Remote Oil and Gas Fields Coverage with Allmän RF Drive Test Software & Mobile Network testing

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Remote oil and gas fields in the United States are often located far from towns, highways and public mobile networks. Well pads, pipelines, compressor stations, storage areas and worker camps may be spread across hundreds of square kilometres. In many of these locations, public 4G or 5G coverage is weak, unstable or completely unavailable. So, now let us see RF Drive Testing for Remote Oil and Gas Fields Where Public Coverage Does Not Exist along with RantCell’s LTE RF drive test tools in telecom & RF drive test software in telecom and RantCell’s Mobile Network Monitoring Tools, Mobile Network Drive Test Tools, Mobile Network Testing Tools in detail

Operators therefore use private LTE, private 5G, microwave, satellite and fibre backhaul to connect field equipment and workers. The wireless network may support SCADA data, video cameras, push-to-talk communication, maintenance applications, environmental sensors and remote machine control. Private cellular networks are increasingly used because they provide controlled coverage, SIM-based access, mobility and better traffic management than normal Wi-Fi systems.

Installing a private network does not confirm that the field is fully covered. RF testing is required across every well pad, access road, processing area and pipeline route.

RF Conditions Across an Oil Field

Oil fields create several radio challenges. The terrain may include hills, dry valleys, open plains and large steel structures. Tanks, drilling rigs, pumps and processing equipment can block or reflect the signal. The network must also cover moving vehicles travelling between widely separated sites.

A radio-planning tool can estimate coverage, but actual field measurements are still required. Antenna height, feeder loss, terrain data, radio power and local obstructions can produce a large difference between predicted and measured coverage.

Drive testing allows engineers to collect RF measurements while travelling through the operational area. The test route should include normal worker routes, emergency-access roads, well-pad entrances, equipment yards and known weak locations.

KPIs Required During Testing

For LTE networks, engineers should collect RSRP, RSRQ, SINR, serving-cell information, PCI, EARFCN and neighbour-cell data. For 5G, the test should include SS-RSRP, SS-RSRQ, SS-SINR, NR-ARFCN, PCI, band and connection mode.

Signal level alone is not enough. A location may show acceptable RSRP but poor SINR due to interference or incorrect antenna overlap. This can reduce throughput and increase packet retransmissions.

Downlink and uplink throughput should be measured separately. Uplink testing is especially relevant because cameras, field sensors, inspection devices and maintenance applications send data from the remote site towards the control centre.

Latency, jitter and packet loss must also be tested. SCADA messages may require only a small amount of data, but they must reach the control system without repeated delay or loss. Video inspection and remote support need stable uplink capacity. Remote control applications need predictable response time.

Mobility and Handover Testing

Field vehicles may move between several private LTE or 5G cells during one journey. The device should transfer between cells without losing the data session.

Engineers should record handover attempts, successful handovers, failures, radio-link failures and service interruptions. Test results must show where the device stayed too long on a weak cell or moved to the wrong neighbour.

Route-based testing is useful because the same road may be used every day by maintenance teams and emergency vehicles.

Testing CBRS Networks

Many private cellular deployments in the United States use CBRS spectrum in the 3550–3700 MHz range. CBRS uses a shared-access structure managed through a Spectrum Access System. It supports both licensed and licensed-by-rule operation and can be used for private LTE and 5G deployments.

CBRS provides useful capacity, but 3.5 GHz coverage can be affected by terrain, equipment and distance. Engineers must test cell-edge performance, indoor coverage inside control cabins and signal behaviour behind tanks or drilling structures.

Testing should also confirm that the radio remains registered with the Spectrum Access System and operates on the assigned channel and power level.

Backhaul and Local Operation

A private radio network may work correctly while the satellite or microwave backhaul is unstable. RF results and backhaul results should therefore be analysed separately.

Local services such as worker communication, SCADA and equipment control may need to continue even when the link to the central office is lost. Some private 5G designs use local edge processing and local core functions to maintain site operation during a backhaul failure.

RF drive testing gives the field engineering team measured data from the actual operating area. It confirms coverage, quality, mobility, capacity and service behaviour before the network is used for safety and production work. For remote oil and gas sites, this testing should be repeated after antenna changes, new drilling activity or major equipment movement.

About RantCell

RantCell is a cloud-based RF drive test and network performance measurement platform designed for public mobile networks, private LTE, private 5G and enterprise wireless deployments. It enables engineers to collect real-time RF, network and user experience KPIs using Android and iOS devices without requiring specialised test hardware.

The platform supports drive testing, walk testing, indoor testing, background monitoring and automated testing across a wide range of deployment scenarios. Engineers can measure KPIs such as RSRP, RSRQ, SINR, throughput, latency, packet loss, MOS and many other network performance indicators. Test results are uploaded automatically to the cloud, allowing teams to analyse coverage, identify problem areas, compare network performance and generate reports from a central dashboard.

Whether validating a newly deployed private 5G network, benchmarking operator performance or monitoring large enterprise deployments, RantCell provides a practical solution for faster network testing and continuous performance monitoring. Also read similar articles from here.