rohde schwarz lte poster

2
OFDMA in downlink SC-FDMA in uplink LTE MIMO characteristics Number of eNB transmit antennas 1, 2 or 4 Number of UE receive antennas 2 or 4 DL transmit diversity space frequency block coding (SFBC) DL spatial multiplexing codebook-based precoding, maximum of 2 parallel code words DL cyclic delay diversity antenna-specific cyclic shifts UL MIMO mode multi-user/collaborative MIMO, transmit antenna selection 3GPP LTE Release 9 Feature Objective Multimedia broadcast multicast services (MBMS) support for efficient point-to-multipoint transmission LTE positioning support for network-assisted global navigation satellite system (GNSS), observed time difference of arrival (OTDOA), and enhanced cell ID positioning LTE dual layer beamforming MIMO spatial multiplexing support in case of beamforming Multicarrier/multi-RAT base stations RF requirements for base stations supporting multiple carriers and/or multiple radio access technologies (RAT) Public warning system (PWS) broadcast reception mechanism and associated paging to accommodate reception of alert messages (extension of the earthquake and tsunami warning system (ETWS) in LTE Release 8) Home eNB/femtocell RF requirements tailored to different base station classes (wide area, local area and specifically home base stations) Self-organizing networks (SON) additional support for mobility robustness optimization, mobility load balancing optimization and RACH optimization use cases Key parameters Frequency range (E-UTRA bands) 1) Band 6 is not applicable. 2) Europe only (ETSI EN 301 908-2). FDD (in MHz): 1) UL: 1920 to 1980 DL: 2110 to 2170 2) UL: 1850 to 1910 DL: 1930 to 1990 3) UL: 1710 to 1785 DL: 1805 to 1880 4) UL: 1710 to 1755 DL: 2110 to 2155 5) UL: 824 to 849 DL: 869 to 894 6) UL: 830 to 840 DL: 875 to 885 1) 7) UL: 2500 to 2570 DL: 2620 to 2690 8) UL: 880 to 915 DL: 925 to 960 9) UL: 1749.9 to 1784.9 DL: 1844.9 to 1879.9 10) UL: 1710 to 1770 DL: 2110 to 2170 11) UL: 1427.9 to 1447.9 DL: 1475.9 to 1495.9 12) UL: 699 to 716 DL: 729 to 746 13) UL: 777 to 787 DL: 746 to 756 14) UL: 788 to 798 DL: 758 to 768 15) UL: 1900 to 1920 DL: 2600 to 2620 2) 16) UL: 2010 to 2025 DL: 2585 to 2600 2) 17) UL: 704 to 716 DL: 734 to 746 18) UL: 815 to 830 DL: 860 to 875 19) UL: 830 to 845 DL: 875 to 890 20) UL: 832 to 862 DL: 791 to 821 21) UL: 1447.9 to 1462.9 DL: 1495.9 to 1510.9 22) UL: 3410 to 3490 DL: 3510 to 3590 23) UL: 2000 to 2020 DL: 2180 to 2200 24) UL: 1626.5 to 1660.5 DL: 1525 to 1559 25) UL: 1850 to 1915 DL: 1930 to 1995 26) UL: 814 to 849 DL: 859 to 894 27) UL: 807 to 824 DL: 852 to 869 28) UL: 703 to 748 DL: 758 to 803 29) UL: DL: 717 to 728 30) UL: 2305 to 2315 DL: 2350 to 2360 31) UL: 452.5 to 457.5 DL: 462.5 to 467.5 32) UL: DL: 1452 to 1496 TDD (in MHz): 33) 1900 to 1920 34) 2010 to 2025 35) 1850 to 1910 36) 1930 to 1990 37) 1910 to 1930 38) 2570 to 2620 39) 1880 to 1920 40) 2300 to 2400 41) 2496 to 2690 42) 3400 to 3600 43) 3600 to 3800 44) 703 to 803 Channel bandwidth 1.4 MHz 3 MHz 5 MHz 10 MHz 15 MHz 20 MHz Resource blocks (RB) (1 RB = 180 kHz) 6 15 25 50 75 100 Modulation schemes DL: QPSK, 16QAM, 64QAM UL: QPSK, 16QAM, 64QAM (optional for UE) Multiple access DL: OFDMA UL: SC-FDMA Peak data rate DL: 150 Mbit/s (UE category 4, 2x2 MIMO, 20 MHz), 300 Mbit/s (UE category 5, 4x4 MIMO, 20 MHz) UL: 75 Mbit/s (UE category 5, 20 MHz) Data source QAM modulator Mapping to subcarriers N-point IFFT Addition of cyclic prefix 1 resource block = 180 kHz = 12 subcarriers with spacing of 15 kHz Frequency 1 slot = 7 OFDMA symbols 1) = 0.5 ms 1 subframe = 2 slots = 1 ms = 1 transmission time interval 1 radio frame = 10 subframes = 10 ms OFDMA symbols Subcarriers Time UE1 UE2 UE3 UE4 UE5 UE6 1) For normal cyclic prefix duration. Example structure, 1 antenna signal (of a 2×2 MIMO setup) shown Not used for transmission at this antenna point Reference symbol PCFICH PDCCH PHICH Data source QAM modulator M-point DFT Mapping to subcarriers N-point IFFT Addition of cyclic prefix 1 resource block = 180 kHz = 12 subcarriers with spacing of 15 kHz Frequency 1 slot = 7 SC-FDMA symbols 1) = 0.5 ms 1 subframe = 2 slots = 1 ms = 1 transmission time interval 1 radio frame = 10 subframes = 10 ms SC-FDMA symbols Subcarriers Time UE1 UE2 UE3 UE4 1) For normal cyclic prefix duration. Example structure, no frequency hopping PUSCH for UE1 Demodulation reference signal for PUSCH PUCCH (used by UEs not scheduled in this subframe) Demodulation reference signal for PUCCH X2 X2 X2 S1 S1 S1 S1 eNB eNB eNB E-UTRAN Radio admission control Radio bearer control Connection mobility control eNB measurement configuration & provision Dynamic resource allocation (scheduler) PHY RLC PDCP RRC MAC Inter-cell RRM Mobility anchoring Idle state mobility handling EPS bearer control NAS security Packet filtering UE IP address allocation S-GW MME P-GW eNB Internet MME/S-GW MME/S-GW Long Term Evolution (LTE) Technology Overview Long Term Evolution (LTE) will ensure the competitiveness of UMTS for the next ten years and beyond by providing a high-data rate, low-latency and packet-optimized system. Also known as E-UTRA (Evolved Universal Terrestrial Radio Access), LTE is part of 3GPP Release 8 specifications. The innovations that LTE brings to the UMTS world include: New multiple access schemes for both LTE FDD and TD-LTE Scalable bandwidth up to 20 MHz MIMO antenna technology New data and control channels New network and protocol architecture Specific test and measurement challenges Commercial LTE networks have been launched world- wide, starting with the first network in Sweden in Decem- ber 2009. 3GPP Release 9 features added further enhance- ments to LTE. The 3GPP candidate technology submission for IMT-Advanced, developed as LTE Release 10 and beyond, has been accepted as a 4G technology. Known as LTE-Advanced, it complies with or exceeds the ITU established criteria in all aspects. Rohde & Schwarz is the right partner for making your LTE products happen. Our test solutions were the first on the market and since then have evolved to a full product portfolio from a single-source supplier, covering applications from R & D to conformance. MIMO antenna technology Multiple access schemes and physical layer signal generation LTE enhancements Network and protocol architecture Rohde & Schwarz LTE test solutions www.rohde-schwarz.com/technology/LTE Glossary: 3GPP = 3rd Generation Partnership Project, 4G = 4th Generation Mobile Communications Technology, ARQ = Automatic Repeat Request, DFT = Discrete Fourier Transformation, DL = Downlink, eNB = evolved NodeB, EPS = Evolved Packet System, E-UTRA = Evolved Universal Terrestrial Radio Access, FDD = Frequency Division Duplex, HARQ = Hybrid ARQ, IFFT = Inverse Fast Fourier Transform, IMT = International Mobile Telecommunications, IOT = Interoperability Testing, IP = Internet Protocol, ITU = International Telecommunication Union, MAC = Medium Access Control, MBMS = Multimedia Broadcast Multicast Service, MIMO = Multiple Input Multiple Output, MME = Mobility Management Entity, NAS = Non Access Stratum, OFDMA = Orthogonal Frequency Division Multiple Access, P-GW = Packet Data Network Gateway, PBCH = Physical Broadcast Channel, PCFICH = Physical Control Format Indicator Channel, PDCCH = Physical Downlink Control Channel, PDCP = Packet Data Convergence Protocol, PDSCH = Physical Downlink Shared Channel, PHICH = Physical HARQ Indicator Channel, PHY = Physical Layer, PMCH = Physical Multicast Channel, PRACH = Physical RACH, PUCCH = Physical Uplink Control Channel, PUSCH = Physical Uplink Shared Channel, QAM = Quadrature Amplitude Modulation, QPSK = Quadrature Phase Shift Keying, RACH = Random Access Channel, RAT = Radio Access Technology, RF = Radio Frequency, RLC = Radio Link Control, RRC = Radio Resource Control, RRM = Radio Resource Management, S-GW = Serving Gateway, SC-FDMA = Single Carrier Frequency Division Multiple Access, TD-LTE = Time Division – Long Term Evolution, TDD = Time Division Duplex, UE = User Equipment, UL = Uplink, UMTS = Universal Mobile Telecommunications System. LTE downlink Physical channels Physical downlink shared channel (PDSCH) carries user data Physical multicast channel (PMCH) carries MBMS user data Physical downlink control channel (PDCCH) carries control information (DCI = downlink control information) Physical control format indicator channel (PCFICH) indicates format of PDCCH (CFI = control format indicator) Physical hybrid ARQ indicator channel (PHICH) carries ACK/NACKs (HI = HARQ indicator) for uplink data packets Physical broadcast channel (PBCH) provides information during cell search, e.g. on system bandwidth Physical signals Primary and secondary synchronization signals provide acquisition of cell timing and identity during cell search Reference signal enables channel estimation LTE uplink Physical channels Physical uplink shared channel (PUSCH) carries user data Physical uplink control channel (PUCCH) carries control information (UCI = uplink control information) Physical random access channel (PRACH) preamble transmission for initial access Physical signals Demodulation reference signal enables channel estimation Sounding reference signal enables channel quality evaluation RF development and production testing Protocol stack testing and IOT RF conformance and network operator acceptance testing Mobile network testing Power meters Oscilloscopes Wideband radio communication tester Signal and spectrum analyzers Benchmarking, optimization, drive tests Installation and maintenance R&S®CMW500 protocol tester R&S®TS-LBS location based services test system R&S®FSH/ZVH Handheld spectrum/cable and antenna analyzer R&S®TSME with R&S®ROMES QualiPoc Android Diversity Benchmarker II Diversity Ranger R&S®SMW200A R&S®SMBV100A R&S®FSV R&S®FSW R&S®RTO/RTE/RTM R&S®CMW500 R&S®NRP R&S®FPS R&S®SGT100A R&S®TS8980 RF and RRM test system Signal generators, and fading simulator Application layer testing with IP analysis from ipoque

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Page 1: Rohde Schwarz LTE Poster

OFDMA in downlink

SC-FDMA in uplink

LTE MIMO characteristicsNumber of eNB transmit antennas 1, 2 or 4

Number of UE receive antennas 2 or 4

DL transmit diversity space frequency block coding (SFBC)

DL spatial multiplexing codebook-based precoding, maximum of 2 parallel code words

DL cyclic delay diversity antenna-specifi c cyclic shifts

UL MIMO mode multi-user/collaborative MIMO, transmit antenna selection

3GPP LTE Release 9Feature Objective

Multimedia broadcast multicast services (MBMS) support for effi cient point-to-multipoint transmission

LTE positioning support for network-assisted global navigation satellite system (GNSS), observed time difference of arrival (OTDOA), and enhanced cell ID positioning

LTE dual layer beamforming MIMO spatial multiplexing support in case of beamforming

Multicarrier/multi-RAT base stations RF requirements for base stations supporting multiple carriers and/or multiple radio access technologies (RAT)

Public warning system (PWS) broadcast reception mechanism and associated paging to accommodate reception of alert messages(extension of the earthquake and tsunami warning system (ETWS) in LTE Release 8)

Home eNB/femtocell RF requirements tailored to different base station classes (wide area, local area and specifi cally home base stations)

Self-organizing networks (SON) additional support for mobility robustness optimization, mobility load balancing optimization and RACH optimization use cases

Key parametersFrequency range(E-UTRA bands)

1) Band 6 is not applicable.2) Europe only (ETSI EN 301 908-2).

FDD (in MHz):1) UL: 1920 to 1980 DL: 2110 to 21702) UL: 1850 to 1910 DL: 1930 to 19903) UL: 1710 to 1785 DL: 1805 to 18804) UL: 1710 to 1755 DL: 2110 to 21555) UL: 824 to 849 DL: 869 to 8946) UL: 830 to 840 DL: 875 to 885 1)

7) UL: 2500 to 2570 DL: 2620 to 26908) UL: 880 to 915 DL: 925 to 9609) UL: 1749.9 to 1784.9 DL: 1844.9 to 1879.910) UL: 1710 to 1770 DL: 2110 to 217011) UL: 1427.9 to 1447.9 DL: 1475.9 to 1495.912) UL: 699 to 716 DL: 729 to 74613) UL: 777 to 787 DL: 746 to 75614) UL: 788 to 798 DL: 758 to 76815) UL: 1900 to 1920 DL: 2600 to 2620 2)

16) UL: 2010 to 2025 DL: 2585 to 2600 2)

17) UL: 704 to 716 DL: 734 to 74618) UL: 815 to 830 DL: 860 to 87519) UL: 830 to 845 DL: 875 to 89020) UL: 832 to 862 DL: 791 to 82121) UL: 1447.9 to 1462.9 DL: 1495.9 to 1510.922) UL: 3410 to 3490 DL: 3510 to 3590 23) UL: 2000 to 2020 DL: 2180 to 220024) UL: 1626.5 to 1660.5 DL: 1525 to 155925) UL: 1850 to 1915 DL: 1930 to 199526) UL: 814 to 849 DL: 859 to 89427) UL: 807 to 824 DL: 852 to 86928) UL: 703 to 748 DL: 758 to 80329) UL: – DL: 717 to 72830) UL: 2305 to 2315 DL: 2350 to 236031) UL: 452.5 to 457.5 DL: 462.5 to 467.532) UL: – DL: 1452 to 1496

TDD (in MHz):33) 1900 to 192034) 2010 to 202535) 1850 to 191036) 1930 to 199037) 1910 to 193038) 2570 to 262039) 1880 to 192040) 2300 to 240041) 2496 to 269042) 3400 to 360043) 3600 to 380044) 703 to 803

Channel bandwidth 1.4 MHz 3 MHz 5 MHz 10 MHz 15 MHz 20 MHz

Resource blocks (RB) (1 RB = 180 kHz)

6 15 25 50 75 100

Modulation schemes DL: QPSK, 16QAM, 64QAMUL: QPSK, 16QAM, 64QAM (optional for UE)

Multiple access DL: OFDMAUL: SC-FDMA

Peak data rate DL: 150 Mbit/s (UE category 4, 2x2 MIMO, 20 MHz), 300 Mbit/s (UE category 5, 4x4 MIMO, 20 MHz)UL: 75 Mbit/s (UE category 5, 20 MHz)

Data source QAMmodulator

Mapping tosubcarriers

N-point IFFT Addition ofcyclic prefix

1 resource block = 180 kHz = 12 subcarriers with spacing of 15 kHz

Frequency

1 slot = 7 OFDMA symbols1) = 0.5 ms

1 subframe = 2 slots = 1 ms = 1 transmission time interval

1 radio frame = 10 subframes = 10 ms

OFDM

A sy

mbo

ls

Subcarriers

Time

UE1 UE2 UE3

UE4 UE5 UE6

1) For normal cyclic prefix duration.

Example structure, 1 antenna signal (of a 2×2 MIMO setup) shown

Not used for transmission at this antenna point Reference symbol

PCFICH PDCCH PHICH

Data source QAMmodulator

M-point DFT Mapping tosubcarriers

N-point IFFT Addition ofcyclic prefix

1 resource block = 180 kHz = 12 subcarriers with spacing of 15 kHz

Frequency

1 slot = 7 SC-FDMA symbols1) = 0.5 ms

1 subframe = 2 slots = 1 ms = 1 transmission time interval

1 radio frame = 10 subframes = 10 ms

SC-F

DMA

sym

bols

Subcarriers

Time

UE1 UE2

UE3 UE4

1) For normal cyclic prefix duration.

Example structure, no frequency hopping

PUSCH for UE1 Demodulation reference signal for PUSCH

PUCCH (used by UEs not scheduled in this subframe)

Demodulation reference signal for PUCCH

X2

X2X2

S1S1S1S1

eNB

eNBeNB

E-UTRAN

Radio admission control

Radio bearer control

Connection mobility control

eNB measurementconfiguration & provision

Dynamic resource allocation (scheduler)

PHY

RLC

PDCP

RRC

MAC

Inter-cell RRM Mobility anchoring

Idle state mobility handling

EPS bearer control

NAS security

Packet filtering

UE IP addressallocation

S-GWMME P-GWeNB

Internet

MME/S-GW MME/S-GW

Long Term Evolution (LTE)Technology OverviewLong Term Evolution (LTE) will ensure the competitiveness

of UMTS for the next ten years and beyond by providing a

high-data rate, low-latency and packet-optimized system.

Also known as E-UTRA (Evolved Universal Terrestrial Radio

Access), LTE is part of 3GPP Release 8 specifications. The

innovations that LTE brings to the UMTS world include:

❙ New multiple access schemes for both LTE FDD and TD-LTE

❙ Scalable bandwidth up to 20 MHz

❙ MIMO antenna technology

❙ New data and control channels

❙ New network and protocol architecture

❙ Specific test and measurement challenges

Commercial LTE networks have been launched world-

wide, starting with the first network in Sweden in Decem-

ber 2009. 3GPP Release 9 features added further enhance-

ments to LTE. The 3GPP candidate technology submission for

IMT-Advanced, developed as LTE Release 10 and beyond, has

been accepted as a 4G technology. Known as LTE-Advanced,

it complies with or exceeds the ITU established criteria in all

aspects.

Rohde & Schwarz is the right partner for making your

LTE products happen. Our test solutions were the first

on the market and since then have evolved to a full

product portfolio from a single-source supplier, covering

applications from R & D to conformance.

MIMO antenna technology

Multiple access schemes and physical layer signal generation

LTE enhancements

Network and protocol architecture

Rohde & Schwarz LTE test solutions

www.rohde-schwarz.com/technology/LTE

Glossary: 3GPP = 3rd Generation Partnership Project, 4G = 4th Generation Mobile Communications Technology, ARQ = Automatic Repeat Request, DFT = Discrete Fourier Transformation, DL = Downlink, eNB = evolved NodeB, EPS = Evolved Packet System, E-UTRA = Evolved Universal Terrestrial Radio Access, FDD = Frequency Division Duplex, HARQ = Hybrid ARQ, IFFT = Inverse Fast Fourier Transform, IMT = International Mobile Telecommunications, IOT = Interoperability Testing, IP = Internet Protocol, ITU = International Telecommunication Union, MAC = Medium Access Control, MBMS = Multimedia Broadcast Multicast Service, MIMO = Multiple Input Multiple Output, MME = Mobility Management Entity, NAS = Non Access Stratum, OFDMA = Orthogonal Frequency Division Multiple Access, P-GW =  Packet Data Network Gateway, PBCH = Physical Broadcast Channel, PCFICH =  Physical Control Format Indicator Channel, PDCCH = Physical Downlink Control Channel, PDCP =  Packet Data Convergence Protocol, PDSCH = Physical Downlink Shared Channel, PHICH =  Physical HARQ Indicator Channel, PHY = Physical Layer, PMCH = Physical Multicast Channel, PRACH = Physical RACH, PUCCH = Physical Uplink Control Channel, PUSCH = Physical Uplink Shared Channel, QAM = Quadrature Amplitude Modulation, QPSK = Quadrature Phase Shift Keying, RACH = Random Access Channel, RAT =  Radio Access Technology, RF = Radio Frequency, RLC = Radio Link Control, RRC = Radio Resource Control, RRM = Radio Resource Management, S-GW = Serving Gateway, SC-FDMA = Single Carrier Frequency Division Multiple Access, TD-LTE = Time Division – Long Term Evolution, TDD = Time Division Duplex, UE = User Equipment, UL = Uplink, UMTS = Universal Mobile Telecommunications System.

LTE downlink

Physical channels

Physical downlink shared channel (PDSCH)

carries user data

Physical multicast channel (PMCH)

carries MBMS user data

Physical downlink control channel (PDCCH)

carries control information (DCI = downlink controlinformation)

Physical control formatindicator channel (PCFICH)

indicates format of PDCCH (CFI = control format indicator)

Physical hybrid ARQ indicator channel (PHICH)

carries ACK/NACKs (HI = HARQ indicator) for uplink data packets

Physical broadcast channel (PBCH)

provides information during cell search, e.g. on system bandwidth

Physical signals

Primary and secondarysynchronization signals

provide acquisition of cell timing and identity during cell search

Reference signal enables channel estimation

LTE uplinkPhysical channels

Physical uplink shared channel (PUSCH)

carries user data

Physical uplink control channel (PUCCH)

carries control information (UCI = uplink control information)

Physical random access channel (PRACH)

preamble transmission for initial access

Physical signals

Demodulation reference signal

enables channel estimation

Sounding reference signal enables channel quality evaluation

RF development and production testing Protocol stack testing and IOT

RF conformance and network operator acceptance testing

Mobile network testing

Power meters

Oscilloscopes

Wideband radio communication tester

Signal and spectrum analyzers

Benchmarking, optimization, drive tests

Installation and maintenance

R&S®CMW500 protocol tester

R&S®TS-LBS location based services test system

R&S®FSH/ZVHHandheld spectrum/cable andantenna analyzer

R&S®TSME with R&S®ROMES

QualiPoc Android

Diversity Benchmarker II

Diversity Ranger

R&S®SMW200A R&S®SMBV100A

R&S®FSVR&S®FSW

R&S®RTO/RTE/RTM

R&S®CMW500

R&S®NRP

R&S®FPS

R&S®SGT100A

R&S®TS8980 RF and RRM test system

Signal generators, and fading simulator Application layer testing with IP analysis from ipoque

LTE_po_en.indd 1 03.02.2015 11:13:47

Page 2: Rohde Schwarz LTE Poster

Test & Measurement

Poster | 05.01

R&

S® is a reg

istered trademark of R

ohde & S

chwarz G

mbH

& C

o. KG

Trade nam

es are trademarks of the ow

ners P

D 5213.9986.82 | V

ersion 05.01 | February 2015 (as)

Long Term

Evolution (LTE

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ata without tolerance lim

its is not binding | S

ubject to change

© 2008 - 2015 R

ohde & S

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mbH

& C

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| 81671 Munich, G

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Service th

at add

s value

❙ Worldw

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❙ Local and personalized❙ C

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PD 5214.1443.12 05.01 PDP 1 en

Ab

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The Rohde &

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supplier of solutions in the fields of test and m

easurement, broad-

cast and media, secure com

munications, cyber security, and

radiomonitor ing

and radiolocation. Founded more than 80 years

ago, this independent g

lobal company has an extensive sales net-

work and is present in m

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headquartered in Munich, G

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65 65 13 04 88 custom

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1990

3)

UL:

1710

to

17

85

DL:

1805

to

18

804)

UL

: 17

10

to

1755

DL

: 21

10

to

2155

5)

UL:

824

to

849

DL:

869

to

894

6)

UL:

830

to

840

DL:

875

to

885

1)

7)

UL:

2500

to

25

70

DL:

2620

to

26

908)

UL

: 88

0 to

91

5 DL

: 92

5 to

96

09)

UL

: 17

49.9

to

17

84.9

DL

: 18

44.9

to

1879

.910

) UL

: 17

10

to

1770

DL

: 21

10

to

2170

11)

UL:

1427

.9

to

1447

.9

DL:

1475

.9 t

o 14

95.9

12)

UL:

699

to

716

DL:

729

to

746

13)

UL:

777

to

787

DL:

746

to

756

14)

UL:

788

to

798

DL:

758

to

768

15)

UL:

1900

to

19

20

DL:

2600

to

26

20 2)

16)

UL:

2010

to

20

25

DL:

2585

to

26

00 2)

17)

UL:

704

to

716

DL:

734

to

746

18)

UL:

815

to

830

DL:

860

to

875

19)

UL:

830

to

845

DL:

875

to

890

20)

UL:

832

to

862

DL:

791

to

821

21)

UL:

1447

.9

to

1462

.9

DL:

1495

.9 t

o 15

10.9

22)

UL:

3410

to

34

90

DL:

3510

to

35

90

23)

UL:

2000

to

20

20

DL:

2180

to

22

0024

) UL

: 16

26.5

to

16

60.5

DL

: 15

25

to

1559

25)

UL:

1850

to

19

15

DL:

1930

to

19

9526

) UL

: 81

4

to

849

DL

: 85

9

to

894

27)

UL:

807

to

82

4 DL

: 85

2

to

869

28)

UL:

703

to

74

8

DL:

758

to

80

329

) UL

: –

DL:

717

to

72

830

) UL

: 23

05

to

2315

DL

: 23

50

to

2360

31)

UL:

452.

5 t

o

457.

5

DL:

462.

5

to

467.

532

) UL

: –

DL:

1452

to

14

96

TDD

(in M

Hz):

33) 1

900

to

1920

34) 2

010

to

2025

35) 1

850

to

1910

36) 1

930

to

1990

37) 1

910

to

1930

38) 2

570

to

2620

39) 1

880

to

1920

40) 2

300

to

2400

41) 2

496

to

2690

42) 3

400

to

3600

43) 3

600

to

3800

44)

703

to

80

3

Chan

nel b

andw

idth

1.4

MHz

3 M

Hz5

MHz

10 M

Hz15

MHz

20 M

Hz

Reso

urce

blo

cks

(RB)

(1

RB

= 1

80 k

Hz)

615

2550

7510

0

Mod

ulat

ion

sche

mes

DL: Q

PSK,

16Q

AM, 6

4QAM

UL: Q

PSK,

16Q

AM, 6

4QAM

(opt

iona

l for

UE)

Mul

tiple

acc

ess

DL: O

FDM

AUL

: SC-

FDM

A

Peak

dat

a ra

teDL

: 150

Mbi

t/s

(UE

cate

gory

4, 2

x2 M

IMO,

20

MHz

),

3

00 M

bit/

s (U

E ca

tego

ry 5

, 4x4

MIM

O, 2

0 M

Hz)

UL:

75

Mbi

t/s

(UE

cate

gory

5, 2

0 M

Hz)

Data

sou

rce

QAM

mod

ulat

orM

appi

ng to

subc

arrie

rs

N-p

oint

IFFT

Addi

tion

ofcy

clic

pre

fix

1 re

sour

ce b

lock

= 1

80 k

Hz =

12

subc

arrie

rs w

ith s

paci

ng o

f 15

kHz Fr

eque

ncy

1 sl

ot =

7 O

FDM

A sy

mbo

ls1) =

0.5

ms

1 su

bfra

me

= 2

slo

ts =

1 m

s =

1 tr

ansm

issi

on ti

me

inte

rval

1 ra

dio

fram

e =

10

subf

ram

es =

10

ms

OFDMA symbols

Subc

arrie

rs

Tim

e

UE1

UE2

UE3

UE4

UE5

UE6

1) F

or n

orm

al c

yclic

pre

fix d

urat

ion.

Exam

ple

stru

ctur

e, 1

ant

enna

sig

nal (

of a

2 M

IMO

setu

p) s

how

n

N

ot u

sed

for t

rans

mis

sion

at t

his

ante

nna

poin

t

Re

fere

nce

sym

bol

PC

FICH

PDCC

H PH

ICH

Data

sou

rce

QAM

mod

ulat

orM

-poi

nt D

FT

Map

ping

tosu

bcar

riers

N

-poi

nt IF

FTAd

ditio

n of

cycl

ic p

refix

1 re

sour

ce b

lock

= 1

80 k

Hz =

12

subc

arrie

rs w

ith s

paci

ng o

f 15

kHz Fr

eque

ncy

1 sl

ot =

7 S

C-FD

MA

sym

bols

1) =

0.5

ms

1 su

bfra

me

= 2

slo

ts =

1 m

s =

1 tr

ansm

issi

on ti

me

inte

rval

1 ra

dio

fram

e =

10

subf

ram

es =

10

ms

SC-FDMA symbols

Subc

arrie

rs

Tim

e

UE1

UE2

UE3

UE4

1)

For n

orm

al c

yclic

pre

fix d

urat

ion.

Exam

ple

stru

ctur

e, n

o fr

eque

ncy

hopp

ing

PU

SCH

for U

E1

Dem

odul

atio

n re

fere

nce

sign

al fo

r PUS

CH

PUCC

H (u

sed

by U

Es n

ot s

ched

uled

in th

is s

ubfra

me)

Dem

odul

atio

n re

fere

nce

sign

al fo

r PUC

CH

X2

X2X2

S1S1

S1S1

eNB

eNB

eNB

E-UT

RAN

Radi

o ad

mis

sion

co

ntro

l

Radi

o be

arer

con

trol

Conn

ectio

n m

obili

ty

cont

rol

eNB

mea

sure

men

tco

nfigu

ratio

n &

prov

isio

n

Dyna

mic

reso

urce

al

loca

tion

(sch

edul

er)

PHY

RLC

PDCP

RRC

MAC

Inte

r-cel

l RRM

Mob

ility

an

chor

ing

Idle

sta

te m

obili

ty

hand

ling

EPS

bear

er

cont

rol

NAS

sec

urity

Pack

et

filte

ring

UE IP

add

ress

allo

catio

n

S-GW

MM

EP-

GWeN

B

Inte

rnet

MM

E/S-

GWM

ME/

S-GW

Long

Ter

m E

volu

tion

(LTE

)Te

chno

logy

Ove

rvie

wLo

ng T

erm

Evo

lutio

n (L

TE) w

ill e

nsur

e th

e co

mpe

titiv

enes

s

of U

MTS

for

the

nex

t te

n ye

ars

and

beyo

nd b

y pr

ovid

ing

a

hig

h-da

ta r

ate,

low

-late

ncy

and

pack

et-o

ptim

ized

sys

tem

.

Als

o kn

own

as E

-UTR

A (E

volv

ed U

nive

rsal

Ter

rest

rial R

adio

Acc

ess)

, LTE

is p

art

of 3

GP

P R

elea

se 8

spe

cific

atio

ns. T

he

inno

vatio

ns t

hat

LTE

brin

gs

to t

he U

MTS

wor

ld in

clud

e:

❙New

mul

tiple

acc

ess

sche

mes

for

bot

h LT

E F

DD

and

TD

-LTE

❙Sca

labl

e ba

ndw

idth

up

to 2

0 M

Hz

❙MIM

O a

nten

na t

echn

olog

y

❙New

dat

a an

d co

ntro

l cha

nnel

s

❙New

net

wor

k an

d pr

otoc

ol a

rchi

tect

ure

❙Spe

cific

tes

t an

d m

easu

rem

ent

chal

leng

es

Com

mer

cial

LTE

net

wor

ks h

ave

been

laun

ched

wor

ldw

ide,

star

ting

with

the

firs

t ne

twor

k in

Sw

eden

in D

ecem

ber

2009

.

3GP

P R

elea

se 9

feat

ures

add

ed fu

rthe

r en

hanc

emen

ts t

o LT

E.

The

3GP

P c

andi

date

tec

hnol

ogy

subm

issi

on fo

r IM

T-A

dvan

ced,

deve

lope

d as

LTE

Rel

ease

10

and

beyo

nd, h

as b

een

acce

pted

as a

4G

tec

hnol

ogy.

Kno

wn

as L

TE-A

dvan

ced,

it c

ompl

ies

with

or e

xcee

ds t

he IT

U e

stab

lishe

d cr

iteria

in a

ll as

pect

s.

Roh

de

& S

chw

arz

is t

he

rig

ht

par

tner

for

mak

ing

you

r

LTE p

rod

uct

s h

app

en.

Ou

r te

st s

olu

tion

s w

ere

the

firs

t

on

th

e m

arke

t an

d s

ince

th

en h

ave

evolv

ed t

o a

fu

ll

pro

du

ct p

ort

folio

fro

m a

sin

gle

-sou

rce

sup

plie

r, c

ove

rin

g

app

licat

ion

s fr

om

R &

D t

o c

on

form

ance

.

MIM

O an

tenn

a te

chno

logy

Mul

tiple

acc

ess

sche

mes

and

phy

sica

l lay

er s

igna

l gen

erat

ion

LTE

enha

ncem

ents

Net

wor

k an

d pr

otoc

ol

arch

itect

ure

Rohd

e & S

chw

arz L

TE te

st s

olut

ions

ww

w.ro

hde-

schw

arz.c

om/t

echn

olog

y/LT

E

Glo

ssar

y:

3G

PP

 = 3

rd G

ener

atio

n Pa

rtne

rshi

p P

roje

ct, 4

G =

 4th

Gen

erat

ion

Mob

ile C

omm

unic

atio

ns

Tech

nolo

gy,

AR

Q =

 Aut

omat

ic R

epea

t R

eque

st, D

FT =

 Dis

cret

e Fo

urie

r Tr

ansf

orm

atio

n,

DL =

 Dow

nlin

k, e

NB

 = e

volv

ed N

odeB

, EP

S =

 Evo

lved

Pac

ket

Sys

tem

, E-U

TR

A =

 Evo

lved

U

nive

rsal

Ter

rest

rial R

adio

Acc

ess,

FD

D =

 Fre

quen

cy D

ivis

ion

Dup

lex,

HA

RQ

 = H

ybrid

AR

Q,

IFFT

 = In

vers

e Fa

st F

ourie

r Tr

ansf

orm

, IM

T =

 Inte

rnat

iona

l Mob

ile T

elec

omm

unic

atio

ns,

IOT =

 Inte

rope

rabi

lity

Test

ing

, IP

 = In

tern

et P

roto

col,

ITU

 = In

tern

atio

nal T

elec

omm

unic

atio

n U

nion

, M

AC

 = M

ediu

m A

cces

s C

ontr

ol, M

BM

S =

 Mul

timed

ia B

road

cast

Mul

ticas

t S

ervi

ce,

MIM

O =

 Mul

tiple

Inpu

t M

ultip

le O

utpu

t, M

ME =

 Mob

ility

Man

agem

ent

Ent

ity, N

AS

 = N

on

Acc

ess

Str

atum

, O

FDM

A =

 Ort

hog

onal

Fre

quen

cy D

ivis

ion

Mul

tiple

Acc

ess,

P-G

W =

  Pac

ket

Dat

a N

etw

ork

Gat

eway

, P

BC

H =

 Phy

sica

l Bro

adca

st C

hann

el, P

CFI

CH

 =  P

hysi

cal

Con

trol

For

mat

Indi

cato

r C

hann

el, P

DC

CH

 = P

hysi

cal D

ownl

ink

Con

trol

Cha

nnel

, P

DC

P =

  Pac

ket

Dat

a C

onve

rgen

ce P

roto

col,

PD

SC

H =

 Phy

sica

l Dow

nlin

k S

hare

d C

hann

el,

PH

ICH

 =  P

hysi

cal H

AR

Q In

dica

tor

Cha

nnel

, P

HY

 = P

hysi

cal L

ayer

, P

MC

H =

 Phy

sica

l M

ultic

ast

Cha

nnel

, P

RA

CH

 = P

hysi

cal R

AC

H, P

UC

CH

 = P

hysi

cal U

plin

k C

ontr

ol C

hann

el,

PU

SC

H =

 Phy

sica

l Upl

ink

Sha

red

Cha

nnel

, Q

AM

 = Q

uadr

atur

e A

mpl

itude

Mod

ulat

ion,

Q

PS

K =

 Qua

drat

ure

Pha

se S

hift

Key

ing

, R

AC

H =

 Ran

dom

Acc

ess

Cha

nnel

, R

AT =

  Rad

io

Acc

ess

Tech

nolo

gy,

RF 

= R

adio

Fre

quen

cy, R

LC =

 Rad

io L

ink

Con

trol

, R

RC

 = R

adio

R

esou

rce

Con

trol

, R

RM

 = R

adio

Res

ourc

e M

anag

emen

t, S

-GW

 = S

ervi

ng G

atew

ay,

SC

-FD

MA

 = S

ing

le C

arrie

r Fr

eque

ncy

Div

isio

n M

ultip

le A

cces

s, T

D-L

TE =

 Tim

e D

ivis

ion

– Lo

ng T

erm

Evo

lutio

n, T

DD

 = T

ime

Div

isio

n D

uple

x, U

E =

 Use

r E

quip

men

t, U

L =

 Upl

ink,

U

MTS

 = U

nive

rsal

Mob

ile T

elec

omm

unic

atio

ns S

yste

m.

LTE d

ow

nlin

k

Phys

ical

ch

ann

els

Phy

sica

l dow

nlin

k sh

ared

ch

anne

l (P

DS

CH

) ca

rrie

s us

er d

ata

Phy

sica

l mul

ticas

t ch

anne

l (P

MC

H)

carr

ies

MB

MS

use

r da

ta

Phy

sica

l dow

nlin

k co

ntro

l ch

anne

l (P

DC

CH

)ca

rrie

s co

ntro

l inf

orm

atio

n (D

CI =

dow

nlin

k co

ntro

lin

form

atio

n)

Phy

sica

l con

trol

for

mat

indi

cato

r ch

anne

l (P

CFI

CH

)in

dica

tes

form

at o

f P

DC

CH

(C

FI =

con

trol

for

mat

in

dica

tor)

Phy

sica

l hyb

rid A

RQ

in

dica

tor

chan

nel (

PH

ICH

)ca

rrie

s A

CK

/NA

CK

s (H

I = H

AR

Q in

dica

tor)

for

up

link

data

pac

kets

Phy

sica

l bro

adca

st c

hann

el

(PB

CH

)pr

ovid

es in

form

atio

n du

ring

ce

ll se

arch

, e.g

. on

syst

em

band

wid

th

Phys

ical

sig

nal

s

Prim

ary

and

seco

ndar

ysy

nchr

oniz

atio

n si

gna

lspr

ovid

e ac

quis

ition

of

cell

timin

g a

nd id

entit

y du

ring

ce

ll se

arch

Ref

eren

ce s

igna

len

able

s ch

anne

l est

imat

ion

LTE u

plin

kP

hys

ical

ch

ann

els

Phy

sica

l upl

ink

shar

ed

chan

nel (

PU

SC

H)

carr

ies

user

dat

a

Phy

sica

l upl

ink

cont

rol

chan

nel (

PU

CC

H)

carr

ies

cont

rol i

nfor

mat

ion

(UC

I = u

plin

k co

ntro

l in

form

atio

n)

Phy

sica

l ran

dom

acc

ess

chan

nel (

PR

AC

H)

prea

mbl

e tr

ansm

issi

on f

or

initi

al a

cces

s

Phys

ical

sig

nal

s

Dem

odul

atio

n re

fere

nce

sig

nal

enab

les

chan

nel e

stim

atio

n

Sou

ndin

g r

efer

ence

sig

nal

enab

les

chan

nel q

ualit

y ev

alua

tion

RF

dev

elop

men

t an

d p

rod

uct

ion

tes

tin

gP

roto

col st

ack t

esti

ng

an

d I

OT

Sig

nal

ing

an

d R

F co

nfo

rman

ce t

esti

ng

Mob

ile n

etw

ork

tes

tin

g

Pow

er m

eter

s

Osc

illosc

op

es

Wid

eban

d r

adio

com

mu

nic

atio

n t

este

r

Sig

nal

an

d s

pec

tru

m a

nal

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s

Ben

chm

arkin

g,

op

tim

izat

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, d

rive

tes

ts

Inst

alla

tion

an

d m

ain

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R&

S®C

MW

500

prot

ocol

tes

ter

R&

S®T

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t sy

stem

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S®F

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HH

andh

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spec

trum

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le a

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alyz

er

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ith R

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ndro

id

Div

ersi

ty B

ench

mar

ker

II

Div

ersi

ty R

ang

er

R&

S®S

MW

200A

R&

S®S

MB

V10

0A

R&

S®F

SV

R&

S®F

SW

R&

S®R

TO/R

TM/R

TE

R&

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MW

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S®F

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S®T

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F an

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Sig

nal

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d f

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licat

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er t

esti

ng

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h I

P a

nal

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fro

m

ipoq

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