WiFi RTLS vs Bluetooth RTLS: which delivers better accuracy at lower cost?

Modern Real-Time Location Systems (RTLS) technologies are transforming indoor positioning and asset tracking. But not all RTLS solutions are created equal. Many organisations find that popular options based on existing WiFi access points or Bluetooth Low Energy (BLE) gateways fall short - in performance, scalability, or cost.

In this article, we explain why Crowd Connected’s RTLS hardware delivers superior results - with better accuracy and lower cost - for both indoor positioning and asset tracking.


How RTLS Works: Indoor Positioning vs. Asset Tracking

Accurate RTLS depends on fixed infrastructure installed in known locations:

In both cases, accurate real-time location tracking requires well-placed infrastructure, typically at sufficient density to cover the building.


Why Bluetooth is the Best Technology for RTLS

Bluetooth Low Energy (BLE) is the ideal radio technology for modern RTLS:


Limitations of Existing RTLS Approaches

1. Standard Bluetooth Beacons


2. WiFi Access Points with BLE Radios (e.g. Cisco Spaces, Aruba, Ruckus)


3. BLE RSSI-based Gateways (e.g. Kontakt.io, Blyott, BlueRange, Estimote, Minew, Cassia Networks)

Other BLE-based RTLS solutions - such as those from Kontakt.io, Blyott, BlueRange, Estimote, Minew, Cassia Networks, rely on powered BLE gateways to act as BLE receivers.

These powered devices are:


The Better RTLS Solution: Crowd Connected

Crowd Connected offers a new approach to RTLS:


RTLS Competitor Comparison: Why Crowd Connected Wins

Feature / SolutionWiFi AP BLE Radios (Cisco Spaces, Aruba)BLE Gateways (Kontakt.io, Blyott, etc.)Crowd Connected
BLE RSSI-based Indoor Positioning✅ Possible, but suboptimal✅ Good✅ Excellent
BLE RSSI-based Asset Tracking✅ Possible, but suboptimal✅ Good✅ Excellent
Infrastructure Cost per Unit⚠️ High (enterprise WiFi AP)⚠️ Medium-High (dedicated gateway)✅ Low (beacon-like device)
Requires Permanent Power✅ Yes✅ Yes🚫 No (battery-powered)
Requires Network Backhaul at Each Device✅ Yes✅ Often yes🚫 No (mesh to single gateway)
Placement Flexibility (for RTLS performance)⚠️ Limited (WiFi design-driven)⚠️ Limited (power-driven)✅ Flexible (placed for RTLS)
Deployment Speed⚠️ Slow (reconfig/re-cable APs)⚠️ Moderate (power & network required)✅ Very fast (battery install)
Total Cost of Ownership (TCO)⚠️ High⚠️ High✅ Low

Addressing IT Security and Wireless Coexistence Concerns

Some vendors (such as Cisco Spaces) suggest that non-WiFi-AP-based RTLS solutions can create a “shadow network” that may cause security or interference risks.

Crowd Connected’s architecture was specifically designed to avoid these problems:

Battery-powered devices do not connect to the corporate network
Only a single gateway connects to the network, fully under IT control
Wirepas mesh networking uses the 2.4 GHz band but implements intelligent channel selection to coexist cleanly with WiFi - proven in large deployments (see Wirepas coexistence documentation)
No impact on WiFi AP configuration or performance

In short: Crowd Connected does not introduce an uncontrolled shadow network, does not impact WiFi, and is IT-friendly by design.

👉 For more details, see our dedicated post: RTLS Security, Shadow Networks, and WiFi Coexistence.


Why Crowd Connected RTLS is Superior

No need for expensive BLE-WiFi gateways
No dependence on suboptimal WiFi access point placement
No dense cabling or power requirements
Rapid, low-cost deployment
Optimised for both indoor positioning and asset tracking
Scalable and flexible - easily adjust or expand coverage as needed


Summary: Beyond WiFi APs and BLE Gateway Limitations

Solutions based on WiFi APs with BLE radios (such as Cisco Spaces, Aruba, Ruckus) cannot deliver consistent, accurate RTLS.
Dedicated BLE RSSI-based gateway solutions (such as Blyott, Kontakt.io, BlueRange, Estimote, Minew, Cassia Networks) are expensive and power-hungry.

Crowd Connected’s RTLS hardware provides a better alternative:


Further reading

For a broader comparison of all indoor positioning technologies - including BLE, UWB, Wi-Fi RTT, fingerprinting, and more - read our indoor positioning systems guide for 2026. To learn more about how our patented self-calibrating approach eliminates fingerprinting, see why indoor positioning needs a rethink. Or explore our asset tracking and people tracking solutions.


Ready to modernise your RTLS deployment?
👉 Contact us to find out how Crowd Connected can help you deliver superior indoor positioning and asset tracking - faster, cheaper, and more effectively.

Frequently asked questions

What's the difference between WiFi RTLS and Bluetooth RTLS?
WiFi RTLS uses wireless access points as the fixed infrastructure that locates tags or devices. Bluetooth RTLS uses dedicated BLE devices instead. The distinction that matters commercially is placement: access points are positioned to optimise WiFi coverage, not location accuracy, so they’re rarely in the right places or at sufficient density for reliable RTLS. Bluetooth devices can be placed wherever the location accuracy requires.
Can WiFi access points be used for asset tracking?
Technically yes, if the access points include BLE radios, as many modern Cisco, Aruba, and Ruckus units do. In practice the results are inconsistent, because those access points were installed for network coverage rather than location accuracy. Retrofitting a WiFi network to meet RTLS density requirements is expensive and often impractical. Note this is about using access points as BLE receivers, not about WiFi signal positioning, which is a separate approach.
Why do BLE gateways cost more than battery-powered beacons?
Powered BLE gateways from vendors such as Kontakt.io, Blyott, BlueRange, Estimote, Minew, and Cassia Networks each need permanent power and either wired or WiFi backhaul. That constrains where you can put them, adds electrical and cabling work to every installation, and makes deploying at the density accurate RTLS needs expensive. Battery-powered devices that mesh back to a single gateway remove all three constraints.
Does a Bluetooth mesh create a shadow network or interfere with WiFi?
No. The battery-powered devices don’t connect to the corporate network at all, and only one gateway does, fully under IT control. The Wirepas mesh uses the 2.4 GHz band but applies intelligent channel selection to coexist with WiFi, which is proven in large deployments. There’s no impact on access point configuration or performance, and no uncontrolled network for IT to worry about.
Can one system provide both indoor positioning and asset tracking?
Yes, provided the fixed devices both transmit and receive. Standard Bluetooth beacons are transmit-only, so they can offer smartphone-based indoor positioning but can’t pick up signals from asset tags. Devices that do both let a single installation cover wayfinding for visitors and tag-based tracking for equipment, which avoids paying for two separate infrastructures in the same building.
How many gateways does an RTLS deployment need?
One per building in a mesh architecture. The battery-powered devices relay data device to device back to that single network-connected gateway, and one gateway covers up to 25,000 m2. Architectures that require power and backhaul at every sensor need a connection at each point instead, which is the main reason their total cost of ownership is higher.