Availability is the requirement and cost to serve is the constraint. One service visit per year keeps unattended emergency services, broadband, water and trackside sites running with up to 90% service cost saving and 30 to 50 percent fuel cost saving, while a unit that exceeds EU Stage V emissions limits keeps the site compliant as clean-air rules tighten.
Critical sites are judged on uptime, but uptime is bought with attendance. A diesel unit needs a visit once a month or 300 run hours, and at an unattended rural mast, pumping station or trackside cabinet, that attendance is the dominant cost of the asset over its life. Each visit is also a window in which the site is being worked on rather than simply working.
Compliance is the second constraint, and it is moving. A unit that is already inside clean-air and noise limits, and that can switch fuel without new hardware, does not have to be replaced when the rules change.
Critical infrastructure sites - emergency services masts, rural broadband nodes, water and wastewater pumping, trackside signalling power - sit at awkward intersections of regulation, geography, and reliability. Diesel is the default but increasingly fails on emissions compliance, noise, and total cost of ownership at unattended sites.
Operators need firm power that meets clean-air and noise rules, runs unattended for long periods, and can switch fuels as the rules change.
Put your own site figures into the TCO calculator, or read the microturbine vs diesel comparison for the cost lines behind the standby decision.
Case study
Firm power at rural sites where an outage is a safety issue.
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A telecom site delivered inside a UK Clean Air Zone.
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Continuous power on a remote island off the UK coast.
Read case studyYes - Bladon microturbines are already deployed at ESN sites via Mitie Telecom, providing firm power at locations where grid power is absent or unreliable.
The microturbine exceeds EU Stage V emissions limits and on noise the MTG12 runs at 60 dB LPA at 10 m, or 50 dB LPA at 10 m with the optional Silent Pack, and the MTP40 has a design target of 60 dB(A) at 7 m and 85 dB(A) at 1 m, not yet verified by test, making it compatible with Clean Air Zones and noise-restricted urban and residential sites. A real deployment inside a UK Clean Air Zone is documented in the Mitie case study.
Yes - the microturbine suits unattended pumping station and treatment-works backup or prime-power applications. One service visit per year plus remote monitoring keep cost-to-serve low.
The microturbine suits trackside signalling and comms power where mains is absent. Consult sales for the specific rail certification requirements applicable to your programme.
Batteries cover short-duration outages well. For long-duration outages, prime-power duty, or sites with no grid at all, you need a fuel-burning unit. The microturbine is the firm-power layer that complements solar PV and battery in hybrid resilience designs.
Switching from diesel to HVO (hydrotreated vegetable oil) can cut lifecycle (well-to-wheel) CO2 by up to around 90%, with no hardware change to the microturbine. The reduction is largely upstream in the fuel's production; direct on-site combustion emissions are similar per litre. Many operators use fuel-switching as the fastest route to near-term carbon targets.
Yes - the microturbine is designed to integrate with solar, battery, and other distributed generation in a microgrid, acting as the firm-power source.
The same platform, applied to different site conditions.
Read this one if you run off-grid or bad-grid tower sites and your cost problem is diesel OPEX, fuel theft and service visit frequency.
Read moreRead this one if acoustic and thermal signature, multi-fuel operation on JP-8 and deployability matter more than capital cost.
Read moreRead this one if you power wellheads, pipeline monitoring or unmanned facilities in hot, dusty conditions with long service intervals.
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