
1- Following a Design Process Introduction
2- PPDIOO (Prepare, Plan, Design, Implement, Operate, Optimize) Lifecycle Introduction
3- PBM (Plan,Build,Manage) Lifecycle Introduction
1- Evaluating Customer Requirements Introduction
2- Recommendation for Evaluating Customer Requirements
1- Evaluating Client Requirements Introduction
2- Examining Client 802.11 Capabilities
3- Examining Client RF Capabilities
4- Examining Client Security Capabilities
5- Examining Client Density
1- AP Deployment Models Introduction
2- Data Deployment Model Introduction
3- Voice/Video Deployment Model Introduction
4- Location Deployment Model Introduction
1- The Effect of Material Attenuation on Wireless Design Overview
2- Common Obstacles and Their Estimated Attenuation Values Introduction
1- Common Deployment Models for Different Industries Introduction
2- Enterprise Office Overview
3- Small or Home Offices Overview
4- Healthcare Overview
5- Hospitality and Hotels Overview
6- Hotspots Overview
7- Education Overview
8- Retail Overview
9- Warehousing Overview
10- Manufacturing Overview
1- Designing with Regulations in Mind Introduction
2- 5GHz Band Channel Allocation Overview
3- Wi-Fi RF Regulations for the FCC and ETSI Domains Overview
1- Choosing the Right Survey Type Introduction
2- Offsite Survey : Blueprint study Introduction
3- Offsite Survey : Predictive survey Introduction
4- Onsite Survey : Walkthrough Introduction
5- Onsite Survey : Layer 1 site survey Introduction
6- Onsite Survey : Layer 2 site survey Introduction
7- Onsite Survey : Post-deployment site survey Introduction
1- Offsite predictive tools Introduction
2- Onsite survey tools Introduction
3- Ekahau Pro Tool Introduction
4- Cisco Prime Infrastructure Tool Introduction
5- Yagna RF Wi-Fi site planner Tool Introduction
1- Conducting a Predictive Site Survey Introduction
2- Predictive Survey Output in Prime Infrastructure Introduction
3- Conducting an Offsite Site Survey Summary
1- Performing a Walkthrough Survey Necessity
2- Performing a Walkthrough Survey Limitations
3- Performing a Walkthrough Survey Considerations
4- Types of areas can be identified Introduction
1- Performing a Layer 1 Survey Introduction
2- L1 Sweep Tool Introduction
3- L1 Sweep Tool Essentials
4- Decibel measures and rules review
1- Interferer Types and Effects Introduction
2- Well-Known Signal Types Introduction
3- Bluetooth Introduction
4- Video cameras (and A/V transmitters) Introduction
5- Narrow transmitters Introduction
6- Microwave ovens Introduction
7- Jammers Introduction
1- Physical Infrastructure Requirements Introduction
2- PoE and PoE+ Introduction
3- UPoE and UPoE+ Introduction
4- Summary of Power over Ethernet Standards and Capabilities Introduction
1- The need to Power Injectors Introduction
2- Power Injector Deployment Options Introduction
1- MultiGigabit Technology Introduction
2- Main characteristics of mGig Technology Introduction
3- MultiGigabit Connection to an Access Point Introduction
4- Supported mGig Speeds with Associated Cable Categories Introduction
1- Common options for mounting Cisco APs Introduction
2- Ceiling and Wall Mounting Access Points Introduction
3- Mounting Access Points Below a Suspended Ceiling Introduction
4- Mounting Access Points Above the Ceiling Tiles Introduction
1- Grounding and Securing Access Points Introduction
1- Logical Infrastructure Requirements Introduction
2- CAPWAP Flow Requirements
3- CAPWAP Control and Data Plane Channels Requirements
4- CAPWAP Sessions Between the APs and the Controller Requirements
1- AAA and DHCP Services Logical Path Requirements
2- Summary of AAA and DHCP Services and Ports Used for the Wireless Infrastructure Requirements
1- Licensing Overview
2- Right to Use (RTU) licensing Introduction
3- Smart Licensing Introduction
1- Defining AP Coverage Introduction
2- AP’s cell Introduction
3- Basic Service Set (BSS) Introduction
4- Basic Service Area (BSA) Introduction
1- Sensitivity level Introduction
2- Noise Floor Introduction
3- Why we need consider Receiver Sensitivity ?
1- Signal-to-noise ratio (SNR) Introduction
2- Example of a Changing Noise Floor and SNR Introduction
3- Example Client Device Receive Sensitivity and SNR Specifications Introduction
4- Example Client Device Receiver Sensitivity and SNR Affected by Channel Width Introduction
5- Thermal noise Introduction
1- Dynamic Rate Shifting (DRS) Introduction
2- Asymmetric Transmit Power Levels and Data Rates Introduction
3- Asymmetric Transmit Power Levels Isolating a Client Introduction
4- Dynamic Transmit Power Control (DTPC) Introduction
1- A Hypothetical AP Layout Introduction
2- Poorly Configured RF Coverage Introduction
3- Radio Resource Management (RRM) Summary
1- Measuring the RSSI of NDP Messages from an AP Introduction
2- Measuring the RSSI of NDP Messages from an AP Introduction
3- Capture NDP Advertisements Across Bands and Channels
4- Collecting RSSI and Channel Information from NDP Neighbors
1- RF group Introduction
2- Member APs Introduction
3- Group leader Introduction
4- RF neighborhoods Introduction
1- Basic Concept of the TPC Algorithm Introduction
2- TPC Selects the AP That Has Received the Third Strongest NDP Message Introduction
3- Cisco AP Transmit Power Level Value Correlation Introduction
1- Dynamic Channel Assignment (DCA) Introduction
2- Basic Concept of the DCA Algorithm Introduction
3- Metrics Affecting DCA Decisions Introduction
4- Channel Change Decision Process at the AP with the Worst CM Value Introduction
5- Cost Metric (CM) Introduction
6- Event-driven RRM (ED-RRM) Introduction
1- Coverage hole detection mitigation (CHDM) Introduction
2- Coverage hole detection mitigation (CHDM) Usage Introduction
3- Coverage hole detection mitigation (CHDM) Detection Conditions Introduction
1- Flexible Radio Assignment (FRA) Introduction
2- Comparing Cell Size Between 5GHz and 2.4GHz AP Radios Introduction
3- The Effects of Removing a Redundant 2.4GHz AP Radio Introduction
4- Coverage Overlap Factor (COF) Introduction
5- 802.11v BSS transition Introduction
6- 802.11k site report Introduction
7- 802.11 probe suppression Introduction
1- Localizing RRM with RF Profiles Introduction
2- RF profiles Introduction
3- AP Groups Introduction
4- Example AP Groups and RF Profiles Applied to Buildings Introduction
1- Receiver Start of Packet Threshold Detection (RxSOP) feature Introduction
2- Optimizing AP Cell Sensitivity with RxSOP Introduction
3- The Effects of Setting an RxSOP Threshold Introduction
4- RxSOP Threshold Settings and RSSI Values Introduction
1- Mesh Network Architecture and Components Introduction
2- Mesh access points Introduction
3- Wireless LAN controller (WLC) Introduction
4- Prime Infrastructure / DNA Center Introduction
1- Mesh Access Points Introduction
2- Examples of Cisco Outdoor Mesh APs Introduction
3- International Protection System Marking (IPxx) Introduction
1- Roaming Review
2- A Basic Roam from One AP to Another Introduction
1- Intra-Controller (Layer 2) Roam Introduction
2- Inter-Controller (Layer 2) Roam Introduction
1- Inter-Controller (Layer 3) Roam Introduction
2- Anchor controller Introduction
3- Foreign controller Introduction
4- Point of attachment (POA) Introduction
5- Point of presence (POP) Introduction
6- Static IP tunneling Introduction
7- Guest anchor Introduction
1- Defining the Mobility Hierarchy Introduction
2- Mobility groups Introduction
3- Mobility domain Introduction
4- An Example Mobility Group of Four Wireless Controllers Introduction
5- An Example of the Mobility Group and Domain Hierarchy Introduction
1- Exploring Mobility Operations Introduction
2- Announcing a Client Association in a Mobility Domain Introduction
3- Announcing an Intra-Controller Roam in a Mobility Domain Introduction
4- Announcing an Inter-Controller Layer 3 Roam in a Mobility Domain Introduction
5- Validating the Mobility Hierarchy and Tunneling Introduction
6- CLI Commands for Testing Mobility Messaging Between Controllers Introduction
1- Optimizing AP Selection for Client Roaming Introduction
2- Optimizing the AP Scanning Process Introduction
3- Optimizing with CCX Assistance Introduction
4- Optimizing with 802.11k Assistance Introduction
5- Optimizing with 802.11v Assistance Introduction
1- Basic Wireless Network Building Blocks and Potential Failures Introduction
2- Wireless Network Failure Points Introduction
1- Making Controller Connectivity More Resilient Introduction
2- Cisco WLC Distribution System Ports Configured as a Single LAG Introduction
3- Improving WLC Availability by Distributing Links of the LAG Introduction
1- Designing High Availability for APs Introduction
2- An AP Joins One of Several Discovered Controllers Introduction
3- An AP Joins a Different Controller After WLC Fails Introduction
1- AP Prioritization Introduction
2- The Result of Undersized Controllers During a Failure Introduction
3- Detecting a Controller Failure Introduction
4- AP Fallback Introduction
1- Designing High Availability for Controllers Introduction
2- N+1 Redundancy Introduction
3- N+N Redundancy Introduction
4- N+N+1 Redundancy Introduction
4- SSO Redundancy Introduction
Wireless Network Design Essentials is a complete, practical, and career-focused guide to mastering enterprise Wi-Fi design. Whether you are preparing for certifications like CCNP Enterprise, CWNA, or looking to advance your career as a wireless engineer, network engineer, or IT professional, this course gives you the real-world skills employers value most.
In today’s world, every business relies on fast, secure, and reliable Wi-Fi. Skilled wireless designers are in high demand , yet the industry suffers from a shortage of professionals who truly understand RF behavior, site surveys, RRM, roaming, mesh, and high-availability. This course closes that gap by teaching you everything you need to plan, design, and optimize enterprise-grade wireless networks with confidence.
You’ll learn how to analyze customer and client requirements, perform predictive and onsite surveys, evaluate RF fundamentals, design efficient AP layouts, optimize cell performance, and configure advanced Cisco RRM features. You’ll also explore wireless mesh, Layer 2 and Layer 3 roaming, mobility hierarchies, FRA, RxSOP, and redundancy models such as N+1 and SSO.
By the end of this course, you will be able to design professional wireless networks, troubleshoot performance challenges, and prepare for advanced certifications. More importantly, you’ll gain the skills needed to stand out in the job market and move into highly sought-after wireless design roles.
Take the next step in your networking career, start designing world-class wireless networks today.