The New Base Telecommunication Architecture – 5G | 1 |
Table of Contents | 2 |
Table of Figures | 7 |
The Lightwave Network Series of Reports | 9 |
The Lightwave Network Series of Reports | 9 |
   The Lightwave Network | 9 |
   The Lightwave Series of Reports | 10 |
     General Reports on the Network | 11 |
     General Market Reports | 11 |
     Specific Systems Reports | 14 |
The New Base Telecommunication Architecture – 5G | 17 |
Introduction | 17 |
History of Cellular Phones in the US | 18 |
   What are the Generations? | 18 |
     1st Generation | 19 |
      1G Standards | 19 |
     2nd Generation | 19 |
      2G Standards | 20 |
     3rd Generation | 20 |
      High-Speed Downlink Packet Access | 21 |
      3GPP Long Term Evolution, precursor of LTE Advanced – | 21 |
      Evolved HSPA | 21 |
      3G Standards | 21 |
     4th Generation | 22 |
      LTE Advanced | 23 |
      MIMO | 23 |
      4G Standards | 23 |
     5th Generation | 23 |
      5G Standards | 24 |
What is 5G? | 26 |
   Higher Capacity - | 26 |
   Higher Data Rate – | 27 |
   Lower Latency – | 29 |
   Massive Device Connectivity – | 30 |
   Reduced Costs - | 31 |
   Consistent Quality of Experience Provisioning | 32 |
What is the Architecture of 5G? | 32 |
5G Network Cooperation | 33 |
   Various Cell Sizes for 5G Networks | 34 |
   5G Network Architecture and Application Illustrations | 35 |
   Facilities | 37 |
     Small Cell Antennas | 37 |
     MIMO | 38 |
     MIMO and 5G | 38 |
     Massive MIMO Spectrum Multiplying Advantage | 40 |
     Fiber | 41 |
     Verizon Fiber Plan for 5G | 43 |
   Phones | 44 |
     Apple | 45 |
     Samsung | 45 |
     Huawei | 45 |
     Xiaomi | 46 |
     OPPO | 46 |
     Dominance of Samsung and Apple | 46 |
   5G Phones | 48 |
     Android Based Phones | 48 |
     Apple | 49 |
     Samsung | 49 |
   Other Customer Access Devices | 49 |
   5G Frequency Plans | 49 |
Types of 5G | 51 |
   Stationary | 51 |
   Mobile | 52 |
Who are the Primary US Carriers Involved in 5G? | 52 |
   Verizon Wireless | 53 |
   AT&T Mobility | 54 |
   T-Mobile US | 55 |
   Sprint Corporation | 56 |
Carriers’ Announced Deployment Plans | 57 |
   Verizon | 57 |
   AT&T | 58 |
   T-Mobile US | 59 |
   Sprint | 60 |
   T-Mobile and Sprint Merger | 60 |
Two Major Applications for 5G: IoT and Autonomous Vehicles | 61 |
   What is IoT? | 61 |
Availability of a Network for Connection – a Major Problem with IoT | 62 |
   Cellular IoT Connections Explained: NB-IoT vs. LTE-M vs. 5G and More | 62 |
     How did Cellular IoT come to Be? | 63 |
     Cat-1 | 64 |
     Cat-0 | 64 |
     Cat-M1/Cat-M/LTE-M | 64 |
     NB-IoT/Cat-M2 | 64 |
     EC-GSM (formerly EC-EGPRS) | 65 |
     5G as an IoT Connection Solution | 65 |
   How Does 5G Enable IoT? | 65 |
5G and Autonomous Vehicles | 65 |
   Autonomous Vehicles Benefits | 66 |
   Current Versions of Autonomy | 66 |
   Issues with Autonomous Development | 67 |
     Safety | 67 |
     Business Case | 68 |
   Availability of a Network for Interconnection | 69 |
5G as a Major Competitive Tool | 70 |
   Overbuilding | 70 |
   Cross-Boundary Service | 70 |
   Competitive Implications | 72 |
5G Forecasts | 75 |
   Mobile Traffic Forecast | 75 |
   US Mobile Carriers Forecast | 77 |
   Smartphone Growth Forecast for 5G - US | 78 |
     5G Phone Introduction Plans | 80 |
     5G US Penetration Forecast - Phones | 81 |
   Major Applications of 5G – Penetration Forecast | 82 |
     IoT – Internet of Things – 5G Penetration Forecast | 82 |
     Autonomous Vehicles – 5G Penetration Forecast | 83 |
   Network Impact of Autonomous Vehicles and IoT | 84 |
   5G Penetration Forecast – US | 85 |
   Over Build Forecast | 88 |
   Forecast Summary | 89 |
     Traffic: | 89 |
     US Mobile Carriers: | 89 |
     Phones: | 89 |
     IoT: | 89 |
     Autonomous Vehicles: | 89 |
     Over Build/ Cross Boundary: | 89 |
     5G Penetration: | 90 |
     Timeline | 90 |
   Radio Equipment Manufactures | 91 |
     Huawei | 91 |
     Ericsson | 91 |
     Nokia | 92 |
     ZTE | 93 |
     Samsung | 93 |
   Chip Set Vendors | 93 |
     Intel | 93 |
     Qualcomm | 94 |
     Samsung | 94 |
     Apple | 94 |
     Huawei | 95 |
Appendix I, List of US Cellular Carriers | 96 |
   Contiguous US and Hawaii] | 96 |
   Alaska | 97 |
Appendix II, Traffic Statistics Relationships | 99 |
   SONET/SDH Data Rates | 102 |
Appendix III, Data Traffic Fundamentals | 103 |
Appendix III, Data Traffic Fundamentals | 103 |
   Internet Traffic Calculations | 103 |
     Bits and Bytes | 103 |
     Transfer Rate | 103 |
     Busy Hour Traffic | 104 |
     Protocol Efficiencies | 105 |
     Peaking | 106 |
Figure 1, Lightwave Network | 10 |
Figure 2, Wireless Penetration by Generation and Forecast | 18 |
Figure 3, Network Generations Timeline | 24 |
Figure 4, 5G Capacity Capabilities | 26 |
Figure 5, Theoretical 5G Speed | 27 |
Figure 6, Standards Evolution from 4G to 5G | 28 |
Figure 7, Lower Latency Triangle - 5G | 29 |
Figure 8, IoT Sensing Points Explosion | 30 |
Figure 9, 5G Connection Capabilities | 31 |
Figure 10, 5G Overall Layout | 33 |
Figure 11, Cell/Technology Cooperation | 34 |
Figure 12, Cell Types from Macro to Small | 34 |
Figure 13, 5G Pictorial Architecture | 35 |
Figure 14, 5G Infrastructure Applications | 36 |
Figure 15, Different Types of Antennas to be Used with 5G | 37 |
Figure 16, MIMO Multipath Propagation Increases Thru-Put | 38 |
Figure 17, Depiction of Massive MIMO | 39 |
Figure 18, Example of MIMO Antenna | 40 |
Figure 19, 5G Layout Showing Fiber Connections | 41 |
Figure 20, Graphical Illustration of Fiber's Place in a 5G Network | 43 |
Figure 21, Smartphone Growth in US | 44 |
Figure 22, World-Wide Smartphone Shipments 2007-2016, by OS | 46 |
Figure 23, World Smartphone Suppliers - 2017 by Quarter | 47 |
Figure 24, 5G Frequency Allocation – US | 50 |