Wireless Communication Systems Modul 13 4G LTE / LTE Advance for Mobile Broadband Faculty of Electrical Engineering Bandung 2015

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Transkripsi:

Wireless Communication Systems Modul 13 4G LTE / LTE Advance for Mobile Broadband Faculty of Electrical Engineering Bandung 2015 Modul 13-4G LTE

Evolution of Wireless and Wireless

1G to 3,9 G Evolution 1G to 3,9 G G NMT GSM GPRS EDGE WCDMA HSDPA LTE 4G : LTE Advanced Peak Transfer Data Rate No packet data service CSD : 9,6 Kbps HSCSD : 38,4 Kbps 56 114 Kbps 384 Kbps 2 Mbps 14,4 Mbps 50 Mbps (LTE) : 100 Mbps (LTE Advance d)

Node-B HSDPA TRX Evolution step GSM / GPRS / UMTS / HSDPA Um HSDPA RNC Edge TRX BTS Edge Abis PCU BSC Iu IWU MSC SS7 Network PSTN Network HLR/AuC EIR GSM INFRASTRUCTURE UMTS (WCDMA) INFRASTRUCTURE Border Gateway (BG) Serving GPRS Support Node (SGSN) GPRS backbone network (IP based) GPRS INFRASTRUCTURE Internet Inter- PLMN network Modul 13-4G LTE Lawful Interception Gateway (LIG) Gateway GPRS Support Node (GGSN)

Evolusi Wireless

3 Kelemahan 3G 1.Bit rate maksimum masih 1/20 dari sistem 802.11n dan 802.16e/m. 2.Latency dari user plane traffic (UMTS: >30 ms) dan prosedur penugasan resource (UMTS: >100 ms) terlalu besar untuk menangani trafik dengan variansi tinggi secara efisien 3. Kompleksitas terminal sistem WCDMA /MC CDMA sehingga menyebabkan perangkat menjadi mahal Modul 13-4G LTE

1G to 4G 1G 2G 3G 4G Modul 13-4G LTE

Characteristics of 3GPP Technologies 2G 2.5G 2.5G 3G 3.5G 3.5G 3.9G 4G Modul 13-4G LTE

Background of LTE: Access Network Evolution The Driver for LTE is Data 3GPP EDGE WDCMA HSPA LTE 2.5G 3G 3.5G 3.9G 3GPP2 CDMA 1X EV-DO DOrA LTE But Voice and SMS: Still the leading Mobile Applications today Modul 13-4G LTE

Low Mobility High Mobility Wireless Access Roadmap Vehicular Pedestrian $0.30 - $20/Mbytes 2G GSM, cdmaone PDC 2.5G GPRS, EDGE, CDMA2000 1X 144 kbps 3G Software Defined Radio Opportunity W-CDMA/HSPA R4 (2.3 Mbps), R5 (14.4 Mbps) CDMA2000 1x EV-DO (2.4 Mbps), EV-DV(3 Mbps) HPSDA WiMAX 802.16e, LTE 802.11b 802.16a FBWA $0.01-$0.07/Mbytes Multimedia Data, Location Services, Augmented Reality, Music/Video, Voice over IP, Remote Control Early 4G Systems LTE 3.9G 54 Mbps 4G 802.16m WiMAX 2 LTE Advanced Portable DECT/Cordless Phones Bluetooth 802.11b 2-11 Mbps 802.11g 802.11a 802.15a UWB PAN 760 Kbps xdsl/cable Smart Antennas 56K Modems Fixed E1/T1 Lines 1.5 20 Mbps Broadband Fixed Wireless Access T3 Lines Modul 13-4G LTE 0.01 0.1 1.0 10 100

& Mobile Timeline Mobile WiMAX 4G Rel 1.0 802.16e-2005 Rel 1.5 802.16e Rev 2 Rel 2.0 802.16m 3.5G 3GPP HSPA Rel-6 IP e2e Network HSPA+ Rel-7 & Rel-8 IMT- Advanced Circuit Switched Network 3.9G 4G 4G LTE & LTE Advanced Mobile WiMAX time to market advantage IP e2e Network CDMA-Based OFDMA-Based 2008 2009 2010 2011 2012 14 Modul 13-4G LTE

Evolution of TDMA, CDMA and OFDMA Systems 4G 4G Modul 13-4G LTE

Radio Spektrum UMTS

Core Network Architecture UMTS TE... Terminal Equipment MT... Mobile Terminal UTRAN... Access Network ERAN... Edge Access Network SGSN... Serving GPRS Support Node GGSN... Gateway GPRS Support Node HSS... Home Subscriber Server CSCF... Call State Control Function Modul 13-4G LTE R-SGW... Roaming Signalling Gateway Function MGCF... Media Gateway Control Function MGW... Media Gateway Function T-SGW... Transport Signalling Gateway Function

Arsitektur Jaringan UMTS BTS Abis GSM BSS TRAU A VL R PSTN Um BSC MSC GMSC ISDN Uu BTS UTRAN Gb TC OM C Iu CS VL R HL R Au C External Network UE (USIM) USIM & SIM for GSM, UMTS & UMTS/GSM Terminals NODE B NODE B Iub Iub RNC Iur Iu PS Gn Gi SGSN GGSN Iu PDN e.g. internet, intranet, X-25 NODE B RNC GSM Phase 2+ Core Network Gambar 2.4 Arsitektur Jaringan UMTS Modul 13-4G LTE

W-CDMA Network

Model Radio Access W-CDMA

Spesifikasi W-CDMA (UMTS)

Kanal Fisik - UMTS

Type Kanal pada UMTS

Definisi 4G Generasi keempat dari standar nirkabel selular. Penerus standar 3G dan 2G. 1G : analog 2G : transmisi digital 3G : mendukung multimedia support, transmisi spread spectrum minimal 200 kbps 4G : jaringan seluruhnya berbasis packet-switched, mobile ultra-broadband access, multi-carrier transmission 4G secara standar merujuk ke IMT Advanced sebagaimana didefinisikan oleh ITU-R. LTE : Long Term Evolution adalah teknologi pre-4g dari 3GPP sering dicap sebagai 4G LTE release pertama tidak memenuhi persyaratan the IMT Advanced Modul 13-4G LTE

4G Mobile Broadband Systems A variety of technology standards able to provide transmission rates beyond 3G (2 Mb/s) Advantages Provides access to services and applications requiring these higher transmission rates Extends capacity in zones where 3G is close to saturation Microwave and millimeter wave bands to be used mean smaller cell size (a few to 1000 meters); 5 GHz band will be first used with migration to higher carrier frequencies Coverage not continuous, necessitating mobile units to roam between different bands and standards Modul 13-4G LTE

Alasan Munculnya Kebutuhan LTE Kebutuhan akan laju data yang lebih tinggi dan efisiensi spectral yang lebih baik * Demand layanan broadband yang meningkat * Mahalnya spektrum Kebutuhan sistem Packet Switched yang teroptimisasi * Evolusi ke all IP Network Kebutuhan akan QoS yang tinggi * Penggunaan licensed frequency untuk jamininan QoS * Minimum latency Kebutuhan akan infrastructure yang lebih murah * Penyederhanaan architecture dan pengurangan network element Modul 13-4G LTE

Theory of LTE

About LTE/System Architercture Evolution (SAE) Packet Switched data is becoming more and more dominant VoIP is the most efficient method to transfer voice data Need for PS optimised system Amount of data is continuously growing Need for higher data rates at lower cost Users demand better quality to accept new services High quality needs to be quaranteed > Alternative solution for non-3gpp technologies (WiMAX) needed LTE will enhance the system to satisfy these requirements. Modul 13-4G LTE

LTE Overview 3GPP R8 solution for the next 10 years. Peaks rates: DL 100Mbps with Orthogonal Frequncy Division Multiple Access (OFDMA), UL 50Mbps with Single Carrier Frequncy Division Multiple Access (SC-FDMA). Latency for Control-plane < 100ms, for User-plane < 5ms. Optimised for packet switched domain, supporting VoIP. Scaleable RF bandwidth between 1.25MHz to 20MHz. 200 users per cell in active state. Supports Mobile Broadband Multimedia Services. Uses MIMO multiple antenna technology. Optimised for 0-15km/h mobile speed and support for up-to 120-350 km/h. No soft handover, Intra-RAT handovers with UTRAN. Simpler E-UTRAN architecture: no RNC, no CS domain, no DCH. Modul 13-4G LTE

LTE technical objectives User throughput [/MHz]: Downlink: 3 to 4 times Release 6 HSDPA Uplink: 2 to 3 times Release 6 Enhanced Uplink Downlink Capacity: Peak data rate of 100 Mbps in 20 MHz maximum bandwidth Uplink capacity: Peak data rate of 50 Mbps in 20 MHz maximum bandwidth Latency: Transition time less than 5 ms in ideal conditions (user plane), 100 ms control plane (fast connection setup) Modul 13-4G LTE

Mobility: Optimised for low speed but supporting 120 km/h Most data users are less mobile! Simplified architecture: Simpler E-UTRAN architecture: no RNC, no CS domain, no DCH Scalable bandwidth: 1.25MHz to 20MHz: Deployment possible in GSM bands. Modul 13-4G LTE

LTE agreements 2 main issues have been investigated: The physical layer The access network internal architecture Physical layer Downlink based on OFDMA OFDMA offers improved spectral efficiency, capacity etc Uplink based on SC-FDMA SC-FDMA is technically similar to OFDMA but is better suited for uplink from hand-held devices (battery power considerations) For both FDD and TDD modes (User Equipment to support both) With Similar framing + an option for TD SCDMA framing also Access Network consideration For the access network it was agreed to get rid of the RNC which minimized the number of nodes Modul 13-4G LTE

LTE radio interface New radio interface modulation: SC-FDMA UL and OFDMA DL Frequency division, TTI 1 ms Scalable bandwidth 1.25-20MHz TDD and FDD modes UL/DL in either in same or in another frequncy OFDMA has multiple orthogonal subcarries that can be shared between users quickly adjustable bandwith per user SC-FDMA is technically similar to OFDMA but is better suited for uplink from hand-held devices Single carrier, time space multiplexing Tx consumes less power Modul 13-4G LTE From Ericsson, H. Djuphammar

Empat Level Jaringan LTE

Interface X2 Interface X2 is a interface structure protocol which has been used for moblity occurs between 2 enodeb near handover process On data process handover which is transfered through this interface X2 is specific data from user Fungction of Interface X2 are : Intra-handover mobility management Coordination of Resource status information, and traffic overload situation Setting up and Resetting of Interface X2 The handling of error cases Modul 13-4G LTE

E-UTRAN Node B ( enodeb )

Functions of enodeb Terminates RRC, RLC and MAC protocols and takes care of Radio Resource Management functions Controls radio bearers Controls radio admissions Controls mobility connections Allocates radio resources dynamically (scheduling) Receives measurement reports from UE Selects Mobility Management Entity (MME) at UE attachment Schedules and transmits paging messages coming from MME Schedules and transmits broadcast information coming from MME & O&M Decides measurement report configuration for mobility and scheduling Does IP header compression and encryption of user data streams Modul 13-4G LTE

Functions of agateway Takes care of Mobility Management Entity (MME) functions Manages and stores UE context Generates temporary identities and allocates them to UEs Checks authorization Distributes paging messages to enodebs Takes care of security protocol Controls idle state mobility Control SAE bearers Ciphers & integrity protects NAS signaling Modul 13-4G LTE

Mobilty Management Entity (MME)

Serving Gateway (S-GW)

Packet Data Network Gateway (P-GW)

Flat architecture of LTE and Service Architecture Evolution Modul 13-4G LTE

Evolusi lanjutan dalam standar jaringan selular yang ditentukan oleh 3GPP (Third Generation Partnership Project). Teknologi lanjutan dari generasi 1xEV-DO. Berbeda dengan Wimax yang awalnya dikembangkan untuk komunikasi data. Roadmap evolusi teknologi selular di dunia yaitu : (1)GSM(2G) GPRS(2.5G) EDGE WCDMA(3G) HSDPA (3.5G) LTE (4G). (2) CDMA (2G) CDMA 2000 EV-DO (3G) UMB (4G). (3) Wi-Fi Fixed WiMAX Mobile WiMAX WiMAX II (4G). Modul 13-4G LTE

LTE,UMB,WIMAX II Modul 13-4G LTE