Solar Borehole Systems
Off-grid water pumping designed around your borehole and demand.
ATG supports domestic tanks, livestock watering, irrigation, gardens, schools, lodges, clinics, and remote sites with solar borehole systems that match pump depth, flow rate, storage, and daily water use.
Request Borehole QuoteBorehole Solar Design
Solar pumping sized around depth, flow, storage, and daily water demand.
A borehole solar system must match the borehole depth, pump head, water yield, pipe distance, tank height, required flow rate, and the hours you need water. Undersized systems struggle to pump reliably, while oversized systems waste budget.
ATG helps clients plan solar-powered borehole pumping for domestic tanks, farms, livestock watering, gardens, schools, lodges, clinics, churches, institutions, and off-grid sites that need dependable water movement without constant generator fuel costs.
Request a borehole solar quote
Share your borehole depth, pump details, tank height, water use, and site location so ATG can recommend a practical pumping setup.
Request AssessmentHow ATG Helps
From pump sizing to commissioned water delivery.
Site Assessment
We review borehole depth, pump needs, storage tanks, distance, pressure, and daily demand.
Solar Pump Design
We size panels, pump controls, protection, and optional batteries or booster systems.
Installation & Testing
We install, test flow, configure controls, and hand over a practical operating setup.
Best Fit
Who solar borehole systems are for.
ATG designs borehole solar systems around the site and water demand, not generic package labels.
What ATG Reviews
The details that shape a reliable borehole solar system.
Water Demand
Solar borehole design starts with how much water you need each day.
A solar borehole system is not sized by the pump alone. It is sized by the amount of water the property needs, when that water is needed, where it must be delivered, and how much storage is available. A family home may only need reliable tank filling for bathrooms, kitchen use, laundry and garden watering. A farm may need water for livestock, crop support, workers’ housing and several storage points. A school, clinic, lodge or church may need steady supply for many users every day.
ATG treats daily demand as the starting point because it affects every other decision. If the system is too small, the pump may run for long hours without filling the tank. If the system is too large, the client may spend more than necessary on panels, controls and pump capacity. The right balance comes from understanding litres per day, peak usage times, available sunlight, tank size and the pressure required at the point of use.
Storage strategy is also important. Many solar borehole systems pump strongest during sunny hours, so water tanks become part of the energy plan. Instead of storing electricity in large batteries, some sites can store water in tanks and use gravity or booster support when needed. This is often more practical for domestic supply, livestock watering and irrigation support because stored water can continue serving the property after the sun goes down.
Pump Head and Flow
The pump must match the borehole depth, vertical lift and delivery distance.
Borehole Depth
The depth of the borehole and the static water level affect how hard the pump must work before water even reaches the surface. A deeper borehole usually needs a pump with stronger lifting capability and a solar array that can support that demand reliably.
Flow Rate
Flow rate determines how quickly tanks can fill and whether the system can keep up with daily use. ATG considers whether the site needs slow steady filling, faster tank recovery, livestock supply, irrigation support or multiple draw-off points.
Delivery Route
Water may need to travel from the borehole to a tank, garden, field, trough, building or elevated storage point. Pipe distance, bends, elevation and pressure losses all influence pump choice and final system performance.
System Layout
Panels, controls and tanks must work as one water supply system.
The solar panels provide daytime energy, but the controls decide how safely and efficiently that energy reaches the pump. A solar borehole controller can help manage pump operation, protect the motor and improve performance under changing sunlight. Protection against dry running, voltage problems and unsafe current flow is important because borehole pumps are expensive to retrieve and replace once installed underground.
ATG also looks at where the panels will be mounted. Borehole solar arrays may be installed near the water point, close to storage tanks, on a nearby roof or on a ground-mounted structure. The location must balance sunlight exposure, cable distance, security, maintenance access and the practical layout of the property.
Use Cases
Different sites need different borehole pumping priorities.
Domestic tank filling
For bathrooms, kitchens, laundry, gardens and household storage where reliable water matters every day.
Livestock and crop support
For troughs, storage tanks, small irrigation zones, worker housing and productive land that needs water movement during the day.
Water for many users
For schools, clinics, churches, lodges and community facilities where daily supply must be planned around repeated use.
Less generator dependence
For properties where grid electricity is unavailable, unstable or too expensive for regular borehole pumping.
Quote Preparation
Details that help ATG recommend the right borehole solar setup.
A clearer quote starts with accurate site information. Even partial information is useful, and ATG can guide clients through what still needs to be checked.
Common Mistakes
What causes weak borehole solar performance?
Weak performance often comes from ignoring total pumping head, using panels that cannot support the pump properly, installing controls that are not suited to the motor, or expecting the system to pump more water than the borehole can yield. Long pipe runs and high tanks can also reduce flow if they are not included in the sizing calculation.
Another common mistake is treating a borehole solar system like a simple plug-in product. Because the pump is underground and the water path may run across a property, the system must be planned before equipment is bought. Correct design reduces downtime and helps avoid paying twice for replacements or modifications.
Practical Operation
How customers get the best from solar pumping.
Solar pumping works best when water use is planned around sunlight and storage. Many sites pump to tanks during the day and draw from storage later. This approach can reduce the need for large battery banks and keeps the system focused on moving water efficiently while the sun is available.
Customers should also monitor water levels, listen for unusual pump behaviour, keep panel surfaces reasonably clean, protect cables and equipment from damage, and ask for help when flow changes noticeably. Small checks can prevent bigger water supply problems later.
FAQs
Borehole solar power questions.
Can a borehole run directly from solar panels?
Yes. Many borehole solar systems pump during sunny hours using correctly sized panels, pump controls, protection, and a pump matched to borehole depth and water demand.
What information is needed for a borehole solar quote?
Useful details include borehole depth, pump size or flow target, tank height, pipe distance, daily water use, and whether the site needs booster or battery support.
Is borehole solar suitable for farms and institutions?
Yes. ATG designs borehole solar pumping for homes, farms, gardens, schools, lodges, clinics, churches, and remote sites.
Ready to move water with solar?
Send ATG your borehole details, tank setup, and daily water demand.