SkyHub Data Security: How SPH Engineering Keeps Mission Data Safe

Organisations across the UK rely on drones for surveying, inspection and environmental monitoring, and they need confidence that mission data stays secure. SkyHub, SPH Engineering’s onboard computer, gives operators full control by storing and processing all mission data offline. This approach removes cloud-related risks and ensures sensitive information remains under operator ownership.

This article is part of the wider group of articles associated with SPH Engineering:
What is SkyHub? → Transforming UAV Geophysics in the UK: JBUAS & SPH Engineering

What SkyHub Is and Why It Matters

SkyHub is SPH Engineering’s onboard computer for commercial UAVs. It integrates external sensors, synchronises telemetry and records mission data securely. This design allows operators to extend their drones with advanced payloads for geophysics, methane detection, bathymetry and environmental monitoring.

SkyHub from SPH Engineering

How SkyHub Collects and Protects Data

SkyHub records sensor measurements and drone telemetry directly on the aircraft. It geotags every reading with precise time and location data, ensuring accurate mapping and analysis after the flight.

“Sensor data is recorded in SkyHub, where it is combined with drone telemetry…
automatically geotags measurements with accurate location and time information.”
– SPH Engineering UgCS for UK surveyors — complete guide

Offline Storage for Maximum Security

Unlike cloud-dependent platforms, SkyHub stores all mission data locally. Operators download the data directly to their own offline systems, keeping full control.

“With SkyHub, your data is always protected. All mission data is recorded offline in standard formats such as CSV, SEG-Y, and NMEA-0183. This guarantees maximum security, accuracy, and confidentiality.”
– SPH Engineering

Instead of transferring data to external cloud servers, SkyHub records data in its onboard computer. This reduces the possibility of cyberattacks, unauthorised access, or unintentional exposure during transmission. Organisations retain total ownership and control over their data because it stays offline during the mission.

This offline-first design reduces exposure to cyberattacks, unauthorised access and accidental cloud leaks.

SkyHub from SPH Engineering

Maintaining Data Integrity

SkyHub synchronises sensor readings with telemetry in real time, reducing the chance of missing coordinates or corrupted logs. This workflow ensures reliable datasets for GIS reporting, compliance audits and environmental analysis.

Measurements are tagged with precise time and location data thanks to SkyHub’s integration of sensor data with drone telemetry. This makes the information gathered more reliable and simpler to analyse by lowering the possibility of data errors, missing coordinates, or incomplete records.

SPH Engineering states that “data security and confidentiality are paramount in our design”, highlighting that mission data is processed locally rather than relying on external cloud services.

Sensitive data never leaves the control of the operator because SkyHub processes all data both onboard and offline, in contrast to cloud-dependent systems. This strategy helps businesses who must adhere to stringent secrecy and data-handling regulations.

Why UK Operators Choose SkyHub

UK organisations often work under strict confidentiality and regulatory requirements. SkyHub’s offline architecture supports these needs by keeping sensitive data under operator control throughout the mission.

JBUAS, SPH Engineering’s UK partner, integrates SkyHub into complete UAV systems and provides hands-on demonstrations at the UK Geophysical Test & Training Centre.

Final Thoughts

SkyHub’s offline-first architecture gives UK operators complete control over mission data. By combining onboard processing, telemetry synchronisation and secure storage, SPH Engineering ensures that survey, inspection and environmental monitoring data remains accurate, confidential and fully operator-owned.

Related Reading (Cluster Articles)

• What is SPH Engineering’s SkyHub and how does it work?
• SPH Engineering UgCS for UK surveyors — complete guide
• SPH Engineering GPR vs traditional ground GPR workflows
• SPH Engineering methane detection: UK industrial applications
• Why SPH Engineering chose JBUAS as its UK partner
• How JBUAS and SPH Engineering Are Transforming UAV-Based Geophysics in the UK

SPH Engineering UgCS for UK Surveyors

UgCS (Universal Ground Control Software) from SPH Engineering has become the mission‑planning standard for UK surveyors who need reliable, terrain‑aware, multi‑sensor drone workflows. As SPH Engineering’s UK integration partner, JBUAS supports surveyors across construction, utilities, heritage, energy and environmental sectors with fully configured UgCS‑based systems, training, and sensor‑specific workflows.

SPH Engineering UgCS professional UAV mission planning software

This guide explains how UgCS works, why UK surveyors rely on it, and how JBUAS helps organisations deploy it effectively.
It sits within the wider UAV geophysics pillar:

SPH Engineering UgCS for UK Surveyors → How JBUAS and SPH Engineering Are Transforming UAV‑Based Geophysics in the UK.

What UgCS Actually Does for UK Surveyors

UgCS is a professional flight‑planning and mission‑control platform designed for complex commercial UAV operations.

Unlike basic OEM apps, UgCS provides:

• True Terrain Following (TTF) for safe low‑altitude surveys
• Multi‑sensor mission planning (GPR, magnetometry, methane, echo sounding, thermal)
• Corridor mapping tools for pipelines, utilities and transport routes
• Offline planning for secure environments
• Advanced geospatial imports (DTMs, DSMs, CAD, KML/KMZ)
• Full integration with SkyHub, SPH Engineering’s onboard computer

For a deeper look at data handling, see our post What is SPH Engineering’s SkyHub, and how does it work:

“Sensor data is recorded in SkyHub, where it is combined with drone telemetry…
ensuring all data can be precisely mapped and analysed after the flight.”

UgCS is the software layer that makes this synchronisation possible.

Why UgCS Matters in UK Surveying Workflows

True Terrain Following for Low‑Altitude Sensors

TTF is essential for magnetometers, GPR, methane sensors and echo sounders.
UgCS uses imported elevation models to maintain constant height above ground — something DJI Pilot cannot do safely at low altitudes.

In methane detection workflows, UgCS and SkyHub work together with radar‑based TTF:

“Connecting the True Terrain Following radar to SkyHub allows safely maintaining low flight altitudes constantly.”
– SPH Engineering Methane Detection: UK Industrial Applications.

Complex Mission Types

UgCS supports mission profiles that UK surveyors use daily:

• Lawn‑mower grids for environmental mapping
• Linear corridor missions for pipelines and utilities
• Low‑altitude geophysical sweeps
• Bathymetry transects
• Archaeological target‑area grids
• Landfill gas‑emission mapping

Offline, Secure Planning

UgCS is fully offline‑capable — essential for confidential industrial sites, defence estates, and regulated environments.
This complements SkyHub’s offline mission‑data recording, as described in SkyHub Data Security: How SPH Engineering Keeps Mission Data Safe.

UgCS + SkyHub: The UK’s Most Capable Multi‑Sensor UAV Stack

SkyHub acts as the onboard brain, synchronising sensor data with flight telemetry.
UgCS acts as the ground‑control brain, planning and executing missions.

Together they provide:

• Real‑time logging
• Precise geotagging
• Standardised outputs (CSV, SEG‑Y, NMEA‑0183)
• Offline data security

“All mission data is recorded offline… guaranteeing maximum security, accuracy, and confidentiality.”
– SPH Engineering

This combination is why UK surveyors choose UgCS for regulated sectors such as utilities, energy, heritage and environmental compliance.

UgCS Mission Types Used in the UK

A. Geophysical Surveys (Magnetometry, GPR, EM)

UgCS supports constant‑altitude geophysical grids, buried‑target simulation workflows, and calibration routines at JBUAS’s 7,500 m² test centre.
These workflows are described in the pillar article How JBUAS and SPH Engineering Are Transforming UAV‑Based Geophysics in the UK:

“The site allows clients to experience true terrain following missions, multisensor workflows, buried‑target simulation…”

B. Methane & Environmental Gas Mapping

UgCS enables automated grid patterns, corridor missions along pipelines, and real‑time plume mapping via SkyHub.
For further information about methane‑specific workflows, see SPH Engineering Methane Detection: UK Industrial Applications:

“UgCS flight software supports linear corridor planning along buried gas trunk lines.”

C. Bathymetry & Water‑Body Surveys

UgCS supports echo sounder transects with constant‑altitude profiles, smooth velocity control, and safe low‑level flight over water.

D. Construction & Infrastructure

UgCS is used for pre‑construction mapping, stockpile measurement, utility corridor planning, and structural inspection workflows.

UgCS Features UK Surveyors Rely On

True Terrain Following (TTF)

Maintains constant height above ground — essential for low‑altitude sensors.

Multi‑Sensor Support

UgCS integrates:

• Magnetometers
• GPR
• Methane sensors
• Echo sounders
• Thermal cameras
• Multispectral sensors

Advanced Geospatial Imports

Supports DSM/DTM, LiDAR, CAD, KML/KMZ and Ordnance Survey datasets.

Corridor Mapping Tools

Ideal for pipelines, powerlines, rail corridors and water networks.

Offline Mission Planning

Critical for confidential industrial sites, defence estates and regulated environments.

UgCS‑Compatible UAV Platforms in the UK

UgCS is typically deployed on commercial‑grade multirotors such as the DJI Matrice 300 RTK, Matrice 350 RTK and Matrice 400, supporting heavy geophysical payloads, long endurance and all‑weather operations.
These platforms are commonly used in methane detection missions described in SPH Engineering Methane Detection: UK Industrial Applications.

How JBUAS Supports UgCS Deployments in the UK

A. Fully Integrated Systems

JBUAS builds complete survey platforms including aircraft, SkyHub, sensors, mounting, UgCS mission profiles and training.

“JBUAS specialises in building complete, ready‑to‑deploy UAV platforms…”
– How JBUAS and SPH Engineering Are Transforming UAV‑Based Geophysics in the UK.

B. UK Test & Training Centre

The 7,500 m² facility provides real‑world sensor trials, terrain‑following demonstrations, calibration workflows and multi‑sensor mission testing. With our “Fly Before You Buy” ethos, clients are invited to see drones and sensors deployed before making a financial commitment. Being able to see how data is processed in real-time and then assessing the results on-site gives users confidence in choosing the correct solution for their project.

C. Local Technical Support

UK surveyors receive fast response times, firmware updates, sensor calibration and mission‑planning guidance.

D. Compliance & Data‑Security Guidance

UgCS + SkyHub supports UK regulatory needs including Environment Agency methane reporting, heritage site surveying, utility corridor inspections and offline data security for sensitive sites.
For data‑security specifics, see SkyHub Data Security: How SPH Engineering Keeps Mission Data Safe.

Who Should Use UgCS in the UK?

UgCS is ideal for:

• Geophysical surveyors
• Environmental consultants
• Utility operators
• Pipeline inspectors
• Construction surveyors
• Heritage & archaeology teams
• Landfill & emissions auditors

If your workflow requires low‑altitude precision, multi‑sensor integration, or regulated‑site operations, UgCS is the correct platform.

UgCS Pro Expert: Advanced Mission Planning for Specialist Surveyors

SPH Engineering UgCS Expert

UgCS Pro Expert is the edition designed for UK surveyors who need deeper control over complex missions, multi‑sensor workflows and advanced geospatial imports. It builds on the standard UgCS feature set with additional tools that support high‑precision, low‑altitude and regulated‑site operations.

Pro Expert is typically deployed by:

• Geophysical survey teams running magnetometry, GPR and EM missions
• Environmental consultants conducting methane and landfill‑gas mapping
• Utilities and pipeline operators requiring long corridor missions
• Heritage and archaeology specialists working in sensitive or restricted areas

UgCS Enterprise: Multi‑Operator, Multi‑Site Mission Control for Organisations

SPH Engineering UgCS Enterprise

UgCS Enterprise is the top‑tier edition designed for organisations that need centralised mission management, multi‑pilot coordination and secure deployment across multiple sites or departments. It is widely used by utilities, energy companies, environmental regulators and large engineering firms.

Enterprise is suited to organisations that operate:

• Multiple UAV teams
• Large or distributed infrastructure networks
• Regulated‑site inspections
• High‑volume environmental or compliance workflows

Final Takeaway

UgCS is not just another flight‑planning tool — it is the backbone of advanced UAV surveying in the UK.
Combined with SkyHub and JBUAS’s integration expertise, it enables surveyors to run safer, more accurate, more efficient missions across every major industrial sector.

Related Reading (Cluster Articles)

• What is SPH Engineering’s SkyHub, and how does it work?
• SPH Engineering UgCS for UK surveyors — complete guide
• SPH Engineering methane detection: UK industrial applications
• Why SPH Engineering chose JBUAS as its UK partner
• How JBUAS and SPH Engineering Are Transforming UAV-Based Geophysics in the UK
• How SPH Engineering’s TTF Radar Enables Safe Low‑Altitude UAV Flight

SPH Engineering’s TTF Radar and Drone Integration

Why True Terrain Following radar is now essential for UK geophysical, environmental and industrial drone operations.

Low-altitude UAV flight is where the most valuable survey data is collected — but also where the risks multiply. Magnetometers, GPR, methane sensors, echo sounders and other specialist payloads all require flight profiles just metres above the ground or water surface. At these altitudes, relying on barometric height or basic OEM terrain awareness is not enough.

SPH Engineering’s True Terrain Following radar (TTF) has become the industry standard for safe, automated low-altitude flight in the UK. Integrated through SkyHub and controlled via UgCS, it enables drones to maintain a constant height above ground or water — even in steep, uneven or hazardous environments. As SPH Engineering’s UK integration partner, JBUAS delivers fully configured TTF-enabled systems, training, and real-world demonstrations at its Test & Training Centre.

What True Terrain Following Radar Actually Does

SPH Engineering’s True Terrain Following Radar

The True Terrain Following radar provides real-time altitude correction, allowing drones to maintain a constant height above ground or water — even in complex terrain, steep embankments, woodland edges, landfill cells, or uneven industrial sites. This is the core function: continuous, automatic altitude adjustment, independent of DJI’s barometric system.

Key capabilities of True Terrain Following Radar:

• Constant AGL height for geophysical payloads
• Safe methane mapping over hazardous industrial zones
• Stable altitude for bathymetry over uneven water surfaces
• Protection against barometric drift
• Fully offline operation

Why Low-Altitude Flight Is Difficult Without TTF

Barometric drift

DJI aircraft maintain height relative to the take-off point, not the terrain. Over a 2 km corridor, this can create altitude errors of ±10–20 m, making geophysical data unreliable and potentially unusable.

Terrain complexity

Landfills, pipeline corridors, heritage sites and industrial plants all contain sudden elevation changes, vegetation obstacles, steep slopes and restricted-access zones. Without True Terrain Following radar, maintaining safe, consistent altitude across these environments is extremely challenging.

Sensor accuracy

Magnetometers, GPR and methane sensors all require stable altitude to maintain data quality. As described in the UgCS guide:

How TTF Works with SkyHub

SkyHub is the onboard computer that synchronises sensor data with flight telemetry. It also acts as the processing layer for True Terrain Following radar.

SPH Engineering – UgCS SkyHub

Sensor data is recorded in SkyHub, where it is combined with drone telemetry. SkyHub then automatically geotags measurements with accurate location and time information, ensuring all data can be precisely mapped and analysed after the flight.

TTF + SkyHub workflow

• Radar measures real-time distance to the ground or water
• SkyHub processes the altitude signal and feeds it to the flight controller
• UgCS adjusts the flight path automatically to maintain target altitude
• Sensor data is synchronised with corrected altitude and drone telemetry
• All mission data is stored offline for secure post-processing and analysis.

UgCS: The Ground-Control Layer That Makes TTF Possible

UgCS (Universal Ground Control Software) is the mission-planning platform that fully supports SPH Engineering’s True Terrain Following radar. It provides terrain-aware planning, corridor mapping and low-altitude mission control for complex commercial UAV operations.

UgCS offers:

• Terrain-aware mission planning using DSM/DTM and elevation models
• Corridor mapping for pipelines, utilities and transport routes
• Low-altitude geophysical sweeps
• Bathymetry transects
• Offline planning for secure and regulated sites

True Terrain Following radar enhances these workflows by providing real-time correction, not just pre-planned elevation following.

Where TTF Radar Is Used in the UK

Geophysical Surveys (Magnetometry, GPR, EM)

Low-altitude grids for magnetometry, GPR and EM surveys require altitude stability within a narrow tolerance. True Terrain Following radar ensures a consistent sensor-to-ground distance across uneven terrain, improving data quality and repeatability.

Methane & Environmental Gas Mapping

Methane plume detection requires stable altitude for accurate column-density measurement. TTF radar allows drones to fly safely over hazardous industrial assets while maintaining the correct height for gas sensors.

Methane Plume

For more detail on methane workflows, see SPH Engineering Methane Detection: UK Industrial Applications.

Landfill Gas-Emission Audits

Landfills contain steep slopes, capped cells and unstable ground. True Terrain Following radar allows drones to fly low over these areas without putting personnel at risk while capturing high-resolution gas-emission data.

Pipeline & Utility Corridor Mapping

TTF radar enables long linear missions with constant altitude, essential for leak detection and infrastructure inspection along buried gas trunk lines, powerlines and water networks.

Bathymetry & Water-Body Surveys

Echo sounders require stable altitude above water to maintain consistent depth measurements. True Terrain Following radar provides the necessary altitude control over rivers, reservoirs and coastal waters, where barometric systems alone are insufficient.

Why TTF Radar Is Now a UK Industry Standard

Safety

True Terrain Following radar prevents altitude drop-outs that could cause sensor strikes, aircraft loss or unsafe proximity to structures and terrain. It reduces pilot workload and supports fully automated missions in complex environments.

Data quality

Stable altitude leads to stable sensor readings and reliable outputs. For geophysical, methane and bathymetry workflows, this directly improves interpretation and reporting.

Regulatory compliance

TTF radar supports UK regulatory requirements including Environment Agency methane reporting, heritage site surveying, utility corridor inspections and offline data security for sensitive sites, especially when combined with SkyHub’s offline recording.

Operational efficiency

By automating altitude control, True Terrain Following radar allows survey teams to focus on mission objectives and data quality rather than manual height management, reducing risk and increasing productivity.

JBUAS: The UK Centre for TTF-Enabled Systems

JBUAS is SPH Engineering’s UK integration partner, delivering advanced True Terrain Following radar systems for commercial surveyors, utilities, environmental consultants and industrial operators.

JBUAS provides:

• Fully integrated TTF + SkyHub + UgCS survey platforms
• Real-world demonstrations at the 7,500 m² Test & Trial Centre
• Sensor-specific workflows for magnetometry, GPR, methane and bathymetry
• Local technical support, calibration and mission-planning guidance
• Compliance and data security advice for regulated UK sites

Final Takeaway

SPH Engineering’s True Terrain Following radar is not an optional add-on — it is the foundation of safe, accurate, low-altitude UAV surveying in the UK. Combined with SkyHub’s offline data security and UgCS’s terrain-aware mission planning, TTF enables surveyors to operate confidently in complex, hazardous and regulated environments.

JBUAS provides the UK’s most advanced TTF-enabled systems, training and real-world testing, ensuring organisations can deploy these capabilities immediately and safely across geophysical, methane, bathymetry and industrial workflows.

Related Reading (Cluster Articles)

• What is SPH Engineering’s SkyHub, and how does it work?
• SPH Engineering UgCS for UK surveyors — complete guide
• SPH Engineering methane detection: UK industrial applications
• Why SPH Engineering chose JBUAS as its UK partner
• How JBUAS and SPH Engineering Are Transforming UAV-Based Geophysics in the UK
• How SPH Engineering’s TTF Radar Enables Safe Low‑Altitude UAV Flight

SPH Engineering Methane Detection

Methane emissions pose a growing challenge for UK industry, from landfill operations and chemical processing plants to extensive pipeline networks.

SPH Engineering’s methane-detection ecosystem — delivered in the UK through their partnership with JBUAS — provides a safer, faster and more accurate way to monitor industrial sites using automated UAV platforms. By combining SPH Engineering’s laser-based gas sensors, the SkyHub onboard computer and the UgCS mission-planning software, organisations can replace slow manual inspections with precise airborne surveys that strengthen compliance and reduce environmental risk.

Why Methane Monitoring Matters for UK Industry

Industrial operators across the UK face strict regulatory demands to identify, quantify and reduce methane releases. Traditional ground-based inspections often fall short: handheld detectors require technicians to walk hazardous terrain, coverage is limited, and results can be inconsistent.

Methane emissions can be dangerous for operations at UK industrial facilities and pipeline networks… ground crews often have to walk dangerous
sites with handheld detectors.

Airborne methane detection solves these problems by allowing sensors to scan large assets from a safe distance, delivering real-time data without exposing personnel to risk.

How SPH Engineering’s Methane-Detection Workflow Operates

SPH Engineering’s methane-detection payload uses tunable diode laser absorption spectroscopy (TDLAS) to measure methane concentrations with high sensitivity. The sensor directs a laser beam towards the ground and analyses reflected wavelengths to determine gas density in real time.

High-Sensitivity Plume Mapping

High-frequency sampling identifies faint leaks before they escalate into major hazards. Operators can generate detailed heatmaps showing plume origins, intensity and spread — ideal for regulatory reporting and maintenance planning.

In a typical mission, a rectangular survey area is overlaid with colour-graded concentrations — green for background levels, yellow for elevated readings, and red for peak methane emissions — giving a clear visual of where leaks originate and how they disperse across a landfill or industrial zone.

Methane Plume data visualisation

SkyHub: Secure, Synchronous Data Collection

SkyHub acts as the central processing unit for SPH Engineering payloads. It synchronises raw gas measurements with drone telemetry, timestamps each reading and storing all mission data offline, ensuring full operator control.

SkyHub enables sensor integration, telemetry synchronisation and secure mission data collection. All mission data is recorded offline in standard formats such as CSV, SEG-Y and NMEA-0183.

This offline-first design supports UK organisations that must comply with strict confidentiality and data-handling requirements.

Learn more about SkyHub’s secure data workflow in our SkyHub data security overview.

UgCS Mission Planning for Industrial Sites

UgCS provides automated flight-path planning, terrain-following profiles and corridor-mapping tools. Operators can import elevation models, configure lawnmower grids and programme long linear missions along pipeline routes. This ensures consistent coverage and accurate data capture across complex industrial environments.

Traditional vs Modern Methane Inspection Methods

Airborne systems deliver faster coverage, higher safety and more consistent results than traditional ground-based methods.

Key UK Industrial Applications

Landfill Gas Monitoring

Landfills continuously release methane due to organic waste decomposition. UAV-mounted sensors map entire landfill surfaces, detect leaks and support Environment Agency audits.

Capping Layer Inspections

Drones fly low over capped landfill cells to identify cracks or liner failures, enabling rapid repairs and maintaining containment.

Off-Gas Extraction System Audits

Airborne monitoring identifies pressure drops caused by loose fittings or damaged lines, improving gas-to-energy recovery.

Pipeline Integrity Surveys

UgCS supports long corridor missions along buried trunk lines, allowing drones to autonomously follow pipeline paths and log gas concentrations.

Remote Valve Station Checks

Airborne inspections remove the need for long ground journeys to isolated infrastructure, reducing time on site and improving safety.

Supported UAV Platforms

Falcon Plus TDLAS methane detector

Why UK Organisations Choose JBUAS

As SPH Engineering’s UK integration partner, JBUAS delivers fully configured methane-detection platforms, complete with SkyHub, UgCS and laser-based sensors.

JBUAS provides hardware integration, with hands-on testing at our dedicated facility in the UK.

Local Technical Expertise

JBUAS configures payloads, updates firmware, calibrates sensors and ensures every system is ready for immediate deployment.

UK Geophysical Test & Training Centre

The 7,500 m² test site allows clients to trial methane sensors, GPR, magnetometers and multisensor workflows under realistic conditions.

Hands-On Demonstrations and Training

Operators receive practical mission-planning guidance, safety training and real-time data-stream demonstrations.

Explore SPH Engineering’s Methane-Detection Tools.

For full technical specifications and sensor options, you can explore SPH Engineering’s dedicated methane-detection product range on their website.

Learn More About SPH Engineering UAV Geophysics

For a wider look at SPH Engineering’s sensor ecosystem and how JBUAS supports UK operators, visit our SPH Engineering UAV geophysics article.

Final Thoughts

SPH Engineering’s methane-detection ecosystem — delivered and supported locally by JBUAS — gives UK industries a modern, safe and highly accurate method for monitoring emissions. Automated UAV surveys reduce operational risk, strengthen compliance and provide the detailed data needed to protect both facilities and the environment.

Frequently Asked Questions (FAQs)

1. What is the maximum standoff distance for SPH Engineering laser sensors to detect methane?

SPH Engineering TDLAS laser sensors reliably detect methane columns. The accuracy is maintained even from standoff distances between 10 and 80 metres. This elevation enables operators to inspect pressurised assets and hazardous industrial structures. All of this is maintained while the drone craft and the ground pilots are kept at a safe distance outside the dangerous vapour zones.

2. How fast can a UAV methane survey team cover a large facility when compared to ground crews?

A single UAV mapping flight can cover up to 50 hectares in a day or scan long pipeline corridors at speeds up to 30 m/s (108 km/h). Thorough site inspections can be completed up to five times faster than by manual crews using handheld devices.

3. What are the correct file formats for GIS reporting and compliance with regulations?

Raw telemetry and concentration logs are processed using DroneGIS and UgCS. Data is output as industry-standard formats. The standard file formats include CSV, KML/KMZ, and report-ready PDFs. These structured exports ensure compliance under the EU 2024/1787 and the UK Environment Agency mandates.

4. Can the SPH Engineering methane detection system operate effectively in wet or windy British weather?

The DJI Matrice 350 RTK is IP55-rated. When mounted on such platforms, the system can handle light precipitation and operational winds up to 12 m/s. The onboard SkyHub controller maintains consistent data logging across temperatures. Such temperatures often range from -20°C to 50°C.

5. Does JBUAS offer calibration and servicing after purchase? Does it also offer sensor re-certification in the UK?

Yes. JBUAS provides complete UK-based post-sale lifecycle support. This support includes hardware maintenance, firmware updates and optical re-calibrations. The support also includes replacement parts directly from their Nottinghamshire facility. This eliminates the need to ship equipment back to continental Europe.

Related Reading (Cluster Articles)

• What is SPH Engineering’s SkyHub, and how does it work?
• SPH Engineering UgCS for UK surveyors — complete guide
• SPH Engineering methane detection: UK industrial applications
• Why SPH Engineering chose JBUAS as its UK partner
• How JBUAS and SPH Engineering Are Transforming UAV-Based Geophysics in the UK
• How SPH Engineering’s TTF Radar Enables Safe Low‑Altitude UAV Flight