We begin with the deployment environment, reporting requirements, expected battery life and business consequences of missing data.

The experts analyze the options for LTE-M and NB-IoT coverage, operator's connectivity options and SIM availability, as well as the requirements for local frequencies, frequency of payloads, allowable latency, design limits, and requirements for cloud platforms.

Thus, a documented system architecture plan is obtained, along with the engineering risks that could be tested in advance of creating a unique PCB.

We develop embedded applications using the nRF Connect SDK and Zephyr RTOS. Firmware services may include sensor drivers, GNSS control, modem management, network registration, device state machines, watchdog recovery, local storage and secure cloud communication.

For intermittent networks, we implement store-and-forward queues, message identifiers, acknowledgements and controlled retries. This prevents a temporary coverage loss from either discarding measurements or causing an uncontrolled reconnection loop that drains the battery.

Our NTN services deal with activities like modem configuration, network selection, registration diagnostics, connection and signal logging, payload management, handling of timeouts and recovery strategies. We work with different types of NTN connectivity providers and check the performance of NTN under realistic conditions.

Satellite IoT is not broadband. The best results come from compact, event-driven messages and applications designed for variable latency. We therefore optimize telemetry formats, reduce unnecessary protocol overhead and prioritize alarms over routine measurements.

We design custom nRF9151 hardware around the product's electrical, mechanical and environmental constraints. Work can include schematics, component selection, multilayer PCB layout, sensor interfaces, power supplies, battery charging, debug access, SIM or eSIM integration, external flash and production-test points.

Cellular, satellite and GNSS antenna placement is considered early. Enclosure materials, ground clearance, nearby batteries, cables and mounting surfaces can materially change RF performance. Prototype testing and antenna tuning are planned before design freeze.

Tracking applications can combine scheduled GNSS fixes with accelerometer-based motion detection, geofencing and adaptive reporting. A stationary asset may report infrequently, while movement, impact, route deviation or tampering can trigger a higher reporting rate.

When a GNSS fix is slow or unavailable, the firmware should follow a defined timeout and fallback policy instead of keeping the receiver active indefinitely.

Adequate Infosoft can build the wider IoT platform, including MQTT or HTTPS ingestion, device identity, time-series storage, maps, geofences, alarms, device configuration and fleet dashboards.

We also develop web and mobile applications for installers, operators and customers. Depending on the solution, this may include device activation, asset assignment, subscription management, telemetry history, role-based access, firmware status and alert acknowledgement.

Our security work covers secure boot, signed firmware, encrypted communication, unique device credentials, protected key storage and least-privilege cloud access. We also plan credential rotation, device revocation, secure manufacturing provisioning and controlled firmware updates.

Because remote products may remain deployed for years, device observability is equally important. Diagnostic data should identify modem failures, reset causes, battery deterioration, rejected updates and unusual communication costs without collecting unnecessary information.