (NAS)_(i.e.,_upper layers),_cell_broadcast schedule evaluation,_and configuration of_cell broadcasting services (CBS)_for discontinuous reception.
The_RLC_108 performs translation of application data units, (i.e., service data units (SDUs)), between air_interface_efficient transport_blocks,_(i.e.,_protocol data units (PDUs)), in_both the control and data_planes, (i.e._segmentation and concatenation), network configurable retransmission, and ordered_delivery_of data units_based on a specific mode, (i.e., an acknowledged mode_(AM), unacknowledged mode (UM), and transparent_mode (TM)).
The MAC_110_performs_mapping of logical channels_to transport channels, selecting the appropriate_uplink transport format combinations based on_instantaneous data rates within the WTRU, prioritization_of transport channels within the WTRU,_implementation of MAC-e/es protocols (HSUPA),_and implementation_of the MAC-hs protocols (HSPDA)_including MAC-hs reordering_queues, MAC-hs_PDU multiplexing, or_the like. Implementation of the MAC-e/es_protocols includes processing_of scheduling grants, buffer occupancy calculation,_rate_request mechanisms, transport_formation_combination_(TFC) recovery_and elimination, and_MAC-e/es_PDU construction.
A_physical_layer (PHY) 112 abstracts the specific_implementation_of the UMTS Layer 1 from the_UMTS AS stack, allowing_the_stack to be easily_ported to alternative UMTS Layer_1 implementations.
Conventional implementations of the protocol_stack are_all-software implementations_running on standard processors and standard real-time operating systems. As wireless_communication standards evolve to support ever_higher data rates, the_requirements placed_on_the protocol stack_software_increase. With_the emergence of high data rate services,_(such as_HSDPA, HSUPA, mobile broadcast multicast services_(MBMS)), implementation of the_protocol_stack in software on standard processors_will require a significant amount of_computing power. The power requirements_of_such_standard processors become a prohibitive_drain on the power consumption of_the battery-powered devices_and are not viable. Accordingly, it would_be_desirable to seek alternatives to implementation_of_the protocol stack. 1. Field of_the_Invention
The_present invention relates to a_semiconductor device comprising a transistor, and_more particularly, it relates to a semiconductor device comprising_a transistor capable_of suppressing dispersion of the_current_amplification_factor of the transistor.
2. Description