LTE Advanced is a 4G mobile communication standard approved by the ITU in 2012, designed to enhance traditional LTE capabilities with features such as improved peak data rates, spectrum efficiency, and reduced latency. It utilizes advanced technologies like self-optimizing networks, carrier aggregation, and coordinated multipoint transmission. While industry trials show its viability, the actual deployment timing depends on market demand and existing LTE rollouts.

1. CHAITANYA
chaitanya.singh87@gmail.com
ABV-IIITM
Gwalior
The Global 4G
Solution

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INTRODUCTION
• LTE Advanced is a mobile communication 4G standard
approved by International Telecommunications Union
(ITU) in Jan 2012 [1].
• Standardized by the 3rd Generation Partnership Project
(3GPP) as a major enhancement of the Long Term
Evolution (LTE) standard.
• It incorporates many enhancements including the
aggregation of multiple radio channels, advanced
antenna techniques, advanced network topology
and others.

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Evolutionary Trends
Source of Figure : [2]

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LTE-Advanced Features
• Peak data rates: downlink - 1 Gbps; uplink - 500 Mbps.
• Spectrum efficiency: 3 times greater than LTE.
• Peak spectrum efficiency: downlink - 30 bps/Hz; uplink - 15 bps/Hz.
• Spectrum use: the ability to support scalable bandwidth use and spectrum
aggregation where non-contiguous spectrum needs to be used. the lower
and upper bandwidths limits are 40 MHz and 100 MHz.
• Latency: from Idle to Connected in less than 50 ms and then shorter than 5
ms one way for individual packet transmission.
• Cell edge user throughput to be twice that of LTE.
• Average user throughput to be 3 times that of LTE.
• Compatibility: LTE Advanced shall be capable of interworking with LTE and
3GPP legacy systems.

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Principal technologies
• SON ( Self-Optimizing Networks).
• Carrier aggregation of contiguous and non-contiguous
spectrum allocations.
• Range expansion with Interference management and
suppression
• CoMP (Coordinated Multipoint transmission & reception).
• Relaying.
• Higher order MIMO.
• Heterogeneous network support.
• all-IP Flat Architecture.

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• Self-Optimizing Networks
Self configuration Self optimization Self healing
Source of Figure: [4]

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• Carrier aggregation
Source of Figure: [3]

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• Range expansion
Source of Figure: [5]

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• Coordinated Multipoint transmission & reception
• Joint processing:
• Coordinated scheduling or beamforming:
Source of Figure: [3]

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• Relaying
Source of Figure: [2]

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CONCLUSION
• Industry-supported field trials are already demonstrating the
viability of many of the technical concepts in LTE-Advanced.
• LTE-Advanced meets all 4G requirements and ITU officially
certified it as 4G.
• Nevertheless, the timing of LTE-Advanced deployment is
difficult to predict and will be dependent on industry demand
and the success of today’s Release 8 and 9 LTE rollouts.

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REFERENCES
1. "IMT-Advanced standards for mobile broadband communications,"
ITU NEWS, www.itunews.itu.in , Jan 2012.
2. "Introducing LTE-advanced,“ Agilent Technologies,
www.agilent.com/finnd/LTE, Application Note, Nov 2010.
3. "4G Mobile Broadband Evolution: 3GPP Release 10 and Beyond," 4G
Americas, www.4gamericas.org, White Paper, Feb 2011.
4. "Self-Optimizing Network: The benefits of SON in LTE," 4G Americas,
www.4gamericas.org, White Paper, July 2011.
5. "LTE Advanced: Heterogeneous Networks,“ Qualcomm,
http://www.qualcomm.com/solutions/wireless-
networks/technologies/lte-advanced, White Paper, Jan 2011.

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chaitanya.singh87@gmail.com
Additional Slides

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3GPP Organizational Partners
Market Representation Partners
• Association of Radio Industries
and Businesses (ARIB) Japan
• IMS Forum
• Alliance for Telecommunications • TD-Forum
Industry Solutions (ATIS) USA • GSA
• China Communications
Standards Association (CCSA)
• GSM Association
China • IPV6 Forum
• European Telecommunications • UMTS Forum
Standards Institute (ETSI)
Europe
• 4G Americas
• Telecommunications Technology • TD SCDMA Industry Alliance
Association (TTA) Korea • InfoCommunication Union
• Telecommunication Technology
Committee (TTC) Japan
• Femto Forum
• CDMA Development Group
• Cellular Operators Association of India
(COAI)
• NGMN Alliance

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• all-Internet Protocol (IP) packet switched network.
Specific • Interoperability with existing wireless standards.
requirements of • A nominal data rate of 100 Mbit/s at high speeds
and 1 Gbit/s in fixed positions.
the IMT-Advanced
• Dynamically share and use the network resources
report included: to support more simultaneous users per cell.
• Scalable channel bandwidth 5–20 MHz, optionally
up to 40 MHz.
• Peak link spectral efficiency of 15 bit/s/Hz in the
downlink, and 6.75 bit/s/Hz in the uplink (meaning
that 1 Gbit/s in the downlink should be possible
over less than 67 MHz bandwidth).
• System spectral efficiency of up to 3 bit/s/Hz/cell in
the downlink and 2.25 bit/s/Hz/cell for indoor
usage
• Seamless connectivity and global roaming across
multiple networks with smooth handovers[.
• Ability to offer high quality of service for
multimedia support.

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FDD and TDD LTE
frequency bands

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• Base Station Self-Configuration
• Automatic Neighbor Relation
(ANR)
• Tracking Area Planning
• PCI Planning
• Load Balancing
• Mobility Robustness / Handover
Optimization
• RACH (Random access channel)
Optimization
• Inter Cell Interference
Coordination
• Energy Savings
• Celloutage Detection And
Compensation
• Coverage And Capacity
Optimization

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Common LTE FDD & TDD
Chipset Platform
• MODEMS & DATA CARDS
• SMARTPHONES & TABLETS