Energy & Utilities Asset Intelligence

For network operators, generation companies, and water authorities managing distributed assets across remote and complex environments.

Inspect your entire portfolio without planned outages, scaffolding, ropes or confined space entry. Your asset portfolio insights without the long operational shutdowns. Faster, Safer & Complete Data.

ISO 14001

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ISO 45001

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ISO 9001

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CASA Certified ReOC

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$20m Insurance

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ISO 14001 - ISO 45001 - ISO 9001 - CASA Certified ReOC - $20m Insurance -

PLANNED OUTAGE WINDOWS ARE LIMITED. CAPTURE CONDITION DATA WITHOUT ADDING TO YOUR SHUTDOWN SCHEDULE.

The Cost of Incomplete Asset Visibility

Outage Costs of $50,000 to $500,000

Planned outage windows cost $50,000 to $500,000 per event in lost generation or supply penalties

Remote and Hazardous Environments

You manage assets in hard-to-reach, risky, or costly locations. Safety and liability concerns, the impact of expensive downtime, and lost opportunities.

Complete Asset Intelligence Without Operational Disruption

Energised Inspection

Inspect substations, switchyards, and transmission lines while they remain live. Our pilots hold authorised person training and operate from safe standoff distances with high-resolution zoom and radiometric thermal sensors. 
Energy and utility operators face compounding problems: ageing infrastructure, growing compliance obligations, an aging workforce and skills shortages. Traditional inspection methods require de-energisation, traffic management, and confined space entry, creating a backlog that grows faster than budgets allow.

30% of outages are avoidable

Vegetation encroachment causes 30% of unplanned outages on distribution networks [Source: Energy Networks Australia]

Regulatory Pressure & Documented Evidence Backlogs

Regulatory compliance cycles (5-year structural, annual visual) are creating backlogs across large portfolios. 
Verifiable, documented proof of asset condition, environmental impact, encroaching vegetation plans, OHS, and more. Manual reports and random photos leave gaps in compliance records and in the information needed to fix issues early.

Multi-Environment Coverage

One partner for aerial (power lines, solar, wind), ground (substations, pipelines), confined space (turbine internals, tanks), and underwater (dams, intake structures, cooling systems).
Solar farm inspection using a radiometric thermal drone detecting solar failures and fire risk before the incident occurs by DeepSky IQ
We reduce downtime, lower labour costs, enhance preventative maintenance, improve decision-making and strengthen sustainability outcomes across operations.

Massive Asset Portfolios & 85% of the details are missed

Whether it's large power lines, solar farms, roads, bridges, dams, ports, railways, or mines. Using traditional methods to inspect them is slow, costly, and misses too much detail. 

Visual-only inspection misses up to 85% of subsurface thermal defects on electrical assets

DeepSky IQ delivers independent, engineering-grade inspection data across your entire energy and utility portfolio. We operate around live infrastructure with advanced CASA approvals, eliminating the need for de-energisation, scaffolding, ropes or confined-space entry.

Defensible Condition Data

RTK-enabled capture at +/-2cm accuracy with Ground Control Points for absolute accuracy. Outputs include georeferenced thermal anomaly reports, defect severity classification (NETA MTS-2019), and time-series change detection for lifecycle planning.

Thermal Fault Detection:

We identify electrical faults in power lines and solar farms before they cause catastrophic failure, using radiometric thermal imaging.

Zero-Shutdown Inspections:

We inspect critical infrastructure, such as cooling ponds, storage tanks, and processing plants, to ensure they remain fully operational under most circumstances.

Comprehensive Digital Twins: 

We build accurate 3D-to-8D models of your sites, allowing your engineering teams to plan maintenance and upgrades remotely, with a single model from the tops of towers to 500m underwater, 360 degrees.

Vegetation Management:

We use high-resolution and multispectral imaging to monitor vegetation and soil health, weeds, plants, and pest encroachment near power lines and other assets, and to identify high-risk areas before they cause outages. We also offer integrated pest management plans for long-term effectiveness, RPAS aerial spraying, spot-treating, hydroseeding, and fertilising.

30-50% faster inspection cycles. Up to 60% reduction in working-at-height exposure.

Massive Asset Portfolios

An ageing workforce and skills shortage are limiting inspection capacity

Assets Across Energy & Utilities

A drone inspection image by DeepSky IQ of a wooden utility pole with electrical insulators and wires, set against a green rural landscape with trees and a cloudy sky.

Transmission & Distribution Lines

Method: Aerial thermal + visual, LiDAR corridor mapping

Key Deliverables: Defect register, vegetation clearance report, conductor sag analysis.

Aerial drone view of a large concrete dam spanning between two forested cliffs with water behind it.

Dams, Reservoirs & Hydro Assets

Method: Aerial thermal + visual, LiDAR corridor mapping

Key Deliverables: Wall movement detection, spillway condition, crack mapping, erosion, and submerged intake inspection plus more.

An aerial inspection image by drone from DeepSky IQ of an electrical substation with transformers, circuit breakers, and power lines enclosed by a chain-link fence, set in a rural area with trees in the background.

Substations & Switchyards

Method: Aerial thermal + zoom (energised)

Key Deliverables: Hot joint identification, insulator condition, NETA severity classification

A concrete culvert pipe with water flowing into the dark interior, surrounded by reddish soil and sparse grass, for a confined space drone inspection by DeepSky IQ.

Water & Sewer Networks

Method: Confined space drone + ROV

Key Deliverables: Pipelines & Culverts, Internal pipe condition, blockage detection, corrosion mapping

A large solar farm with rows of solar panels in a desert landscape, with some panels shown with thermal overlay so defective cells glow and are only visible by thermal drone imaging by DeepSky IQ.

Solar Farms

Method: Aerial thermal + visual

Key Deliverables: Cell/string fault detection, soiling analysis, IV curve correlation

Aerial drone inspection view of a large cooling tower at a power plant with steam rising from the top and the surrounding industrial area by DeepSky IQ.

Tanks & Storage Vessels

Method: Confined space drone visual& LiDAR (internal) + aerial visual/thermal/LiDAR (external) + contact-based ultrasonic thickness measurement.

Key deliverables: Internal lining condition, floor plate corrosion mapping, shell plate thickness (API 653), roof condition, nozzle and fitting, thermal performance, structural NDT

Close-up inspection by DeepSky IQ of a wind turbine blade leading edge with visible wear and peeling paint against a landscape of rolling green hills and a blue sky.

Wind Turbines

Method: Aerial visual + thermal (blade, nacelle, tower)

Key Deliverables: Leading edge erosion mapping, lightning damage, and crack propagation tracking

Drone image by DeepSky IQ of an outdoor industrial gas control and piping system enclosed by a chain-link fence on a concrete pad, with trees and a road in the background lloking for visual and thermal gas leackage and condition reports.

Gas Distribution

Method: Ground-level thermal + aerial survey

Key Deliverables: Leak detection, easement compliance, cathodic protection assessment, vegetation, ground movement, erosion in the corridor and environment around the pipe.

60 - 80 %

Cost Reduction vs Helicopter Based Inspections

$50k - $500k

Avoided Per Outage

0.1 mm 

Crack Detection Resolution

+/ - 2cm

RTK Positional Accuracy for Spatial Deliverables

30-50% faster inspection cycles| Up to 60% reduction in working-at-height risk exposure|‍ ‍Zero Shutdowns

How It Works (Process)

Step 1: Scope & Risk Assessment

We assess your asset portfolio, identify priority inspection targets, and develop a program that aligns with your maintenance windows, categorisations and compliance cycles. No generic proposals.

Step 2: Mobilisation & Capture

Our CASA-certified pilots deploy enterprise platforms (e.g. DJI Matrice 400, M4T, Flyability ELIOS 3, ROVs) with thermal, visual, LiDAR, and NDT sensors as required by the scoping. We operate around live infrastructure without requiring shutdowns in most circumstances unless a safety risk or quality risk is present.

Step 3: Processing & Analysis

Raw data is processed into engineering-grade deliverables: georeferenced defect registers, thermal anomaly reports with NETA severity classification, 3D to 8D digital twins, and change detection overlays.

Step 4: Reporting & Integration

Deliverables are formatted for direct integration into your asset management system (e.g. Maximo, SAP, GIS). Structured for audit readiness, compliance reporting, and lifecycle planning. 

Applicable Services

A large industrial setting with multiple metallic pipes, some highlighted with digital annotations and overlays of detects, using a confined space drone by DeepSky IQ.

Scope Your Energy & Utilities Inspection Program

Whether you need a single substation thermal scan or a portfolio-wide powerline inspection program, we scope to your compliance cycle and maintenance windows.

Frequently Asked Questions

Can you inspect live power lines?

Yes. Our pilots are trained to operate safely as authorised persons around high-voltage infrastructure. We use specialised drones with high-resolution zoom and thermal cameras find heat anomalies, insulating failures, and spotting rust or structural damage capturing detailed imagery from a safe standoff distance, eliminating the need for shutdowns. 

Do you hold the CASA approvals & other certifications needed to operate near high-voltage infrastructure?

Yes. DeepSky IQ holds a CASA ReOC (Remote Operator Certificate) with advanced endorsements including EVLOS I & II (Extended Visual Line of Sight), Enclosed BVLOS, night operations, and operations over populated areas. Our pilots are trained to operate safely as authorised persons around high-voltage infrastructure, using specialised drones with high-resolution zoom and thermal cameras from safe standoff distances.

Do you operate in urban and remote locations?

How much does drone powerline inspection cost per kilometre in Australia?

Can drones inspect substations and switchyards while they remain energised?

What defects can thermal imaging detect on electrical infrastructure?

How do drones inspect wind turbines without stopping them?

What is the ROI of switching from helicopter to drone powerline inspection?

Can drones and ROVs inspect dams and water infrastructure?

Absolutely. We are equipped to deploy to urban and remote sites across Australia. We hold comprehensive CASA approvals with advanced endorsements, allowing us to work anywhere and cover massive areas efficiently.
Drone powerline inspection in Australia typically costs between $200 and $800 per kilometre, depending on terrain, vegetation density, and reporting requirements. This compares to $1,500-$4,000 per kilometre for helicopter-based methods and $3,000-$8,000 per kilometre for ground-based climbing crews. The cost reduction of 60-80% compared with helicopter methods stems from lower mobilisation costs, the absence of the need for large landing zones, and the ability to fly closer to conductors for higher-resolution defect detection.
Yes. Drones equipped with radiometric thermal cameras and high-resolution zoom lenses can inspect energised substations from safe standoff distances (typically 5-15 metres from live conductors). Thermal imaging identifies hot joints, overloaded connections, and failing insulators without requiring de-energisation or human entry into the switchyard. This eliminates the planned outage window (typically $50,000-$500,000 in lost generation or supply penalties) and reduces inspection time from 2-3 days to 2-4 hours per substation.
Radiometric thermal imaging detects a range of electrical defects, including hot joints (loose connections), overloaded conductors, failing surge arresters, degraded insulators, transformer cooling issues, and unbalanced loads. Temperature differentials of 2-3 degrees Celsius above ambient indicate developing faults, while differentials over 10 degrees Celsius indicate critical defects requiring immediate intervention. Our AI-powered analysis automatically supports the classification of defects by severity (minor, serious, critical) according to NETA MTS-2019 standards, enabling prioritised maintenance scheduling.
Drones can inspect wind turbine blades, nacelles, and towers while the turbine is in a slow-rotation or locked position. Blade inspection requires the turbine to be stopped and locked (typically 2-4 hours per turbine), but tower and nacelle inspection can proceed during normal operation. A single drone team can inspect 8-12 turbines per day compared to 1-2 per day using rope access. Defects detected include leading edge erosion, lightning strike damage, crack propagation, and blade root delamination, with resolution sufficient to identify cracks as small as 0.5mm.
Operators typically achieve 60-80% cost reduction per kilometre when switching from helicopter to drone-based powerline inspection. For a 500km distribution network inspected annually, this represents savings of $325,000-$1,600,000 per year. Additional ROI comes from higher defect detection rates (drones fly closer to conductors, capturing higher-resolution imagery), reduced vegetation management costs through precise encroachment mapping, and elimination of large landing zone requirements in urban areas.
Yes. We deploy aerial drones for dam wall faces, spillways, and surrounding embankments, combined with underwater enterprise ROVs for submerged components, including outlet valves, intake structures, and dam toe areas. This multi-environment approach provides comprehensive dam-condition intelligence without draining the reservoir or deploying divers, saving time and costs. Our LiDAR-equipped drones detect millimetre-level movement in dam walls, crack mapping and changes over time through repeat surveys, while ROV-mounted sonar maps sediment accumulation and identifies scour patterns that threaten structural integrity.