Most BLE gateway comparisons start with tidy rows: range, bandwidth, power, cost. But field deployments rarely fail because someone misunderstood a brochure table. They fail because the gateway scans too often. Or because a small BLE payload became 15 beacon
Data is no longer a secondary output of equipment operation in modern energy systems – this is a core operational asset. This data becomes essential not only for monitoring but for decision-making, automation, and long-term planning. At the same time,
Presence detection sounds simple. A tag shows up, so a person or asset must be in the room. Done, right? Not quite. In real deployments, BLE presence detection fails for familiar reasons. Teams set intervals too slow, duty-cycle the receiver
The Lansitec Macro Tracker is not trying to be a tiny tag for everything that moves. Good. That restraint is part of its value. This is a large-format, rugged tracker for medium-to-large assets that spend long periods in the field,
Purpose Some customers want to use a mobile app on iOS or Android to receive Bluetooth beacon broadcasts in the background, instead of deploying a dedicated Bluetooth gateway. In this paper, we evaluate whether that approach is technically feasible for
Indoor Bluetooth presence systems often fail for a very simple reason. Someone takes an RSSI number, treats it like a tape measure, and then builds room logic on top of that mistake. That is where trouble starts. RSSI is useful.
We keep seeing the same pattern in RFQs: teams start with “We need 10 cm accuracy,” then realize they actually need “the right action, at the right moment.” Sometimes that means centimeter-level RTLS. Sometimes it means a clean zone event
A couple of years ago, “satellite tracking” usually meant big power budgets, pricey hardware, and workflows that felt like space engineering. Today it’s different. Not magically easy… but deployable. We hear the same line from ranch operators and remote logistics
A practical playbook for BLE beacon power tuning + barometer-based floor hints. What Is Floor Jumping in Indoor Positioning Systems? Ghosting happens when your tracking engine “sees” beacons from the wrong floor. Stairwells, elevator shafts, hollow metal decking, and open
Keeping a fleet aligned sounds easy until you hit device #317. Someone’s battery is low. Someone’s in a dead zone. Someone’s “updated” but keeps rebooting. And suddenly your tidy firmware spreadsheet turns into a crime scene. We’ve seen this in
Real-World LoRaWAN Scaling Tactics Using BLE-to-LoRaWAN Gateways Why Airtime Math Alone Fails at 10,000-Tag Scale Now comes the part that decides whether your rollout survives week two. When fleets hit 10000 tags, “LoRaWAN capacity” stops being a spreadsheet problem and
Angle-of-Arrival is showing up in more and more RTLS specs because it hits a sweet spot: high accuracy, simpler tags, and you don’t have to carpet-bomb a site with UWB anchors. In our deployments, the real challenge isn’t “does AoA
How to Check Water Pump Status Remotely Without Site Visits Out in the field, “Is the pump running?” sounds like a tiny question… until you’ve got 30 pumps spread across farms, canals, or wellheads. Then it turns into daily windshield
Bluetooth 6.0 and 6.1 are the latest generations of the Bluetooth Core Specification from the Bluetooth Special Interest Group (SIG). Core 6.0 was adopted in September 2024, and Core 6.1 followed in May 2025 with a new privacy and power
There are three main ways to locate people and assets indoors: UWB time-of-flight ranging, Bluetooth Direction Finding (AoA/AoD), and BLE proximity via RSSI. (1)(2)(3) How Each Indoor Positioning Technology Really Works Ultra-Wideband (UWB): High-Precision Time-of-Flight Ranging UWB systems use time-of-flight
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