5G Private: All You Need - From Spectrum to TCO analysis

Understand the 5G Core's Service-Based Architecture, where disaggregated network functions scale independently. You will learn how this flexibility allows you to size the network precisely to your facility's needs.

Let's look at a Standalone NPN where the enterprise owns the RAN, Core, and subscriber database for maximum security and resilience. You will know to build a network that operates independently.

Let's look at the model that use MNO infrastructure and Closed Access Group (CAG) IDs for lower CAPEX. You will understand the trade-off: lowest cost but least amount of enterprise control.

Let's look at network slicing 5G feature as a logical isolation tool, recognizing risks like shared hardware faults and incomplete isolation during radio congestion. You will be able to decide when physical isolation is preferred over virtual slicing for safety-critical apps.

In this video let's have a look at Shared RAN or "Neutral Host" options for venues like airports, shopping malls to reduce infrastructure costs and clutter. You will learn how multiple tenants can share radio equipment while maintaining logical separation.

Let's compare the reliability and cost of Licensed spectrum versus Unlicensed (interference-prone) and Shared spectrum options like CBRS. As well as select the right regulatory model for your 5G deployment.

Let's analyze the difference between outdoor wide-area coverage and hostile indoor environments filled with "metal canyons" and reflections.

Map your physical industrial topology and traffic models to the physics of 5G frequencies propagation. You will be able to balance coverage versus capacity based on terrain and building layouts.

In this video let's overview sub-1GHz bands for superior penetration in such cases as mines and large outdoor areas, while accepting limited bandwidth. You will be able to understand the why Sub-1GHz suited for massive coverage and telemetry reliability rather than high capacity.

Let's consider why deploying mid-band 5G spectrum can be optimal compromise for campus-wide networks, balancing indoor penetration with multi-gigabit speeds. Why you will be able to use the main benefits of 5G radio such as supporting high-density automation and AGVs and using massive MIMO.

Let's look at 5G mmWaves as "capacity bubbles" for extreme throughput zones, while taking into account its inability to penetrate walls or human bodies. You will also learn how to treat mmWave as a targeted overlay on top of a reliable mid-band layer.

Why implementing multi-band designs help us to route critical control data on robust low bands and AI video analytics cases on high capacity bands. Let's look at how to optimize network performance by assigning traffic types to the appropriate physical layer.

In this video let's talk about severe signal loss from modern materials like Low-E glass, walls and RF scattering effect which can make a lot of troubles for RF planning. You will learn how to model reflection and diffraction behaviors accurately to prevent coverage holes.

In this lesson let's map specific industries to the right spectrum: for example, sub-1GHz for geological penetration and wide coverage, and mid-bands for dense factory environments. You will be able to link the frequency choice to the physical reality of the site.

Let's look at important thing that often missed in real Private 5G: how to prevent Cross-Link TDD interference by aligning your TDD frame structure with nearby public networks to avoid downlink/uplink collisions. As well as possible trade-off between uplink capacity and regulatory coexistence issues.