5G Cellular Network
Cellular network (history)
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1G : Analog voice (AMPS, 800Mhz) - 1983
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2G : Digital voice (GSM) - 1991
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- Lets you send texts
- Europe led (1990’s)
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3G : Mobile data (UMTS, 3G) - 1998
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- Got you on the internet
- Japan led (2000’s)
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4G : Mobile internet (LTE, 4G) - 2008
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- Lets you stream audio/video
- US led (2011)
- Spawned mobile applications and services (ie., YouTube, Facebook, Google)
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5G : IoT (5G NR - "New Radio") - 2019
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- Gigabit LTE (Not 5G) - aka LTE Advanced, aka (AT&T's) 5GE
- 5G NSA (Non-Standalone) - Early 5G that uses 4G LTE as a backbone/anchor
- 5G SA (Standalone) - "True" 5G that doesn't utilize 4G spectrum
5G attributes (versus 4G)
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High throughput broadband – faster
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Low latency
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<1ms (40x faster) – “real time”
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Better frequency
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Higher reliability
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99.9999% (“six nines”) high availability
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Better (end-to-end) security
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Backbone – high capacity
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Internet of Things (IoT)
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Smaller cells - 1M devices/sq km (500x more)
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Low power
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Efficient – uses spectrum better
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Carrier aggregation
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Quadrature Amplitude Modulation (QAM)
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Massive MIMO (multiple input, multiple output)
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Beam steering / forming
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Dynamic Spectrum Sharing (DSS)
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Fixed wireless
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1 Gb/s connections to home and business
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Unified platform
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Spectrum types – licensed, shared and unlicensed
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Frequency bands – low, middle and high
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Deployments – traditional macro-cells to hotspot
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Interconnects – device-to-device and multi-hop mesh
(existing)
Telecommunications carrier
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Use 5G to directly send long form video via MMS (e.g. 30 minute video transmitted in seconds)
“Brand to consumer” experience
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“Fixed wireless” indoor internet gateways
Automobile
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Utilizing 5G NR C-V2X standard
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Vehicle-to-vehicle (V2V) – Collision avoidance safety system
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Vehicle-to-infrastructure (V2I) – Traffic signal timing and priority
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Vehicle-to-pedestrian (V2P) – Safety alerts to pedestrian and bicyclists
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Vehicle-to-network (V2N) – Real-time traffic/routing, cloud services
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Sharing sensor data and real world models
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Coordinate driving for improved autonomous driving
Factories
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No cables to move around (no re-cabling needed)
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Place sensors everywhere – sensor for every 1 sq meter not possible today
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Equipment (robots) can be moved easily
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Tailor operations to different production methods and demands
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Robot joints each have own IP address
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Increased cameras allow for automatic obstacle avoidance (increased safety)
Smart cities
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Use data proactively (versus reactively today – after incident occurs)
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Cameras and sensors increase cities operational efficiency
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ie., change traffic signals dynamically
(future)
Powerful cloud computing
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Lower latency allows data center to become compute engine for mobile devices
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i.e., Process game/VR/AR on cloud using high graphics without keeping large files on mobile
Better artificial intelligence (AI)
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Allows balancing “edge mobile” and server power
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Better service and more big data
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Mobile becomes passive “display” for processed data
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Lighter mobile device, lower costs, increased battery life
Better medical care
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Lighter, longer lasting wearables
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Monitors patient vitals and sends information directly to doctor
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Realtime telemedicine with AR/VR already available