Rolling Out 5G

per bit)
C. Performance Optimization and Productization
1. Product life cycle
2. Aspects impacting end user experience
3. Call drops, throughput, link adaptation, power control, antenna effects, neighbor cell measurements, handover, field vs lab testing (all with examples)
D. Resource limitation (Markus)
1. Spectrum Policy
2. Management of Heterogeneous Radio Framework
E. Limited target applications (Markus)
1. Mobile Phone Applications
2. Connectivity for computing devices
F. Reputation vs technical capabilities
1. Prime brands vs others
2. China eco system
Chapter 3: 4G Evolution to 5G
(Estimated Pages): 20-30

Chapter Goal: Reader should learn what 5G is about, which additional requirements over 4G need to be met and which will be the main drivers that will make 5G a success.
A. Main Drivers:
1. 2020 Olympic Games, etc. for initial deployment of 5G
B. Requirements
1. 4G requirements remaining in 5G
2. New requirements
C. 5G Definition and Use Cases
1. 1000x capacity
2. 5G Use Cases
D. Evolving 4G features to support 5G use cases
1. Massive MIMO
2. Advanced interference mitigation techniques
3. Small cells / HetNet
4. D2D
Chapter 4: Key 5G Features
(Estimated Pages): 15-20

Chapter Goal: Reader should get an overview on key 5G features.
A. Capacity extension (factor 1000x and more)
B. mmWave Technology
C. User Plane / Data Plane split
D. Device-to-Device Communication and Opportunistic Networks
E. Wireless Backhauling
F. Cloud RAN, Network Function Virtualization, Mobile Edge Computing
G. Heterogeneous Multicomm/multi RAT (simultaneous usage of heterogeneous RATs)
H. Automated network reconfiguration (small cells / macro-cells activation/de-activation depending on traffic needs)
I. Energy efficient networks
Chapter 5: LSA /SAS
(Estimated Pages): 20-25

Chapter Goal: Reader should understand the need for a new spectrum usage/allocation paradigm. The current evolution is detailed with specific focus on European LSA and US SAS.

A. Motivation - Spectrum Scarcity and need for new spectrum usage paradigm
B. Introduction to LSA and relevant incumbents
1. System Design
2. Regulation Framework
3. Incumbents protection
4. Challenges and next steps
C. Introduction to SAS and relevant incumbents
1. System Design
2. Regulation Framework
3. Differences to LSA
4. Challenges and next steps
D. Challenges and next steps - LSA/SAS evolution
Chapter 6: Disruptor millimeter wave communication
(Estimated Pages): 20-25
Chapter Goal: Reader should get an overview on the use of millimeter frequency bands as part of the next generation cellular systems spectrum. Since millimeter wave technology is gaining increased momentum in the industry and academia the chapter will provide state-of-the-art insight in a technology which is being considered as an important component in enabling high capacity small cells.
A. Motivation for millimeter wave usage
1. The spectrum crunch
2. The capacity challenge
B. Standardization and regulation status
1. IEEE 802.11ad and 802.11ay
2. 3GPP
3. ETSI ISG mWT
4. CEPT, FCC
5. ITU-R WP5A and WP5D
C. Channel models
1. Urban areas outdoor
2. Indoor
D. Enabling technologies
1. Antennas
2. Radio frequency frontends
3. Base band
4. Protocols
Chapter 7: Conclusion and schedule and key standardization and regulation bodies and their activities
(Estimated Pages): 10-15
Chapter Goal: Wrap-up and next steps

A. 3GPP, ETSI, NGMN, WRC
B. Conclusion and next steps

Appendix:
(Estimated Pages)
Chapter Goal: This content is TBD

Group. He got his Master and PhD degree at Technical University Chemnitz. After that he contributed to 2nd, 3rd and 4th generation of mobile communication systems at Siemens AG, Infineon Technologies AG and Intel. He fostered partnerships between wireless ecosystem stakeholders as active member of national and international regulation and standardization bodies like 3GPP, BITKOM, DLNA, ETSI, IEEE, ITU and OMA. He consulted Germany's BMBF, BMWi and European Commission regarding wireless communication technologies. He works currently on 5th generation mobile communication millimeter wave topics like spectrum regulation, channel models, access and front and backhaul techniques as part of next generation network and is program manager for 3GPP standardisation at Intel.

Dr. Markus Mueck oversees Intel's technology development, standardization and partnerships in the field of spectrum sharing. In this capacity, he has contributed to standardization and regulatory efforts on various topics including spectrum sharing within numerous industry standards bodies, including ETSI, 3GPP, IEEE, the Wireless Innovation Forum and CEPT. Dr. Mueck is an adjunct professor of engineering at Macquarie University, Sydney, Australia, he acts as ETSI Board Member supported by INTEL and as general Chairman of ETSI RRS Technical Body (Software Radio and Cognitive Radio Standardization). He has earned engineering degrees from the University of Stuttgart, Germany and the Ecole Nationale Supérieure des Télécommunications (ENST) in Paris, France, as well as a doctorate degree of ENST in Communications. From 1999 to 2008, Dr. Mueck was Senior Staff member and Technical Manager at Motorola Labs, Paris, France. In this role, he contributed actively to various standardization bodies, namely Digital Radio Mondiale, IEEE 802.11n, etc. and lead the creation of the novel standardization group IEEE P1900.4 in the area of Cognitive Radio