The trainer is a Chartered Engineer professional
specialising in mobile communication technologies. He has accomplished
numerous consultancy projects in Europe and the Middle East for
companies like Orange, Vodafone, Q-Telecom, Forthnet, TeliaSonera,
IPwireless and ARCchart. Topics include GPRS and WCDMA Radio Network
Planning and Optimisation, Wireless LAN and Broadband Wireless Access
technologies like Flash-OFDM, IPWireless TDD, WiMAX and WiBRO. He
has considerable experience on WiMAX Network Design and Deployment
and currently he is heavily involved in WiMAX consultancy and training
in many parts of the world, some of which are based in Europe and
Asia.
He graduated from the University of Bristol with a degree in Electrical
& Electronic Engineering and holds a MSc in Mobile Communication
Systems & DSP from the same university. After his studies, he has
been involved as a research engineer with future wireless communication
technologies (3.5G, 4G, MIMO etc...) at the Orange Research & Innovation
department in Bristol UK. Equipped with valuable skills and knowledge
on different air interface technologies, he was later appointed
as a 3G Senior Network Planning Engineer, responsible for designing,
planning and optimising the Orange UK 3G network.
For the past 3 years, he has been working as a freelance wireless
communications consultant with projects mainly from mobile network
operators and broadband providers. He is also currently pursuing
an MBA from the University of Edinburgh.
Course Objectives
Covers the fundamental principles of 3G
LTE/4G like MC- CDMA, OFDM & OFDMA as well as MIMO, IPv6, AMC &
Software Defined Radios. It analyses the overall architecture, protocols,
RF planning aspects as well as 4G services infrastructures to offer
very high data rate wireless broadband services.
What you will learn:
i.Get a detailed state-of-the-art technical insight on 3G LTE and
4G mobile radio networks
ii.Understand fundamental building blocks of 3G LTE / 4G
iii.Understand the 3G LTE / 4G architecture
iv.Understand the different protocols involved to achieve high data
rates in 3G LTE / 4G
v.Learn how OFDM, MIMO and SDR work vi.Learn all about the 3G LTE
/ 4G air interface vii.Learn the operation of handovers over heterogeneous
networks viii.Learn the evolution path to 4G services
Course Overview
Provides an insight on the developments of
next generation mobile networks 3G LTE and 4G. The 3G Long Term
Evolution standardized by 3GPP and 3GPP2 and is considered as 3.9G,
the technology that will enable cellular networks to support up
to 10 times higher data rate & more users than existing HSxPA networks.
It uses OFDM and MIMO technology which will allow mobile operators
to offer true “quad play” services – voice, high-speed, IPTV & full
mobility. 3G LTE is designed to provide a simple evolution path
for UMTS operators as they migrate from UMTS to HSDPA to HSUPA &
then to 3G LTE (or otherwise called HSOPA). 4G technology stands
to be the future standard of wireless devices. It is the successor
wireless access technology to the 3G era. To cater the QoS & data
rate requirements set by forth coming applications like High-Definition
TV, DVB, etc, the 4G working groups - 3GPP and IEEE - have defined
that 4G should be very spectrally efficient, should dynamically
share & utilize the network resources, have a high data rate & capacity
larger than 3G, have smooth handovers across heterogeneous networks
& should be based on all IP packet switched network. Several telecom
vendor giants are currently testing 4G communication at 100Mbps
while moving and 1Gbps while stationary.
Pre-Requisites for Participants
GSM, WCDMA, WIMAX, WiFi
Who Should Attend?
The standard presentation of this course
assumes a bachelor of science in Electrical Engineering, Mathematics,
Physics, or a related subject along with an appropriate background
in communications and 3G.
Course Outline
Beyond 3G Wireless
HSDPA
HSUPA
Fixed-mobile convergence
Radio spectrum economics
Ubiquity
4G mobile communications
3G LTE
What is 3G LTE
Characteristics
Technologies used
Architecture & protocols
3G LTE services
4G Wireless
4G wireless defined
Standardization bodies
Radio spectrum
4G implementation and trials
4G characteristics
4G capabilities and services
Technological challenges
3G LTE/4G Radio Interface
Advanced multiple access techniques
Advanced modulation
Advanced coding techniques
4G packet schedulers
MC-CDMA
OFDM
OFDMA
MIMO
SDR
4G radio transceiver architectures
4G Mobility Considerations
Radio access
Handovers
Intersystem handovers
Interfrequency handovers
Universal and network agnostic roaming
Seamless connectivity
Ubiquitous access
4G Core Network
Possible architectures
Convergence of fixed and mobile access
Heterogeneous traffic management
QoS issues o Radio resource management
Mobility management
Throughput
Latency
Harmonized all-IP network infrastructure
IPv4 and IPv6
Operator service and access management
4G Radio Planning
OFDM channel planning
OFDMA planning
MIMO configurations
Planning for seamless mobile access
Advanced Services for 3G LTE and 4G
Service architectures
IP and SIP based services
Security aspects
3G LTE service business models and scenarios
4G service business models and scenarios
Note: Customisation
This course can be customized to focus in some of the following topics:
i.MC-CDMA
ii.OFDM / OFDMA
iii.MIMO
iv.SDR
v.3G LTE / 4G Radio Planning
vi.4G Services