Which technologies do you consult on?

All of the major location, identification and IoT technologies: RTLS (UWB, BLE, Wi-Fi), RFID (passive, active and RAIN UHF), industrial IoT and sensors, GPS and GNSS, AGV and AMR robot fleets, and hybrid stacks that combine them. We recommend the right mix for each zone and use case, not a single technology.

Are you really vendor-neutral?

Yes. We do not sell hardware or a software platform of our own, and we take no resale commissions, so our technology and vendor recommendations serve your outcome rather than a product we need to move.

Do you work outside the UK?

We are UK-based and work across Europe and internationally, delivering in English, German and French. Engagements can be remote or on-site depending on the work.

What does a consulting engagement include?

Typically discovery and requirements, vendor-neutral technology selection, vendor evaluation and RFP support, ROI and business case, solution architecture, and an implementation roadmap. We scope each engagement to where you are.

Can you help after the decision is made?

Yes. We work across the full lifecycle - we can also deploy, integrate, and operate the system, so you can keep one independent team from business case through to live operation.

How do we get started?

Usually with a short call or a fixed-fee discovery to scope the problem, followed by a proposal with clear deliverables, timeline and fees. There is no obligation and no platform pitch.

LoRaWAN or NB-IoT for our IoT deployment?

Depends on coverage, control, and economics. Public LoRaWAN where Actility-powered carriers exist; private LoRaWAN for sensitive or high-density sites; NB-IoT for global mobility and carrier-managed simplicity. We model both at stage 1.

Can we deploy LoRaWAN privately, without a carrier?

Yes — private LoRaWAN is common for large sites (factories, ports, campuses) and for sensitive applications (defence, critical infrastructure). Network-server choice and gateway placement are the key decisions.

How long do LoRaWAN sensors actually last?

5–15 years on small lithium batteries, depending on transmission frequency and payload size. Sensors transmitting every hour can last a decade; trackers transmitting every minute closer to 2–3 years.

Is LoRaWAN secure enough for enterprise use?

Yes — LoRaWAN uses AES-128 encryption end-to-end. Enterprise deployments add the usual TLS, network-server access controls, and integration security. Real security questions are usually around device provisioning and key management, not the protocol itself.

How does LoRaWAN integrate with our enterprise systems?

Through the network server (ThingPark, The Things Stack, ChirpStack) into your platforms via standard MQTT, HTTP webhooks, or direct cloud integrations (AWS IoT, Azure IoT). See /integrations for our enterprise integration patterns.

INSIGHT · TECHNOLOGIA POZYCJONOWANIA

LoRaWAN — jak działa i gdzie pasuje.

LoRaWAN is the long-range, low-power, low-cost wireless protocol that has quietly become the default for outdoor asset tracking, agriculture sensing, smart-city IoT and remote-equipment monitoring.

This is the operator-level explainer of how LoRaWAN actually works, where it wins decisively, and where cellular alternatives fit better.

Umów się na 30-minutową rozmowę z zakresem

Definicja 30-sekundowa

LoRaWAN is a long-range, low-power wide-area network (LPWAN) protocol that runs in unlicensed sub-GHz bands (typically 868 MHz in Europe, 915 MHz in the US).

It's built on two technologies: LoRa, the proprietary chirp-spread-spectrum modulation invented by Semtech, which gives long range (10+ km rural, 2–5 km urban) and deep penetration;

oraz LoRaWAN, the open MAC-layer protocol governed by the LoRa Alliance, which provides the network architecture, addressing, security and roaming.

The defining property: tiny battery-powered sensors send small packets to gateways many kilometres away, with battery life measured in years to a decade.

Jak działa LoRaWAN

Three layers. End devices (sensors, trackers) transmit small payloads (typically 10–50 bytes) on sub-GHz bands.

Gateways receive the transmissions and forward them via Internet to a network server. Coverage depends on gateway placement; one gateway covers many square kilometres rural, several hundred metres in dense urban.

Network server (Actility ThingPark, The Things Stack, ChirpStack and others) handles deduplication, routing and security; passes payloads to the customer's application via webhook / MQTT.

The architecture supports Class A (asynchronous uplink, battery-friendly), Class B (scheduled downlinks) and Class C (always-on receive). Geolocation is possible without GPS via gateway TDoA triangulation, accurate to 100–500 m typically.

Gdzie LoRaWAN jest poprawną odpowiedzią

Five categories are mature. Outdoor asset tracking: shipping containers, returnable assets, livestock, vehicles — anywhere battery-powered sensors need years of life across long distances.

Agriculture and farm sensing: soil moisture, livestock health, equipment location across hectare-scale fields.

Smart-city infrastructure: parking, waste, lighting, environmental monitoring — long-range coverage with cheap municipal-scale rollout.

Remote equipment monitoring: utility, oil-and-gas, energy network sensors in remote field locations. Industrial telemetry: factory sensors not requiring real-time response — tank levels, ambient conditions, run-hours.

LoRaWAN kontra alternatywy

LoRaWAN vs NB-IoT: NB-IoT is carrier-managed cellular LPWAN. NB-IoT wins on global coverage (carrier roaming) and standardised interoperability.

LoRaWAN wins on cost (no SIM, no carrier fees), unlicensed band, and private-network capability. Many enterprises evaluate both at stage 1.

LoRaWAN vs LTE-M: LTE-M has higher bandwidth and works for voice/video; LoRaWAN is purpose-built for tiny battery-friendly payloads.

LoRaWAN vs Sigfox: Sigfox is proprietary and has had business-model challenges; LoRaWAN's open ecosystem is more robust. LoRaWAN vs short-range (BLE / RFID): completely different categories — LoRaWAN for outdoor and remote, BLE/RFID for indoor and dense.

Uczciwe ograniczenia

Five considerations are real. Bandwidth: small payloads only (typically 11–50 bytes per packet); not suitable for streaming or large data.

Latency: Class A devices have unpredictable response time; not suitable for real-time control. Duty cycle: regulatory limits on transmission time (typically 1% per device in EU) constrain how often a device can transmit.

Geolocation accuracy: 100–500 m typically — useful for asset finding, not for precise tracking. Public network coverage: variable by region; Actility-powered carriers cover much of Europe well, less coverage in many other regions, where private networks fill in.

Krajobraz dostawców i ekosystemów

Silicon: Semtech is effectively the only LoRa silicon supplier (LR1110 / LR2021 for newer chips with integrated GNSS / Wi-Fi sniffing for hybrid positioning).

Network server platforms: Actility ThingPark (enterprise / carrier scale), The Things Industries (developer-friendly), ChirpStack (open source), plus AWS IoT Core and Azure IoT Central for LoRaWAN integration.

Gateways: Kerlink, Multitech, Tektelic, Cisco, MikroTik — many vendors. Devices: thousands of manufacturers building LoRaWAN-conformant sensors and trackers. Standardy: LoRa Alliance governs LoRaWAN protocol and certification.

Gdzie TRACIO poleca LoRaWAN

Use cases requiring battery-powered tracking or sensing over long distances with low data rates: outdoor asset and returnable-container tracking;

livestock and agricultural monitoring; remote utility / oil-and-gas equipment sensors; smart-city infrastructure; supplementary outdoor coverage in mixed-RTLS deployments.

We don't recommend LoRaWAN for indoor precision positioning (UWB or BLE-AoA fit), for use cases requiring real-time response (cellular IoT), or for streaming-data applications (high-bandwidth alternatives).

FAQ

Najczęściej zadawane pytania

LoRaWAN czy NB - IoT do naszego wdrożenia IoT?

To zależy od zasięgu, kontroli i ekonomii. Publiczny LoRaWAN, gdzie istnieją operatorzy z napędem Actility; prywatny LoRaWAN dla wrażliwych lub wysokogęstych miejsc; Uwaga - IoT dla globalnej mobilności i prostoty zarządzanej przez operatora. Modelujemy oba etapy na etapie 1.

Czy możemy wdrożyć LoRaWAN prywatnie, bez operatora?

Tak — prywatny LoRaWAN jest powszechny dla dużych obiektów (fabryki, porty, kampusy) oraz dla wrażliwych zastosowań (obrona, infrastruktura krytyczna). Kluczowe decyzje dotyczą wyboru serwera sieciowego oraz rozmieszczenia bram.

Jak dokładna jest geolokalizacja LoRaWAN?

100–500 m typically via TDoA across multiple gateways. New chips (Semtech LR1110, LR2021) integrate optional GNSS or Wi-Fi sniffing for hybrid positioning, lifting accuracy meaningfully where the device is in GNSS coverage.

Jak długo faktycznie działają czujniki LoRaWAN?

5–15 lat na małych bateriach litowych, w zależności od częstotliwości transmisji i wielkości ładunku. Czujniki nadające co godzinę mogą wytrzymać dekadę; lokalizatory przesyłają co minutę mniej więcej niż 2–3 lata.

Czy LoRaWAN jest wystarczająco bezpieczny do użytku korporacyjnego?

Tak — LoRaWAN używa szyfrowania AES-128 end-to-end. Wdrożenia korporacyjne dodają standardowy system TLS, kontrolę dostępu do sieci między serwerem oraz bezpieczeństwo integracji.

Prawdziwe pytania dotyczące bezpieczeństwa zwykle dotyczą przydzielania urządzeń i zarządzania kluczami, a nie samego protokołu.

Jak LoRaWAN integruje się z naszymi systemami korporacyjnymi?

Przez serwer sieciowy (ThingPark, The Things Stack, ChirpStack) do Twoich platform za pomocą standardowych MQTT, HTTP webhooków lub bezpośrednich integracji w chmurze (AWS IoT, Azure IoT). Zobacz /integrations dla naszych wzorców integracji w przedsiębiorstwie.

Ostatnia aktualizacja: 26 maja 2026