I spent nearly a decade managing my family’s food business – immersed in ingredients, supply chains, and the daily act of feeding people. But over time, one unsettling question kept surfacing:
What happens if one day there’s simply not enough food to serve?
That question led me back to my roots – to the Kibbutz where I grew up, where I worked the land and developed a deep appreciation for natural systems. I knew that to truly make a difference, I had to move upstream – to where food begins.
I pursued a degree in Sustainability & Government and joined the Zell Entrepreneurship Program at Reichman University. And it was there, surrounded by other problem-solvers, that I began to understand the scope of one of agriculture’s most overlooked bottlenecks: pollination.
The Unspoken Crisis in Agriculture
I started researching about the importance of pollination and quickly understood – it isn’t just a background process – it’s a critical event in food production. And yet, our global pollination system is under growing stress, due to several main problems:
- Wild pollinators are disappearing – with nearly 25% of species already in decline.
- Honey bee populations aren’t keeping pace with the rising demand for pollinated crops.
- Biological limitations are becoming clearer: honey bees can’t do it all:
Honey bees are generalists. They avoid certain flower types. Their foraging windows don’t always align with crop flowering. And they don’t work well in cloudy, cold, or windy conditions – all of which are becoming more common due to climate shifts.
In avocados, for example, we’ve clearly seen the mismatch: peak bloom often occurs before honey bees are active. That means lower yield, missed opportunity – and no real fallback.
The question became urgent: How do we ensure food security when pollination itself is insecure?
The Eureka Moment
That question took me to the field – literally. I began working with commercial growers, standing alongside them during bloom, and watching as they placed hive after hive in their orchards… and hoped for the best.
It felt like every other input in agriculture had become data-driven and precise – except for pollination. And that’s when the spark hit: What if we could bring control, consistency, and certainty to this process?
Not by replacing bees – but by building technology that supports nature.
Establishing BloomX
We started with the principles of biomimicry: understanding how nature pollinates and replicating it with technology.
- Robee uses buzz-pollination techniques to mimic bumblebees in blueberries, tomatoes, and more.
- YAHAV 2400 leverages electrostatic attraction to replicate the sticky transfer of pollen in orchard crops like avocado and almonds.
- And behind it all is an AI-driven agronomic engine that predicts the optimal pollination window for each crop, cultivar, and climate – giving growers what they’ve never had before: managed and controlled pollination.
It’s robotic pollination, working harmoniously with nature, based on deep field data and scientific insight.
Not Replacing Nature. Enhancing It.
Our aim was always to sustainably improve yield while supporting honey bees and easing the pressures they face.
Our systems are designed to:
- Fill in gaps when bees are inactive.
- Serve crops and regions where wild pollinators are absent or scarce.
- Work early mornings, on cloudy days, or with flower types honey bees avoid.
- Deliver consistent, targeted results – regardless of climate or colony strength.
And we’re already seeing the impact: higher yields, better fruit uniformity, and stronger resilience for growers in Israel, Peru, Mexico, and South Africa.
What’s Next
We’re preparing to launch YAHAV 2400 – our first autonomous robotic platform in the season of 2026 – combining flower detection, pollen extraction, and re-application in a single pass. One platform will be able to pollinate up to 100 hectares / ~250 acres in one season!
We believe pollination is one of the most powerful, underleveraged levers in agriculture.
And it’s time we gave it the attention – and technology – it deserves.