If a dormitory WiFi solution is viewed only from the perspective of an equipment supplier, the content usually stays at the level of “which APs were used, which floors were covered, and the technical specifications of the devices.”
However, anyone who has actually delivered dormitory wireless projects knows that the hardest part is never simply installing the devices. The real challenge is to build a wireless network system that can operate stably for a high-density student environment over the long term, without causing disruption to dormitory operations, damaging the building structure, or leaving hidden issues behind.
The project we are delivering this time is the WiFi coverage upgrade for the Bac Ninh Minh Khai Secondary School Boarding House. We are the local implementation team for this project, responsible for site survey, detailed design, AP placement planning, construction coordination, device installation, network optimization, testing, acceptance, and providing maintenance recommendations after handover.
1. Background of the Bac Ninh Dormitory WiFi Upgrade Project
The project site was a typical middle school dormitory building, mainly serving boarding students and dormitory supervisors. The dormitory building had 5 floors, with a long corridor layout on each floor. Student dorm rooms, duty rooms, laundry areas, and public activity areas were distributed on both sides. There were many students, and most of them used smartphones and tablets for online learning, video calls, material downloads, and basic entertainment after evening self-study and on weekends.
Client Pain Points and Needs
The project site was a typical middle school dormitory building, mainly serving boarding students and dormitory supervisors. The dormitory building had 5 floors, with a long corridor layout on each floor. Student dorm rooms, duty rooms, laundry areas, and public activity areas were distributed on both sides. There were many students, and most of them used smartphones and tablets for online learning, video calls, material downloads, and basic entertainment after evening self-study and on weekends.
When the school approached us, they made it very clear:
they did not simply want to “install a few APs,” but hoped that we would fully and properly complete the wireless coverage for the dormitory building from an engineering perspective, so as to avoid repeated rework later.
Project Goals
From my experience, a scenario like a middle school dormitory building may look like just an indoor coverage project, but in fact the difficulty is not low.
This is because it simultaneously has the following characteristics:
- High user density and heavy concurrent usage at night
- A large number of rooms with obvious wall attenuation
- Complex student terminal types and high compatibility requirements
- Unified dormitory schedules, resulting in extremely concentrated network peak periods
- Different network experience requirements for dorm supervisors, teachers, and students
- Once the design is unreasonable, there will be many complaints later
Therefore, for this project, from the very beginning our idea was not “lowest-cost coverage,” but rather to deliver it according to the standard of stable delivery for a high-density dormitory scenario.
2. Key Dormitory Network Issues and Client Pain Points
The school gave us a lot of feedback initially, but in summary, the core issues were the following:
2.1. Weak signal inside the dorm rooms
The original wireless devices were mainly installed in certain corridors, and the deployment density was sparse. Once students entered the rooms, especially rooms located deepest from the corridor, near the ends, or near building corners, the signal attenuation became obvious.
In many dorm rooms, phones could still detect the WiFi, but the signal was only 1–2 bars, webpages opened slowly, and videos frequently lagged.
2.2.Severe speed drop during evening peak hours
Every day from 19:30 to 22:30 was the concentrated Internet usage period.
During this time, the number of online terminals in the student dormitory area rose sharply, and the original network often showed:
- Connected to WiFi but unable to get usable speed
- Apps opening very slowly
- Video loading stuck buffering
- Audio in online lessons cutting in and out
- Some devices frequently disconnecting and reconnecting
2.3. Poor roaming and unsmooth switching
When students moved along corridors, stairwells, or near dorm room doors, terminals often stayed connected to distant APs instead of switching, resulting in the issue that “although there is a stronger signal nearby, the network speed is still poor.”
This is very common in dormitory buildings with long corridor structures.
2.4. Original cabling was messy, and some network cables were aged
After our on-site survey, we found that the wiring inside the original weak current boxes lacked clear labels, the network cable quality was inconsistent, some crimped connectors were poorly made, some had been privately extended in the middle, and some even used old cables unsuitable for gigabit transmission.
If these problems were not sorted out first, no matter how good the APs were, they would not perform properly.
2.5. Power supply and management methods were not standardized
In the original plan, some devices were powered locally, while others were powered by miscellaneous small switches, which was highly inconsistent.
This would bring two engineering problems:
- Fault points would be difficult to locate
- Maintenance costs later would be high
2.6. Dormitory management and the school were worried about students privately connecting devices
The school specifically mentioned that there had previously been cases where students privately installed small routers or connected their own switching devices, causing abnormal LAN broadcasts, IP conflicts, and bandwidth being occupied by a few rooms.
Therefore, this project not only had to provide coverage, but also had to consider network management, terminal access order, and long-term maintainability.
3. School’s Detailed Requirements for the Dormitory WiFi Network
During the discussions, the school raised several very clear requirements, and these requirements also determined that the entire plan could not only consider “being able to access the Internet,” but had to consider a “long-term stable operating network.”
The client’s requirements were as follows:
- All dormitory rooms must have stable WiFi signals, not just corridor coverage
- During evening peak hours, the network must support a large number of students online simultaneously
- When moving between floors and along corridors, the network experience must not be obviously interrupted
- All equipment must use a unified brand for easier later maintenance and spare part management
- POE power supply should be used as much as possible to reduce local power adapters
- The equipment room and weak current system must be standardized, with clear cabling
- Dorm supervisor offices, duty rooms, and public areas must have higher-priority network assurance
- Later maintenance must be simple, and on-site duty personnel should be able to assist with basic troubleshooting
- The equipment must be stable, and there must not be frequent downtime during the semester
- The overall cost must be within the school’s budget, but it cannot be based only on low price
As an engineering contractor, I really appreciate this type of client. Because what they want is a network that is truly deliverable and operable, not something that ends after installation and a few photographs.
4. On-Site Survey and Investigation of Network Problems
For this project, we did not rush to produce a plan, but first conducted a complete on-site survey.
I have always believed that if the early survey for a dormitory building project is not done properly, there will definitely be rework later.
4.1. Building Structure Survey
We conducted a floor-by-floor survey of the dormitory building, focusing on recording:
- Number of dorm rooms on each floor
- Corridor length and width
- Bearing wall and partition wall locations
- Stairwell locations
- Distribution of weak current shafts
- Distribution room or weak current box locations
- Dorm supervisor duty room locations
- Ceiling structure and installation conditions
- Location of the existing carrier broadband entry
After the survey, we confirmed that this dormitory building belonged to a typical long-strip corridor + rooms on both sides structure.
For this type of structure, the most unsuitable approach is to try to use a small number of high-power APs from the corridor to “penetrate through” all dorm rooms.
In theory, it can cover them, but in practice, the experience will definitely be poor, because walls and doors will cause obvious attenuation, and terminal uplink capability is far weaker than AP downlink capability. This easily leads to false coverage where “the AP can see the phone, but the phone cannot reliably send data back.”
4.2. Existing Cabling Inspection
After we tested the original cabling point by point, we found many real problems:
- Some network cable crystal head wiring sequences were incorrect
- Multiple points had poor contact
- A few cable runs were too long, and the cable quality was poor, making it impossible to stably run gigabit
- Some cables had slight gnaw marks from rats
- The jumper wires inside the weak current box were messy and had no numbering
- Some original switch ports were negotiating only at 100M
If these problems were not solved, some very troublesome faults would occur later, such as:
- APs disconnecting occasionally
- Throughput dropping abnormally at certain times
- One floor’s network being good sometimes and bad at other times
- Devices appearing online, but the user experience being poor
4.3. Wireless Environment Scanning
We carried test terminals and professional testing tools to perform a basic wireless scan on each floor, and found that:
- The original 2.4G channels overlapped severely
- There was a large amount of adjacent-channel interference from surrounding residential areas and teaching buildings
- 5G coverage was discontinuous in some areas
- The original device transmit power settings were unreasonable, making far-near AP sticking problems obvious
- Roaming trigger conditions were not scientifically set
In dormitory buildings, although 2.4G has stronger wall penetration ability, if there are too many users and the channels are too crowded, the experience will actually be very poor.
So our principle has always been:
2.4G ensures basic coverage, while 5G carries the main high-quality access load.
4.4. Problem Summary and Design Thinking of the Solution
After the survey, we summarized the project problems into four core contradictions:
(1). Coverage and capacity are not the same thing
In many projects, on the surface it looks like a “poor signal” problem, but in essence it is a “capacity shortage” problem.
A dormitory building scenario must simultaneously consider:
- Signal strength
- Concurrent carrying capacity
- Roaming switching
- Backhaul capacity
- Power supply stability
(2). You cannot rely only on a few APs in the corridor for rough coverage
If one only tries to save on device quantity and places all APs evenly in the corridor, the final result will be:
- Poor 5G experience inside the rooms
- Large signal attenuation after dorm room doors are closed
- A large number of terminals hanging on distant APs
- Excessive load on a single AP during peak hours
(3). The switching layer must be standardized in one step
If a dormitory building project is to be stable for a long time, the key is not only the APs, but also whether the POE switching layer is standardized, whether the cabinet and weak current boxes are clear, and whether the wiring is maintainable.
(4). Different regional priorities are needed
Dorm rooms, dorm supervisor offices, duty rooms, and public areas have different network needs.
If all areas are treated in exactly the same way, management will definitely become chaotic.
Therefore, we finally adopted the idea of “unified core management + floor-by-floor POE power supply + dual-band WiFi 6 indoor coverage + key area reinforcement.”
5.Selection of WiFi Equipment and Reasons for Their Use
All equipment in this project used the COMFAST brand, with the following models:
5.1. CF-E591AX：1500M, WiFi 6, Dual-Band AP
Usage positioning:
Used for standard student dormitory coverage areas and ordinary corridor blind spot filling areas.
Reasons for selection:
- Supports WiFi 6, suitable for high-density access environments
- Dual-band concurrency, able to simultaneously balance 2.4G basic coverage and 5G high-speed access
- The 1500M class is suitable for standard room groups or medium-density areas
- Reasonable cost control, suitable for large-scale deployment
- Used in the regular areas of the dormitory building, with high cost-performance
5.2. CF-E393AX：3000M, WiFi 6, Dual-Band AP
Usage positioning:
Used for high-concurrency key areas, such as:
- Ground-floor public activity areas
- Areas near the dorm supervisor office
- Corridor intersections
- Areas where students gather intensively
- Public self-study areas or temporary learning areas
Reasons for selection:
- Higher wireless performance, suitable for high-concurrency terminal access
- Takes on capacity offloading in key areas
- Can significantly improve the user experience in hotspot areas during the evening peak
- Forms capacity reinforcement for high-demand points
5.3. CF-AC50：Gigabit Gateway
Usage positioning:
Serves as the unified gateway for the entire dormitory building network outlet.
Reasons for selection:
- Gigabit access capability matches the school’s existing broadband resources
- Convenient for implementing unified network outlet management
- Can cooperate in implementing access control, address management, and network isolation strategies
- As a unified outlet, it is convenient for later troubleshooting and operation and maintenance
5.4. CF-SG1241P：24-Port Gigabit POE Switch
Usage positioning:
Acts as the POE access switching core for each floor or weak current room.
Reasons for selection:
- 24 gigabit ports, suitable for multi-AP access in dormitory building projects
- Supports POE power supply, reducing local power adapters
- More standardized cabling, easier maintenance
- Gigabit uplink ensures that wireless backhaul links do not become bottlenecks
- Suitable for unified deployment in medium-sized dormitory building projects
6.Recommended WiFi Equipment List and Deployment Materials Overview
The following is the actual configuration logic example for this project:
Core Equipment List
- CF-AC50 Gigabit Gateway × 1
- CF-SG1241P 24-Port Gigabit POE Switch × 3
- CF-E591AX WiFi 6 Dual-Band AP × 18
- CF-E393AX WiFi 6 Dual-Band AP × 6
Auxiliary Materials and Construction Materials
- Category 6 network cables as required
- 24-port patch panels
- Cabinets / wall-mounted cabinets
- Cable managers
- Crystal heads, information modules
- Label paper
- Cable ties, cable ducts, PVC pipes
- Lightning protection and basic power protection materials
- Cable tester, network tester, wireless test terminals
Note: The quantities here are written according to a medium-sized 5-floor dormitory building case. In actual projects, they will be adjusted according to floor area, number of rooms, and building structure.
7.Network Topology Diagram and Connectivity Overview
The network topology of this project is designed around a clear and stable hierarchical structure. The CF-AC50 gigabit gateway serves as the unified network core, while multiple CF-SG1241P 24-port POE switches provide power and data access for the floor-level wireless devices. Combined with CF-E591AX and CF-E393AX WiFi 6 access points, this topology ensures stable coverage, efficient transmission, and convenient maintenance for the entire dormitory building.
8. Detailed WiFi Deployment Strategy for Different Dormitory Areas
The most critical point of this project was not “how many APs were installed,” but how different areas were deployed and why they were deployed in that way.
8.1. Standard Dormitory Room Areas
Design idea
Student dormitories are the core area of this project.
We did not adopt a purely “high-power, low-density device” solution, but instead used moderate-density deployment, so that the signal would still maintain good margin when entering the rooms.
Equipment configuration
Mainly used CF-E591AX.
Deployment principles
- Use corridor ceilings as the main installation locations
- Carry out staggered deployment based on dorm room door positions and wall attenuation conditions
- Avoid dense stacking of APs directly facing each other
- Control the number of rooms covered by a single AP, to avoid one AP carrying too many dormitory accesses
- Ensure reasonable overlap between adjacent APs to guarantee roaming continuity
Engineering experience
In dormitory building projects, the most inappropriate thing is average deployment only on paper.
It is not enough to just say “one AP every certain number of meters,” but it is necessary to look at:
- Whether the room doors are iron doors
- Whether there are concrete columns in the walls
- Whether the rooms at the ends suffer greater attenuation
- Whether bathrooms and laundry areas create additional blockage
- Whether stairwells cause signal leakage and overlapping disorder
We encountered a typical situation on site:
The middle section of one floor looked reasonably spaced, but because the wall structure on one side was thicker, the 5G experience in several rooms in that area was significantly weaker than on the other side. Later, we slightly adjusted the AP positions and re-optimized channels and transmit parameters before the problem was completely solved.
8.2. Dorm Supervisor Office and Duty Room Areas
Design idea
Dorm supervisor offices belong to important business areas.
These areas must not only satisfy ordinary Internet access, but also guarantee:
- Stable daily office networking for dorm supervisors
- Access for network cameras and office terminals not being excessively affected by dormitory peak traffic
- Stable communication in emergencies
Equipment configuration
Priority use of CF-E393AX.
Reasons
- Office and duty room areas require a higher level of network experience
- Concurrency may not be the highest, but it must be more stable
- Better throughput and capacity margin are needed
Construction details
In the deployment around the offices, we paid special attention to avoiding excessive co-channel interference with the corridor dormitory APs.
Because in some projects people like to casually let the office also hang under the corridor APs. This does not show obvious problems at ordinary times, but during evening peak hours, the experience of the dorm supervisor office will be dragged down by the dormitory student traffic.
We do not recommend doing that.
8.3. Public Activity Areas and Floor Intersection Areas
Design idea
The ground-floor public areas and floor junction positions in a dormitory building are often short-term high-concurrency areas.
For example:
- Students stopping briefly to chat
- Waiting for laundry
- Gathering downstairs
- Public study and communication in the evening
Equipment configuration
Use CF-E393AX for capacity reinforcement.
Experience summary
If these areas are handled only according to “area coverage,” problems will arise.
Because this is not a signal blind spot issue, but rather a hotspot with instantaneous high concurrency.
In this project, we specifically used higher-specification APs for these areas in order to avoid a situation where “the whole floor seems to have network access, but once students arrive in the public area, the network becomes overloaded.”
8.4. Stairwells and Corridor Corner Areas
Design idea
Stairwells are often the places where roaming is most likely to have problems.
When students move up and down stairs, if the overlap between APs is unreasonable, the terminals will stay on the old AP for too long, causing short packet loss or even disconnection.
Handling methods
- Control the AP power near corner areas
- Avoid strong coverage interference between APs on upper and lower floors
- Reasonably stagger the channels
- Reserve sufficient but not excessive overlap areas
Experience
Some engineering teams, in order to make the stairwell “full signal everywhere,” make the stairwell coverage extremely strong, but as a result, it becomes even harder for terminals to switch.
A truly mature solution is not to make every place the strongest, but to make every place reasonable and controllable.
9. Challenges Encountered During Implementation and Solutions
This section is the most critical. Real engineering experience is not reflected in how beautifully the plan is written, but in how problems are solved during construction and debugging stages.
Problem 1: Some old network cables could not stably run at gigabit
Phenomenon
During the initial test after installation, we found that although some APs were online, the speed test result was obviously lower than expected, and fluctuated occasionally.
Investigation process
We checked one by one:
- AP status itself
- Whether the POE power supply was stable
- Switch port negotiation rate
- Uplink traffic status
- Network cable link quality
In the end, we found that although the problematic line points could “light up,” in reality they could only negotiate unstably to 100M, or had high bit errors when running at gigabit.
Solution
- Re-crimped the crystal heads at both ends
- Directly replaced unqualified lines with Category 6 cables
- Re-labeled all the lines completely
Experience summary
In dormitory building renovation projects, the easiest thing to be deceived by is “this cable used to work before.”
Being usable does not mean it is suitable for the current WiFi 6 deployment.
After the wireless upgrade, requirements for the wired backhaul are higher. If old cables are not replaced, future problems will be endless.
Problem 2: After corridor deployment, the 5G experience in some rooms was still average
Phenomenon
After the initial debugging, the vast majority of rooms were fine, but the 5G speed test in a few end rooms and specially structured rooms was unsatisfactory.
Investigation process
We did not only look at signal bars, but actually conducted:
- Tests with doors open and closed
- Tests with different smartphone brands
- Comparative tests deep inside the room and at the doorway
- Separate tests for 2.4G and 5G
- Tests before and after class peak periods
Cause
The problem was not that the APs were defective, but that the building attenuation in that area exceeded the paper estimate.
In particular, one room was near a bearing column and utility shaft, and the signal loss was obviously larger.
Solution
- Slightly adjusted the positions of nearby AP installations
- Re-optimized the transmit parameters of adjacent APs
- Adjusted the channel combination in that area
- Reinforced both capacity and coverage through a CF-E393AX in the key area
Experience summary
The actual on-site structure is always more complicated than the drawings.
Engineers cannot only know how to read floor plans; they must verify everything on site.
Problem 3: The network on one floor fluctuated obviously during evening peak hours
Phenomenon
On the first evening of formal trial operation, the experience on the third floor was not as stable as on the other floors during a certain period.
Investigation process
We focused on checking the following:
- Number of APs online and number of connected terminals
- Whether there were abnormal high-traffic terminals
- Switch port status
- Gateway outlet bandwidth usage
- AP load distribution on the same floor
- Whether there were privately connected devices
Final finding
A student in one dormitory had privately connected a small router and allowed multiple terminals to connect through it repeatedly, causing local broadcast abnormalities and uneven bandwidth occupation.
Solution
- Strengthened access management at both the gateway side and the access side
- Isolated the abnormal interface
- Clearly informed the school to prohibit private device connections
- Cooperated with dormitory management to establish a patrol mechanism
Experience summary
In school dormitory projects, privately connected routers are very common.
If the plan only considers “how to provide coverage,” but not “how to manage,” there will definitely be trouble later.
Problem 4: Roaming between upper and lower floors was not ideal enough
Phenomenon
When students walked from the fourth floor to the third floor, some mobile phones still briefly stayed connected to the AP on the fourth floor.
Investigation process
We focused on examining:
- Signal overlap in the stairwell between upper and lower floors
- AP power settings
- Terminal sticking phenomenon
- Channel distribution of adjacent floors
Handling methods
- Re-optimized the transmit strength of APs near the stairwell
- Adjusted the overlap range between upper and lower floors
- Slightly moved the installation positions of some APs
- Re-tested roaming performance with different smartphone brands
Experience summary
Roaming is not necessarily good just because it is enabled.
In an environment like a dormitory building, AP power, installation position, channel planning, and terminal characteristics all jointly determine the result.
10. Wireless Optimization and Debugging Principles Explained
Many projects end after equipment installation, but a truly professional project does not stop at the installation stage.
Debugging and optimization determine the upper limit of the final experience.
Our debugging principles were:
(1). Use 2.4G for basic coverage, and 5G for the main service
- Ensure older terminals can still access the network
- Encourage mainstream terminals to preferentially connect to 5G
- Reduce 2.4G congestion in high-density environments
(2). Do not blindly pursue maximum transmit power
- Excessive power causes sticking
- Roaming becomes worse
- Co-channel interference becomes more serious
(3). Control the load pressure of a single AP
- Distribute access through reasonable deployment
- Reinforce high-concurrency areas with higher-specification APs
(4). The wired side must be stable
- Gigabit switching
- Unified POE power supply
- Qualified cabling
- Clear port labeling
(5). Debugging must be carried out in different time periods
Testing the network only during the daytime when few people are present is meaningless.
For a dormitory building, it is necessary to test during:
- Daytime idle periods
- Evening peak periods
- After students return to the dormitories in large numbers
- Weekend usage periods
11.Acceptance Criteria for the Dormitory WiFi Project
When I do school dormitory projects, acceptance is never just about “how many lights are on.”
In this project, for acceptance we mainly looked at the following dimensions:
(1). Coverage acceptance
- Whether the signal in the main usage areas inside dorm rooms met the standard
- Whether there were obvious blind spots in corridors, stair entrances, and public areas
- Whether the signal stability in dorm supervisor offices and key areas met the standard
(2). Access acceptance
- Whether students’ phones, tablets, and laptops could connect normally
- Whether dual-band terminals could connect properly
- Whether older terminals could go online normally
(3). Throughput acceptance
- Whether single-point speed test results met expectations
- Whether the overall experience was acceptable during evening peak periods
- Whether the network obviously froze during concurrency in hotspot areas
(4). Roaming acceptance
- Whether there was obvious interruption while moving between floors
- Whether switching was smooth when walking back and forth along corridors
(5). Stability acceptance
- Whether the APs remained stably online during continuous operation
- Whether the POE power supply of the switches remained continuously stable
- Whether the gateway outlet operated stably
(6). Standardization acceptance
- Whether the cabinet and weak current boxes were neat
- Whether the network cables were labeled
- Whether the ports were numbered
- Whether the construction records were complete
12.Final Results and Performance of the WiFi Upgrade Project
After the project went online, feedback from the school and dorm supervisors showed obvious improvement, mainly reflected in:
- More stable wireless signals inside the dorm rooms
- Significantly reduced lag during evening peak periods
- Fewer complaints from students about Internet access
- The dorm supervisor office network was no longer heavily affected by dormitory traffic
- Fault locating became clearer, and later maintenance became easier
- The school had greater confidence in handling the access pressure after the new semester began
From an engineering point of view, the key to the success of this project was not that a certain device was especially powerful, but that the entire system was relatively complete in terms of:
- Survey
- Deployment
- Switching layer
- POE power supply
- Debugging
- Management
- Acceptance
13.Practical Advice and Tips for WiFi Engineering Peers
WiFi coverage for dormitory buildings is definitely not as simple as “installing APs.”
It is a typical high-density indoor network engineering project that requires wireless, cabling, power supply, management, roaming, and later maintenance to all be considered together.
The most noteworthy points of this project for peers are:
(1). The preliminary survey must not be skipped
If you do not look at the actual structure on site and do not test the quality of the old cabling, there will definitely be rework later.
(2). Do not blindly believe in high power with fewer devices
A dormitory building is not a warehouse, nor is it an open hall.
There are many room partitions and high user density, so deployment must be based on the real structure.
(3). High-concurrency areas must be reinforced separately
Public areas, duty rooms, and floor junctions must not be handled with the same thinking as ordinary dormitory areas.
(4). The POE switching layer must be standardized
Unified POE power supply is the key to reducing maintenance costs in the medium and long term.
(5). Wireless projects must attach importance to the wired foundation
When wireless is slow, the root cause is often not in the wireless side, but in the network cable, ports, and switching layer.
(6). School dormitories must consider the problem of privately connected routers
If no management is done, problems will definitely arise later.
(7). Debugging must be done during peak hours
Tests performed during the day may look beautiful, but that does not mean the network can withstand night-time pressure.
14.Project Lead Summary and Key Lessons Learned
As someone who has long worked on WiFi coverage projects, I would like to say a few very practical words to peers:
First, do not talk only about coverage with the client; talk about experience
When the client says “full coverage,” you cannot understand it only as “full bars.”
True delivery means making the client feel that the network is usable even during peak hours.
Second, do not make the project into a hidden-risk project just to reduce the budget
Once a dormitory building project has to be repaired and reworked, it is very troublesome.
The little money saved on materials may very likely come back tenfold later.
Third, do not view construction and debugging separately
Installation is only the first half; debugging determines the success or failure of the project.
Fourth, do not ignore labeling and documentation
A truly professional project is one where, once the cabinet is opened, people can tell who did it.
Cable numbering, port records, AP location tables, and test records are all very important.
Fifth, leave a maintenance path for the client
A good project is not one where the client becomes helpless after you leave the site.
You should make the network structure clear so that the school’s logistics staff and duty personnel can also make basic judgments.
15.Conclusion and Final Review of the Dormitory WiFi Upgrade Project
In this WiFi coverage project for a middle school dormitory building in Bac Ninh Province, Vietnam, we adopted:
- CF-E591AX for standard dormitory area coverage
- CF-E393AX for high-concurrency key area enhancement
- CF-AC50 as the unified gigabit gateway
- CF-SG1241P as the floor-level POE switching core
In the end, we successfully upgraded the dormitory building wireless network from “having network access but being difficult to use” to “complete coverage, stable access, and clear maintenance.”
This type of project tests not a single device, but the engineer’s understanding of the site, control over the network structure, troubleshooting ability, and anticipation of later operation.
For me, a truly qualified dormitory building WiFi project is not one that ends after device installation, but one where the client still feels at ease during semester start peaks, evening peaks, and long-term usage. Only then can it be considered truly delivered successfully.
