They come back the moment you leave
A farmer can spend the whole day chasing birds from a rice or maize field — shouting, waving, throwing stones — and the flock returns as soon as he walks away.
Alveran Technologies is developing intelligent, non-chemical pest management systems designed to help farmers detect threats earlier, understand what is happening in their fields, and respond with targeted interventions.
By combining AI-powered vision, smart sensing, connected farm nodes and intelligent control, we are building a new layer of continuous protection for agricultural environments.
First nodes go to pilot farms in 2027. Waitlist places are free.
A farm begins with hope: land prepared, seed planted, months of labour and money invested. But while the farmer waits for harvest, the crop may already be fighting something nobody can see.
A farmer can spend the whole day chasing birds from a rice or maize field — shouting, waving, throwing stones — and the flock returns as soon as he walks away.
Rodents move in at night, feeding on cobs and stored grain and nesting at the edges of the field. By morning the damage is done and the farmer sees only what is left.
Fall armyworm and other crop-feeding insects spread beneath the canopy. By the time the holes in the leaves are obvious, weeks of growth and months of work are already at risk.
The threat does not wait to be noticed. It grows, it spreads, it destroys — and the farmer usually realises there is a problem only when the evidence becomes visible. By then a small, unseen problem has become a damaged crop, a smaller harvest, and months of hard work at risk.
And when night falls, the farmer goes home. The threats don't. When pests do strike, chemicals are usually the first line of defence — and that protection carries its own cost, in farmer exposure and in the health of the ecosystems the farm depends on. The farm needs protection that doesn't clock out when the farmer does.
The loss figures above are widely cited continent-level estimates for pest-driven yield loss in Africa. They are indicative of the scale of the problem rather than measured on any single farm.
Alveran's goal is not to build another agricultural device. We are developing a smarter approach to crop protection, designed around the realities of farmers and the need for practical technologies that survive real field conditions.
Continuous sensing means pest pressure registers while it is still small, instead of surfacing as visible crop damage weeks later.
Knowing that something moved is not enough. Combining vision, sound and heat lets the system say what kind of threat it is looking at.
Acoustic, visual, mechanical and biological monitoring responses, matched to the threat — so spraying becomes a considered choice, not a reflex.
Every node runs the same four-stage cycle, continuously. Watch one protection zone: the vision cone sweeps the crop, a bird enters, the node classifies it and acts — then keeps watching to see whether it worked.
Vision, sound and infrared motion sensing run continuously, so activity registers whether or not anything is visible to a camera at that moment.
Signals are combined at the node to work out what is actually in the zone — a bird, a rodent, an insect — and how much pressure the crop is under.
The node deploys the response matched to that threat: acoustic, visual, mechanical, or pest-specific trapping. No chemicals involved.
Sensing continues after the response, so the farmer can see whether it worked and whether pressure is building or easing.
No single sensor is enough on a working farm. Each layer covers what the others miss, and together they build a far richer picture of activity inside the protection zone.
A camera observes the crop continuously and computer vision identifies the visual signatures of potential threats. This is the evidence layer — it shows what is happening.
Many insects communicate through high-frequency sound, and some rodents produce ultrasonic calls. Listening catches what the camera cannot, especially at night.
Living organisms emit infrared, so when one crosses the sensor's field of view the signal changes. Low-power, always on, and the first thing to notice presence.
Species-specific pheromone trapping gives a direct reading of which pests are present and in what numbers, independent of the other sensors.
Detection only matters if something happens next. The decision layer selects the response appropriate to the threat it has characterised, within validated operating parameters.
Transducers emit ultrasonic frequencies beyond human hearing, or selected audible signals, depending on the target animal and the parameters validated for it.
For bird threats, the node generates controlled visual stimuli intended to discourage birds from settling in the protected zone.
A motor-driven actuator produces intermittent movement and impact-based sound — the effect of a person in the field, without a person in the field.
Pheromone traps capture a target species, starting with fall armyworm, and trap activity doubles as a live indicator of pest pressure.
Nodes don't work in isolation. They link to each other and to the farm network, sharing detections so a threat seen at one edge of the field informs the whole system — and the farmer sees one connected picture instead of scattered readings.
Vision, acoustics, motion and pest traps watching the crop continuously.
Each node reports what it sees to the network, over the air.
Detections are shared, so coverage adds up instead of sitting in silos.
Responses fire where they're needed, across the whole protected area.
Sensing is only half the job. The other half is putting what the farm knows in front of the person who has to act on it — on a laptop at the office or a phone at the edge of the field.
Every node on a map of your fields, with its status at a glance: what is online, what is powered, what has seen activity today.
Notification when a threat is detected and characterised, so you decide what to do from information rather than from a walk around the field.
Detections recorded over the season, so pressure can be compared week to week and field to field instead of remembered.
Crop, soil and environmental readings alongside pest activity, building a record of the farm that gets more useful every season.
The dashboard and mobile interfaces shown in the network image are design concepts for the 2026 build phase.
Every node is a complete unit: it senses, decides and acts on its own, and gets more useful when connected to others. Modularity is deliberate — a farm should deploy the level of technology its fields actually need and add capability later.
Camera, acoustic transducers and passive infrared in one weather-exposed assembly, covering a defined protection zone.
Threat characterisation runs on the node itself, so it keeps making decisions when connectivity drops — which, on most farms, it does.
Acoustic, visual and mechanical deterrence plus pheromone trapping, activated selectively rather than run continuously.
Panel and battery sized for continuous day-and-night operation without grid electricity, which is what makes remote fields addressable.
Nodes link to cover larger areas, sharing detections so the farm is treated as one protected system rather than isolated points.
Alerts, pest history and field conditions presented plainly, so the value reaches the farmer and not just the database.
| SUBSYSTEM | TARGET SPECIFICATION |
|---|---|
| Power | Solar generation with battery storage; designed for off-grid, continuous operation |
| Sensing | Vision (camera), acoustic sensing including ultrasonic range, passive infrared motion |
| Processing | On-device inference for pest classification and threat characterisation |
| Networking | Node-to-node linking for multi-node farm coverage |
| Response | Acoustic, visual and mechanical deterrence; species-specific pheromone trapping |
| Initial pest targets | Fall armyworm; bird and rodent threats in maize, rice and vegetable systems |
| Deployment | Pole-mounted, modular and field-serviceable; capability added incrementally per farm |
| Environmental data | Crop, soil and ambient conditions collected alongside pest activity |
These are target specifications for the 2026 build phase, not measured results from a shipping product. EcoPulse Guard is in active development, and we publish what we have validated rather than what we hope to achieve.
Pest protection is where we start, because it is the problem farmers feel most sharply. But a node already sensing the field can tell a farmer far more than whether a bird landed in it — and that data compounds season after season.
Compatible equipment connects to the network, so routine operations run against real field conditions instead of a fixed schedule — the difference between irrigating on Tuesday and irrigating when the soil is dry.
We start with the customer closest to the problem: smallholder farmers growing maize, rice and vegetables. They give us the conditions to prove the technology honestly. A solar-powered, modular, networkable architecture is what lets it scale beyond them.
Protection that works off-grid, at a level of technology matched to the size of the farm and its financing capacity.
One deployment that can serve a network of farmers, spreading both the cost and the learning across members.
Larger multi-node deployments with farm-wide intelligence, automation and traceable pest records.
Measurable, non-chemical crop protection for agricultural programmes and research partners across West Africa.
Field crops where pest pressure is high and losses show up immediately in a household's income.
Each of these exercises a different layer of the system, which is exactly why they come first.
Tell us about your fields and we'll come back to you with what EcoPulse Guard can cover, how many nodes it would take, and where you sit in the queue. No payment is taken at this stage.
We are recruiting farms and cooperatives for the 2027 pilot phase. Hosting a node asks for access to your field and honest feedback about what does and doesn't work.
We visit, map the crop, the layout and the pest pressure you're actually dealing with, and agree what a useful result would look like on your farm.
We install and configure nodes across the protection zone, set up the network, and show you how to read what the system is telling you.
We monitor performance through the season, gather your feedback, and share what the data says about pest pressure on your fields.
The impact we want goes beyond driving pests away from a field. These are the outcomes we measure ourselves against.
Earlier visibility of threats means intervention while it still matters, rather than after the harvest has been reduced.
When chemical treatment stops being automatic, farmers and ecosystems both carry less exposure.
No farmer should spend an entire day walking a field or chasing birds just to keep a crop alive.
Solar power brings continuous monitoring to farms where reliable electricity was never going to arrive.
Better information, faster decisions, better protection, and better outcomes for the farmer.
Alveran Technologies began with a simple observation: farmers are expected to protect their crops from threats they cannot always see, hear, or predict.
A pest can enter a field unnoticed. Birds can return moments after being chased away. Rodents can become active at night. By the time damage becomes obvious, the farmer may already be dealing with a problem that has grown.
That question brought together two young engineers from the University of Ghana, Ashiomey Korkoe Sittie and Matthea Aba Andoh, with different engineering backgrounds but a shared interest in using technology to solve real-world problems.
Ashiomey's interest in intelligent systems, software, electronics and connected technologies brought the systems and technology side of the idea to life. Matthea's background in biomedical engineering, sensing, instrumentation and technical problem-solving brought another perspective: how can machines sense what is happening in the real world and respond intelligently?
Together, they began exploring how artificial intelligence, sensors, embedded systems, connectivity and intelligent control could be brought into the agricultural environment.
What started as an idea for addressing individual pest threats gradually became something bigger.
That vision became EcoPulse Guard. Today, Alveran Technologies is focused on developing intelligent, non-chemical pest management technologies designed around the realities of farmers and agricultural environments.
We aren't trying to remove farmers' tools. We're trying to give them better ones.
Alveran is built by two engineering students at the University of Ghana, combining computer engineering and biomedical engineering to build the intelligence, sensing, hardware and response systems behind EcoPulse Guard.
Works across software, embedded systems, electronics, IoT and systems engineering, and drives the intelligent, connected architecture behind the platform.
WAEC Overall Best Science Student in Ghana and West Africa, 2025 WASSCE. Brings sensing, instrumentation, prototyping and technical problem-solving to the development of EcoPulse Guard.
We are two young Ghanaian women building technology for a problem that directly affects the people who feed our communities.
If something you need to know isn't here, ask us directly — we would rather answer than have you guess.
We're looking for pilot farms and cooperatives willing to host nodes, partners in agricultural research and development, and investors who back hardware early.