Remote Applications
Remote Applications | Generators | Electrical | Guild
When operations push beyond the reach of the grid, HEP keeps the current flowing. Our remote applications electrical solutions pair advanced control tech with fuel-efficient generators that shrug off sand, salt, and sub-zero starts. Compact footprints and whisper-quiet enclosures make it easy to slot reliable power beside drilling rigs, mountaintop repeaters, or temporary research camps—no infrastructure overhaul required.
Built for rapid deployment, every unit features plug-and-play connectors, adaptive load management, and corrosion-proof frames that laugh at long transport hauls. From single-phase lighting circuits to three-phase pump arrays, you can scale output without stacking headaches. Tap into HEP’s expert support team and broad parts inventory, and discover how effortlessly dependable electricity follows you off the beaten path.
FAQs
What types of generators are best suited for remote applications?
For remote sites, reliability, fuel efficiency, and ease of maintenance are the primary selection factors. Diesel generators remain the most common choice because diesel fuel stores well and the engines tolerate harsh conditions. However, smaller gasoline-powered sets can be adequate for light, seasonal loads. If regular fuel deliveries are difficult, consider liquid-propane or natural-gas generators paired with large onsite tanks. For ultra-remote or environmentally sensitive locations, hybrid systems that couple a diesel generator with solar PV and battery storage can drastically reduce run time, fuel consumption, and maintenance.
How do I correctly size a generator for my remote site?
Start by listing every electrical load that will run simultaneously. Note the running wattage and any motor-starting (inrush) currents. Add 20–25 % headroom to accommodate future expansion and prevent overloading at high ambient temperatures. If the load profile is highly variable—such as a telecommunications tower with periodic HVAC use—consider a generator with an automatic load-management system or a hybrid solution with batteries so the genset can operate near its optimal 70–80 % capacity range. Oversizing leads to wet-stacking, decreased efficiency, and higher maintenance, while undersizing risks voltage dips and equipment damage.
What fuel options are available for remote generators and how do they compare?
• Diesel: Highest energy density, widely available, long-term storage up to 12 months with biocide treatment. • Gasoline: Readily available but degrades within 3–6 months; best for portable, low-duty applications. • Liquid Propane (LPG): Burns clean, stores indefinitely in pressurized tanks, but has lower energy density and requires larger storage volume. • Natural Gas (CNG/LNG): Clean and low maintenance; practical only if a pipeline or regular cryogenic deliveries are feasible. • Biofuels / HVO: Renewable drop-in substitutes for diesel that cut net CO₂ up to 90 %; confirm engine compatibility. Selection depends on local logistics, storage constraints, temperature extremes, and environmental regulations.
How can I remotely monitor and control my generator’s performance?
Modern generator control panels can be equipped with GSM, LTE, or satellite telemetry modules that transmit key metrics—voltage, frequency, load, fuel level, oil pressure, coolant temperature, and fault codes—to a cloud dashboard. Through the same interface you can start/stop the genset, schedule self-tests, and adjust parameters such as exercise intervals or voltage set-points. For critical sites, integrate the generator controller into a SCADA or IoT platform to receive real-time alarms via SMS/email and to trigger backup procedures automatically. Ensure the system includes redundant power to the modem and uses secure VPN or SSL encryption to prevent unauthorized access.
What maintenance considerations apply to generators in remote locations?
Remote generators should follow the manufacturer’s standard service schedule (oil and filter change every 250–500 hours, coolant every 1,000 hours, etc.) but additional planning is essential: • Stock critical spares onsite—belts, filters, fuses, starter batteries, and a full fluid set. • Use dual fuel filters and water separators to cope with possible fuel contamination. • Install an automatic battery charger and block heater if ambient temperatures drop below 5 °C. • Run the generator under load at least once a month (or per OEM guidelines) to prevent wet-stacking and to verify automatic transfer switch operation. • Keep a digital logbook accessible to service teams so trends like increasing fuel consumption or coolant loss are spotted early.
How do I ensure compliance with local regulations and safety standards when installing a generator in a remote area?
Begin by checking national electrical codes (e.g., NEC, IEC) and any regional environmental guidelines covering emission limits, noise, and fuel storage. Obtain permits for fuel tanks, exhaust stacks, and grounding systems. Generators must be bonded to a proper earth ground and protected by correctly rated circuit breakers and RCD/GFCI devices. If the site is classified as hazardous (e.g., near flammable gas), select appropriately rated equipment (ATEX/IECEx). Provide clear signage, fire extinguishers, and secondary containment for spills. Finally, arrange periodic inspections by certified electricians and keep all compliance documents filed for audit purposes.