ProxGrid
Aerial robots for industrial cleaning and power-grid maintenance at height without scaffolding or lifts.
Website: https://www.proxgrid.com/
Cover Block
Publicly reported
| Field | Value |
|---|---|
| Name | ProxGrid |
| Tagline | Aerial robots for industrial cleaning and power-grid maintenance at height without scaffolding or lifts. |
| Headquarters | Brisbane, Australia [LinkedIn] |
| Founded | 2026 [LinkedIn] |
| Stage | Pre-Seed [ECD Online, July 2026] |
| Business model | Hardware + Software |
| Industry | Deeptech |
| Technology | Robotics |
| Geography | Oceania |
| Growth profile | Venture Scale |
| Founding team | Co-Founders (2), Rasmus Gupta and Aidan Cairns [proxgrid.com, retrieved] |
| Funding label | Pre-seed [ECD Online, July 2026] |
Links
Publicly reported
- Website: https://www.proxgrid.com/
- LinkedIn: https://www.linkedin.com/company/proxgrid
Summary and Signal
PUBLIC ProxGrid is a Brisbane robotics startup building aerial systems for industrial cleaning and live power-grid maintenance, and it merits attention because the company is aiming at a safety-critical workflow where current methods still rely on scaffolding, lifts, rope access, or helicopter-supported operations [ProxGrid] [ECD Online, July 2026]. Founded in 2026 by Rasmus Gupta and Aidan Cairns, the company appears to be taking a staged approach: start with pressure-washing tall industrial structures, then extend into electrically insulated drones for inspection, cleaning, and coating of energized power-line insulators [LinkedIn] [ProxGrid] [AI Adopt Centre, September 2026].
The near-term product is the SPD25, which ProxGrid says can carry up to 13 kg, feed a high-pressure line to a spray boom, use centimetre-level RTK positioning, and wash structures up to 50 metres high, positioning the system as a way to keep crews on the ground during hazardous cleaning work [ProxGrid]. The technical differentiation, if it holds up in field use, rests less on generic drone hardware than on operating a useful payload at height with precision, then carrying that operating experience into live-line maintenance where the cost and safety case is stronger [ProxGrid] [Marco Moletta - KTH Royal Institute of Technology | LinkedIn].
The founding team is relevant to that ambition. ProxGrid says Gupta previously led development of a live-line drone certified for contact at 765 kV and now in commercial operation with Hydro-Québec, while F6S describes him as an aerospace engineer and commercial helicopter pilot with 10 years of industrial drone design experience; ProxGrid says Cairns is a commercial helicopter and drone pilot with prior ground-crew experience on power-line insulator-cleaning operations [ProxGrid] [F6S, September 2026] [Hydro-Québec] [Hydro-Québec] [ProxGrid].
On financing, the public record is still early. ECD Online reported in July 2026 that ProxGrid was raising $300,000 in pre-seed funding through the Propel-AIR program, and publicly available materials in this research set do not confirm a closed round or named lead investor [ECD Online, July 2026]. The business model is hardware plus software, with the company reported to be planning a direct-service motion under cleaning contracts first, followed by eventual sales of certified systems and a data platform, which is a sensible sequencing but still unproven commercially [ECD Online, July 2026].
Over the next 12 to 18 months, the key items to watch are whether ProxGrid converts prototypes into repeatable field deployments, whether the live-line product moves from development into utility-backed validation, and whether the company can raise enough capital to expand engineering without stretching beyond a small team base that LinkedIn lists as 1 to 10 employees [ARM Hub, October 2026] [AI Adopt Centre, September 2026] [LinkedIn]. The setup is credible enough to merit tracking, but most of the operating claims still sit close to company or partner-adjacent sources rather than broad independent validation.
No independent source found -- Material claims in this section rely heavily on company website disclosures and program or profile sources, with partial corroboration from ECD Online, F6S, LinkedIn, and Hydro-Québec.
Taxonomy Snapshot
| Axis | Value |
|---|---|
| Stage | Pre-Seed |
| Business Model | Hardware + Software |
| Industry / Vertical | Deeptech |
| Technology Type | Robotics |
| Geography | Oceania |
| Growth Profile | Venture Scale |
| Founding Team | Co-Founders (2) |
| Funding | Pre-seed |
Company Overview
PUBLIC
ProxGrid presents as a very early Brisbane robotics company with a narrowly defined starting point: using aerial robots to take people out of hazardous work at height, first in industrial pressure washing and later in live power-line maintenance [proxgrid.com]. The public record is thin, but it is directionally consistent on the core company facts. The company website describes ProxGrid as building aerial robots for industrial cleaning and power-grid maintenance, while its LinkedIn profile lists Brisbane, Australia as headquarters and 2026 as the founding year [proxgrid.com] [LinkedIn].
The founding story is framed less around software abstraction than around field operations. ProxGrid names two co-founders, Rasmus Gupta and Aidan Cairns, and ties the company thesis to prior exposure to helicopter and drone operations in power-line environments, according to the company website [proxgrid.com]. On the same source base, Gupta is presented as having previously led development of a live-line drone certified for contact at 765 kV, while Cairns is described as a commercial helicopter and drone pilot with experience on insulator-cleaning ground crews [proxgrid.com]. Those biographies help explain why the company is pursuing power infrastructure from day one, but the underlying claims remain primarily company-supplied.
The dated milestones that are publicly visible are modest but useful. By July 2026, ECD Online reported that ProxGrid was raising $300,000 in pre-seed investment through the Propel-AIR program, indicating the company had moved beyond concept framing into early fundraising and prototype development [ECD Online, July 2026]. By the company website retrieved in 2026, the near-term product was already positioned as the SPD25 cleaning drone, with the live-line insulator platform described as in development, which suggests a staged go-to-market rather than a single high-risk product bet [proxgrid.com].
One source, partially checked -- Core company identity is corroborated by the company website and LinkedIn, but founder-background and milestone detail in this section relies substantially on company-supplied information [proxgrid.com] [LinkedIn].
The Product and the Stack
MIXED
ProxGrid is starting with a practical robotics wedge rather than a broad autonomy story. The current product described publicly is the SPD25, an aerial pressure-washing robot designed for industrial work at height, with the company stating that it carries up to 13 kg, feeds a high-pressure line to a spray boom, and uses centimetre-level RTK positioning [proxgrid.com]. ProxGrid also says the system can pressure-wash structures up to 50 metres high while keeping crews on the ground, with examples on its site including tanks, cooling towers, stacks, and facades [proxgrid.com].
The more differentiated technical claim sits in power infrastructure, where ProxGrid says it is developing an electrically insulated drone for inspecting, cleaning, and coating live power-line insulators [proxgrid.com]. That same direction appears in third-party program and profile material, which describes a high-voltage-immune drone intended to inspect, clean, and coat energised insulators in a single pass [AI Adopt Centre, September 2026] [LinkedIn, retrieved 2026]. ECD Online reported in July 2026 that the company was raising pre-seed capital to build two demonstrator spray drones, which suggests the live-line system remained at demonstration stage rather than broad commercial deployment at that point [ECD Online, July 2026].
The technical edge, if it holds up in field conditions, is less about generic drone flight than about operating safely around hazardous infrastructure and replacing expensive legacy methods. A LinkedIn profile for Marco Moletta states that the system is intended to replace helicopter-based maintenance that can cost $15,000 per hour, but that figure should be read as a reported problem framing rather than verified unit economics for ProxGrid itself [LinkedIn, retrieved 2026]. Founder background offers some support for the domain fit, with ProxGrid stating that Rasmus Gupta previously led development of a live-line drone certified for contact at 765 kV and now in commercial operation with Hydro-Québec, though that claim is company-supplied and does not by itself establish a ProxGrid deployment [proxgrid.com] [hydroquebec.com, retrieved 2026].
One source, partially checked -- This section relies on company website product claims, with partial corroboration from ECD Online, AI Adopt Centre, LinkedIn profiles, and Hydro-Québec pages.
The Market They Are Entering
PUBLIC
The market matters now because ProxGrid sits at the intersection of two persistent industrial problems, hazardous work at height and maintenance of energized grid infrastructure, and both are being pulled forward by safety, labor, and asset-reliability pressures rather than discretionary IT budgets [ECD Online, July 2026] [ARM Hub, October 2026] [ProxGrid].
The available public record does not support a clean TAM, SAM, and SOM build for ProxGrid itself, and there is no cited third-party market report in the source set that sizes aerial industrial cleaning or live-line insulator maintenance directly. What the sources do show is a two-step demand path. ProxGrid's current wedge is pressure washing of tanks, cooling towers, stacks, and facades up to 50 metres high with an aerial robot that keeps crews on the ground [ProxGrid]. Its longer-term target is transmission-network maintenance, specifically inspection, cleaning, and coating of live power-line insulators, a workflow the company and third-party coverage describe as currently reliant on helicopters or live-line crews [ProxGrid] [ECD Online, July 2026] [AI Adopt Centre, September 2026]. That sequencing matters because the near-term market appears to be broader and operationally simpler, while the utility use case may be narrower but more defensible if certification and field performance hold.
Demand drivers are visible even without a formal sizing report. The clearest one is worker safety. ProxGrid's materials are explicit that its cleaning robot is meant to avoid scaffolding, lifts, and rope access for work at height [ProxGrid]. ECD Online and ARM Hub frame the powerline product around reducing danger in energized-line maintenance and replacing or reducing exposure to helicopter-led operations [ECD Online, July 2026] [ARM Hub, October 2026]. A second driver is operating cost in the utility segment. A LinkedIn profile cited in the research states that helicopter-based maintenance can cost $15,000 per hour, which, while not independently benchmarked here, helps explain why utilities would test an alternative if reliability is proven [LinkedIn, retrieved 2026]. A third driver is labor specialization. Both founders' backgrounds are tied to helicopters, drones, and live-line cleaning operations, which suggests the product is being shaped around workflows where skilled labor is scarce and expensive rather than around consumer drone economics [ProxGrid] [F6S, September 2026].
The adjacent and substitute markets are easier to identify than the core market size. On one side is conventional industrial cleaning, where scaffolding, elevated work platforms, and rope-access crews remain the incumbent method for facades, tanks, stacks, and cooling infrastructure [ProxGrid]. On the other is utility maintenance, where helicopters and live-line service teams are the obvious substitutes for insulator inspection and washing on energized assets [ECD Online, July 2026] [LinkedIn, retrieved 2026]. These adjacencies matter because ProxGrid may not need to create a new budget line. If the product is adopted, spending can plausibly come from existing maintenance and safety budgets rather than from a new innovation allocation. The limitation is that each adjacent market has different buying criteria: industrial cleaning is likely to emphasize speed, safety, and contract economics, while utilities will care more about certification, reliability near high voltage, and procedural compliance.
Regulatory and macro forces also point in the same direction, although the evidence in this record is still early. The power-grid use case is fundamentally a resilience and worker-exposure story. Public descriptions of polluted or degraded insulators frame maintenance as necessary to reduce outage risk, especially on live networks where deferred work can carry system consequences [Innovate Moreton Bay, May 2026]. The company is also being supported through robotics and energy-focused programs, including Propel-AIR, EnergyLab, and the WA Nature Tech Accelerator, which is a modest signal that local institutions see grid and industrial automation as priority areas [ECD Online, July 2026] [ARM Hub, October 2026] [AI Adopt Centre, September 2026]. Against that, regulation is also likely to be the main gating factor. Any move from industrial cleaning into energized-line operations will depend less on broad robotics adoption and more on proving safe operation, certification, and utility acceptance in the field [ECD Online, July 2026] [ARM Hub, October 2026].
| Segment | What the sources support | Evidence |
|---|---|---|
| Industrial work-at-height cleaning | Near-term entry point for pressure washing tanks, cooling towers, stacks, and facades up to 50 metres | [ProxGrid] |
| Live power-line insulator maintenance | Longer-term target for inspection, cleaning, and coating on energized lines | [ProxGrid] [ECD Online, July 2026] [AI Adopt Centre, September 2026] |
| Incumbent substitute: helicopter maintenance | Existing utility maintenance method with reported high hourly cost | [LinkedIn, retrieved 2026] |
| Incumbent substitute: manual access methods | Existing cleaning approach using scaffolding, lifts, or rope access | [ProxGrid] |
The table underscores the main market point: this is less a single pre-defined software category than a migration of maintenance spend from hazardous access methods toward robotic service delivery. The public evidence supports the direction of travel, but not a quantified market ceiling.
One source, partially checked -- Section relies on company materials and a small set of Australian industry and accelerator publications, with limited independent third-party market sizing.
The Competitive Field
Positioning
MIXED ProxGrid appears to be positioning itself between two established service models, manual work-at-height cleaning and helicopter-supported live-line maintenance, with a robotics-first approach that starts in industrial pressure washing and extends toward energized grid infrastructure [proxgrid.com][ECD Online, July 2026][AI Adopt Centre, September 2026].
The competitive map is clearer by substitute than by named startup rival, because the available public record does not surface direct competitors by company name. In industrial cleaning, the immediate alternatives are scaffolding, lifts, rope-access crews, and conventional pressure-washing contractors, which ProxGrid is explicitly trying to displace for tanks, cooling towers, stacks, and façades up to 50 metres high [proxgrid.com]. In transmission maintenance, the substitute set shifts to helicopter-based inspection and cleaning, plus live-line field crews, with one public reference framing helicopter work at roughly $15,000 per hour in the context of the founder's prior domain experience rather than a ProxGrid deployment benchmark [Marco Moletta - KTH Royal Institute of Technology | LinkedIn].
That matters because ProxGrid is not competing first on software alone or on a narrow drone-inspection feature. The company is pursuing a workflow replacement in which the robot carries the cleaning payload, feeds a high-pressure line to a spray boom, and uses centimetre-level RTK positioning, which suggests the product is being sold against labor intensity, safety exposure, and access complexity rather than against another pure-play data platform [proxgrid.com]. The sequencing also looks deliberate: pressure washing is presented as the current offering, while live power-line insulator work remains in development, which lowers the initial technical and regulatory burden even as it leaves the higher-value grid segment open to better-capitalized incumbents if certification timelines slip [proxgrid.com][ECD Online, July 2026].
The clearest edge visible today is team-specific domain knowledge, but it is still more perishable than durable on the public evidence. Rasmus Gupta is described by the company as having led development of a live-line drone certified for contact at 765 kV and now in commercial operation with Hydro-Québec, and public profiles also describe him as an aerospace engineer and commercial helicopter pilot with a decade of industrial drone experience [proxgrid.com][F6S, September 2026][Hydro-Québec]. Aidan Cairns is described as a commercial helicopter and drone pilot with ground-crew experience on insulator-cleaning operations [proxgrid.com]. That combination gives ProxGrid some credibility in a category where safety, flight behavior, and utility workflow matter. Still, there is no public evidence yet of proprietary field data, utility contracts, or completed institutional financing, so the present edge rests heavily on founder know-how and early program access through Propel-AIR, ARM Hub, WA Nature Tech Accelerator, and Energy Lab rather than on assets that would be hard for a funded rival or incumbent contractor to replicate [ECD Online, July 2026][ARM Hub, October 2026].
The main exposure is that ProxGrid does not appear to own a distribution channel yet, and its higher-value product points toward a buyer group that usually moves slowly. Utilities and transmission operators tend to require proof on safety, certification, and operating reliability before changing maintenance methods, while existing helicopter and live-line service providers already sit inside those procurement relationships. ProxGrid's own reported go-to-market plan acknowledges this by starting with direct cleaning contracts and later selling certified systems and a data platform, which implies that channel control and product certification remain open questions rather than solved advantages [ECD Online, July 2026]. The company is also exposed if the lower-end industrial cleaning segment proves easier for generalist drone-service operators to enter, because the current public differentiation there is operational packaging, payload handling, and positioning accuracy, not yet a visible network effect or regulatory moat [proxgrid.com][LinkedIn, retrieved 2026].
The most plausible 18-month scenario is a split outcome across the two target segments. Winner if certification and field validation progress on schedule: ProxGrid, because a working live-line cleaning and coating system would move it from an industrial services wedge into a narrower, higher-consequence maintenance category where founder experience is more meaningful and substitute methods are expensive [AI Adopt Centre, September 2026][ECD Online, July 2026]. Loser if utilities keep procurement conservative and prototype-to-production takes longer than expected: ProxGrid again, because the company has not yet shown a public financing base or customer footprint that would cushion a long validation cycle, while incumbent helicopter and manual-service workflows remain available in the meantime [ECD Online, July 2026][ARM Hub, October 2026].
com][AI Adopt Centre, September 2026].
Opportunity
PUBLIC
If ProxGrid executes, the prize is not a niche drone contractor but a defensible position in the expensive, safety-critical workflow of maintaining industrial assets and energized grid infrastructure at height [proxgrid.com] [ECD Online, July 2026] [AI Adopt Centre, September 2026].
The headline opportunity is straightforward: become the operating layer for aerial maintenance where conventional access methods are dangerous, slow, or unusually expensive. The public evidence is thin but directionally coherent. ProxGrid already markets a pressure-washing drone for structures up to 50 metres high, with a stated payload of 13 kg, a high-pressure line feeding a spray boom, and centimetre-level RTK positioning [proxgrid.com]. In parallel, the company is developing an electrically insulated or high-voltage-immune drone for inspecting, cleaning, and coating live power-line insulators on energized lines, a workflow that outside reporting still describes as helicopter- or crew-intensive [proxgrid.com] [Marco Moletta - KTH Royal Institute of Technology | LinkedIn] [ECD Online, July 2026]. That sequencing matters. Starting with industrial cleaning gives ProxGrid a nearer-term operational wedge, while the live-line product points at a higher-value infrastructure market if certification and field performance follow [proxgrid.com] [ECD Online, July 2026].
The paths to scale are still conditional, but they are legible from the current product plan and partner footprint.
| Scenario | What happens | Catalyst | Why it's plausible |
|---|---|---|---|
| Industrial access wedge | ProxGrid becomes a specialist operator for pressure washing tanks, cooling towers, stacks, and facades, then converts those field deployments into repeat contracts and eventual equipment sales | Successful deployment of the SPD25 on work-at-height cleaning jobs and expansion of the engineering team tied to the 2026 pre-seed raise [proxgrid.com] [ECD Online, July 2026] | The current product is already framed around a specific job, pressure washing at height without scaffolding or lifts, which is a clearer first beachhead than a broad robotics platform claim [proxgrid.com] |
| Utility maintenance platform | The company proves its insulated drone on live insulator inspection, cleaning, and coating, then sells directly to utilities or transmission service providers as a safer alternative to legacy methods | Prototype validation at ARM Hub and a named utility or transmission-network pilot [ARM Hub, October 2026] [ECD Online, July 2026] | Third-party coverage says ProxGrid is building its first autonomous live-power-line drones from ARM Hub and co-applying for innovation funding with the University of Queensland and a transmission network service provider [ARM Hub, October 2026] [ECD Online, July 2026] |
| System-of-record for aerial maintenance | ProxGrid starts as a services operator, then layers software, certification workflows, and maintenance data into a broader platform used across fleets and geographies | Shift from direct cleaning contracts to certified system sales plus a data platform, as described in its public go-to-market plan [ECD Online, July 2026] | ECD Online reported that the company plans to operate the system directly under cleaning contracts first, then sell certified systems globally and add a data platform, which is a recognizable route from service delivery to higher-margin productization [ECD Online, July 2026] |
What compounding looks like here is less a consumer-style network effect and more an operational learning loop. Each successful job should improve three assets at once: flight control in messy real-world environments, job-specific procedures for regulated or hazardous settings, and proof that customers can replace lifts, rope access, or helicopter-supported workflows with an aerial system [proxgrid.com] [ECD Online, July 2026]. If ProxGrid can run the early jobs itself, as reported, it gets the first pass at the data, the safety case, and the customer relationship before shifting to certified system sales and software [ECD Online, July 2026]. The founder-market fit also supports that loop, at least on paper. Rasmus Gupta is described by the company as having led development of a live-line drone certified for contact at 765 kV and now in commercial operation with Hydro-Québec, while Aidan Cairns is described as a helicopter and drone pilot with insulator-cleaning ground experience [proxgrid.com] [hydroquebec.com] [F6S, September 2026]. That does not prove commercial repeatability at ProxGrid, but it does make the proposed transition from prototype to field workflow more reachable than it would be for a generalist drone team.
The size of the win is difficult to quantify from public evidence because no credible market-sizing source or direct public comparable appears in the available materials. Even so, the economics implied by the use case are substantial enough to frame the upside. One LinkedIn-cited industry description says the target drone could replace helicopter-based maintenance priced at $15,000 per hour [Marco Moletta - KTH Royal Institute of Technology | LinkedIn]. If ProxGrid can move from a single-purpose cleaning robot to a utility-grade maintenance platform, the company could plausibly grow into a strategic infrastructure robotics business with value anchored in avoided labor, lower outage risk, and software attached to certified field systems (scenario, not a forecast) [ECD Online, July 2026] [AI Adopt Centre, September 2026]. The public record does not support a precise valuation range yet, but the upside case rests on owning a narrow, expensive workflow where customers care more about safety, uptime, and certification than about drone hardware alone.
Thinly sourced -- Core upside logic is grounded in company materials and limited third-party coverage from ECD Online, ARM Hub, AI Adopt Centre, F6S, LinkedIn, and Hydro-Québec, but several material product and founder-background claims remain company-sourced or only partially corroborated.
Sources
Publicly reported
[LinkedIn] ProxGrid LinkedIn Profile | https://www.linkedin.com/company/proxgrid
[ECD Online, July 2026] Brisbane company designs drone for powerline insulator cleaning | https://www.ecdonline.com.au/content/electrical-distribution/news/brisbane-company-designs-drone-for-powerline-insulator-cleaning-1254753126
[proxgrid.com, retrieved] Aerial Robots for Work at Height & Pressure Washing | ProxGrid | https://www.proxgrid.com/
[ProxGrid] Aerial Robots for Work at Height & Pressure Washing | ProxGrid | https://www.proxgrid.com/
[AI Adopt Centre, September 2026] Propel-AIR kicks off in style | https://aiadopt.ai/news/propel-air-kicks-off-in-style
[Marco Moletta - KTH Royal Institute of Technology | LinkedIn] Marco Moletta - KTH Royal Institute of Technology | LinkedIn | https://www.linkedin.com/in/marcomoletta17111996/
[F6S, September 2026] Rasmus Gupta | PROXGRID | F6S Member Profile | https://www.f6s.com/member/rasmus-gupta
[Hydro-Québec] Hydro-Québec | Home | https://www.hydroquebec.com/robotics/transmission-solutions-uav.html
[ARM Hub, October 2026] Removing Danger from Power Lines | https://www.armhub.com.au/blog-posts/removing-danger-from-power-lines
[hydroquebec.com, retrieved 2026] Hydro-Québec | Home | https://www.hydroquebec.com/robotics/transmission-solutions-uav.html
[Innovate Moreton Bay, May 2026] ProxGrid Automates Powerline Maintenance | https://www.linkedin.com/posts/innovate-moreton-bay_buildwhatsnext-teammoretonbay-activity-7457233030496149504-p4qH
[LinkedIn, retrieved 2026] Marco Moletta - KTH Royal Institute of Technology | LinkedIn | https://www.linkedin.com/in/marcomoletta17111996/
Articles about ProxGrid
- ProxGrid's Aerial Robots Aim to Replace $15,000-an-Hour Power-Line Helicopters — The Brisbane startup, founded by engineers with a certified live-line drone, is raising pre-seed capital to build two demonstrators.