5g development with matlab technology and Design

extreme broadband speed, ultralow 
latency
, and 
ultrareliable web connectivity
. 
5G networks and devices will require substantially different 
architectures, radio access technology, and physical layer algorithms. 
Dense networks of small cells will complement macro base stations, 
operating at millimeter wave technologies and employing massive 
MIMO antenna arrays. And the processing components within network 
equipment and user devices will become more integrated
and adaptive.
Innovations like hybrid beamforming are stretching the old ways of 
developing wireless systems. These highly integrated technologies 
require a corresponding integration of engineering domain expertise 
and tools. 

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6
5G Development with MATLAB
5G Terminology and Expected Applications
By providing higher bandwidth capacity than current 4G–supporting 
broadband, 5G will enable a higher density of mobile broadband 
users and support ultrareliable device-to-device and massive
machine-type communications.
eMBB—Enhanced Mobile Broadband
• For high-capacity and ultrafast mobile communications for phones 
and infrastructure, virtual and augmented reality, 3D and ultra-HD 
video, and haptic feedback
URLLC—Ultrareliable and Low Latency
• For vehicle-to-vehicle (V2V) and vehicle-to-infrastructure (V2I) 
communications, autonomous driving
mMTC—Massive Machine-Type Communications
• For consumer and industrial IoT, Industry 4.0 mission-critical
machine-to-machine (MC-M2M) 
Key 5G Parameters
Latency in the air link
<1 ms
Latency end-to-end 
(device to core)
<10 ms
Connection density
100x vs. current 4G LTE
Area capacity density
1 (Tbit/s)/km
2
System spectral efficiency 10 (bit/s)/Hz/cell
Peak throughput 
(downlink) per connection 
10 Gbit/s 
Energy efficiency
>90% improvement over LTE

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