Private LTE Training Bootcamp – Private Long Term Evolution (LTE) Training Bootcamp
Private LTE Training Bootcamp – Private Long-Term Evolution (LTE) Training Bootcamp is a 3-day training course that covers the key concepts and theory of LTE private network planning, design, implementation, testing, operations and management.
Introduction to LTE (Long Term Evolution)
- Long Term Evolution (LTE) as a new radio platform technology
- Support to achieve higher peak throughputs than HSPA+ in higher spectrum bandwidth
- LTE for mobile, fixed, and private networks
- Key features and services
- LTE Network Architecture
- LTE Interfaces and protocols
- LTE Air Interface
- Introduction to E-UTRAN
- Architecture and node functions
- The LTE Evolved Packet System (EPS)
- LTE SAE Evolved Packet Core (EPC)
- Network nodes and roles of HSS, MME, S-GW, P-GW, and PCRF
- Key interfaces: S1, S5, S6, S10 and S11
Overview of LTE Air Interface
- LTE Air Interface
- Basics of OFDM and OFDMA
- LTE Antenna Considerations
- Principles of MIMO
- Radio Resource Management requirements
- The eNB host functions
- Radio Resource Management
- Radio Bearer Control
- Radio Admission Control
- Connection Mobility Control
- Dynamic Resource Allocation (scheduling)
LTE Operations and Procedures
- System acquisition
- Idle mode operations
- Synchronization
- Cell search and random access
- RRC connection establishment
- Traffic operations in DL & UL
- Bearer setup and handover
- Power control
- LTE/SAE signaling
- EPC (MME) registration
- Security procedures
- QoS and QoE in LTE
- Ethernet backhaul for LTE
- Wireless Networks Backhaul Overview
- GigE and Metro Ethernet
- LTE Backhaul Capacity Planning
LTE and EPC Security
- LTE security architecture
- LTE security procedures
- Security in E-UTRAN
- Security in EPC/EPS
- Authentication and Key Management (AKA)
- AKA Algorithms
LTE RF Planning and Design
- Overview of LTE Radio Network Design and Engineering
- Link Budget for LTE
- LTE Capacity Planning
- LTE Design and Site Selection
- LTE Configuration Parameters
- LTE Operational Parameters
- KPIs in LTE Radio Network
LTE Backhaul Requirements
- LTE Services
- LTE User Download Speeds
- Estimated Net LTE User Data Peak Rates
- LTE Cell Site Backhaul Requirements
- Topologies for LTE Backhaul
- Hub and Spoke
- Tree/Tiered Networks
- Mesh And Ring Networks
- Ring Network Topology
- LTE Capacity Planning Models
- Statistical Traffic Distribution
- Traffic Dimensioning
- Traffic Asymmetry
LTE Planning and Optimization
- Traffic and QoS considerations
- Security considerations
- Capacity planning considerations
- Planning tools
- Antenna selections
- Site location and integration
- Overview of optimization KPIs
Fundamentals of LTE Private Wireless Network
- Private Wireless
- What is Private LTE?
- What does Private LTE offer?
- Implement private wireless
- Enable Industry 4.0
- Use cases for industry
- The basic requirements for a private wireless network
- A radio network (RAN)
- A core network
- A backhaul network
- Access to licensed, shared or unlicensed radio spectrum.
- Radio access points provide coverage of your outdoor and indoor spaces
- The backhaul network
- Cabled Ethernet, passive optical LAN and/or microwave
- Mission- and business-critical industrial applications
LTE Private Network Management
- RF communications infrastructure
- Radio configuration and provisioning
- RF planning and optimization
- Site-wide RF coverage monitoring
- Device provisioning (subscriber identity module)
- Edge infrastructure implementation and provisioning
Analysis of Private Wireless Use Cases: Architecture and Network Management (OAM&P)
- Industrial-grade Private Wireless solutions
- Private wireless for airports
- Private wireless for manufacturing
- Private wireless for mining
- Private wireless for ports
- Converged industrial-grade private wireless and IP/MPLS FAN for power utilities
- Public safety mobile broadband transformation
- Private wireless for public safety
- Private wireless for education