We engineer LTE, 5G, multiple carriers, Multi-SIM and regional BWA as one resilient connectivity system with autonomous recovery.
Since the launch of 5G services, easy-to-deploy DSS has expanded while refarming of LTE spectrum to 5G NR has progressed in parallel. Industrial systems therefore need connectivity designed to operate throughout this transition.
As LTE spectrum narrows, congestion can have a greater impact on communications.
Use both available LTE and 5G access while preparing infrastructure for the transition toward 5G.
Combine 5G, LTE, regional BWA and local 5G according to the operating environment and mission requirements.
Maintain alternative communication paths so operations are not dependent on a single carrier or network.
Monitor communication and device states and support autonomous recovery when abnormalities are detected.
Keep essential local functions running without depending entirely on continuous cloud connectivity.
Optimize the radio environment by engineering not only the gateway, but also antennas and installation conditions.
Non-stop connectivity is not a single product. It is an architecture built by layering resilient technologies.
In a local 5G evaluation conducted with a technology partner, IDY examined latency across the 5G radio segment, iR800B-102 forwarding and the complete end-to-end path over an L2 overlay. The architecture, test conditions and results are summarized below.
A 100-byte RTT probe ran alongside UDP traffic in separate downlink and uplink tests. Average latency, the 99th percentile (P99) and packet loss show how the path behaved under load.
| Direction / state | Offered → delivered | Mean RTT | P99 RTT | Loss |
|---|---|---|---|---|
| DLUnder downlink load | 70 → 69.9 Mbps | 13.72 ms | 16.36 ms | 0% |
| ULUnder uplink load | 20 → 20.0 Mbps | 10.66 ms | 13.98 ms | 0% |
| ULAt configured limit | 30 → 27.4 Mbps | 225.7 ms | 253.2 ms | 8.3% |
In this test, the uplink path was limited to about 30Mbps by the base-station configuration. Near that limit, queueing increased RTT and packet loss. This describes this configuration, not the uplink capability limit of iR800B-102.
Method: each offered load ran for approximately 60 seconds, with one run per direction. RTT was measured with sockperf at 100 bytes and 100 packets/s alongside iperf3 UDP traffic; delivered rates are received throughput. These are single-condition observations, not guaranteed speed or latency.
Conditions: local 5G n79 with 100MHz bandwidth over an L2 overlay. Only the 5G path was active; seamless failover and dual-path performance were outside this test scope.
Resilience is determined not by SIM count alone, but by how many networks remain registered, how many links can carry traffic concurrently and which path can take over after a failure. IDY engineers link monitoring, path selection, post-switch validation and recovery decisions as one communications-control system.
iR800B-102
iS201BTwo paths can operate as Active links. Switching to internal SIM B requires network registration, so recovery takes longer than with a registered standby path.
iR800B-107iS201BAll three networks remain registered, with two Active links and one Standby path. Keeping the standby network registered reduces the processing required before switching compared with a re-registration architecture.
“Two Active” indicates that two WAN links are concurrently available. It does not by itself mean automatic bandwidth aggregation or seamless switching for every application. Actual recovery time and continuity depend on registration state, carrier, detection policy, routing and application-level retransmission and session design.
With the cooperation of Tama Cable Television Network, IDY evaluated connectivity and data communication using its Regional BWA SIM across IDY LTE routers, 5G/LTE gateways and 5G USB modems. The results confirm interoperability for nationwide deployment based on the Regional BWA roaming framework among CATV operators.
Scope: network attachment and data communication on Regional BWA Band 41. Deployment requires configuration appropriate to each operator’s SIM contract, APN, authentication and roaming conditions.
These examples present engineering scope and measured findings from development and validation work. Customer names and project-specific identifiers are intentionally omitted.
IDY integrated 60GHz wireless into an iR800B-based teleoperation system. The architecture carries immersive video and audio, control traffic and time synchronization while prioritizing low latency and low jitter.
In an n79 100MHz local 5G environment, IDY measured a path including iR800B and an L2 overlay. Average RTT was 7.5–7.7ms across the 5G segment and 9.3–9.6ms end to end, isolating approximately 2ms of device and overlay overhead.
For a high-speed mobility test environment, IDY examined device functions that identify authorized areas and multiple cells before allowing transmission. The design translates regulatory conditions, cell selection and operational visibility into product behavior.
* Results were measured under specific system, configuration and radio conditions and do not guarantee identical performance in every deployment.
