Plants can speak using electricity, so this startup built an AI model to decipher their language
Electric Plant has built an AI-powered translator to help humans listen to what plants are saying with the subtle electricity coursing through their stems.
Justin Mastβs life was changed by a cyborg plant.
A few years ago, Mast was reading through some scientific literature when he stumbled upon research about a houseplant wired to a motorized stand. When the plant wanted more light, electrical signals flowed through the living tissues. A control board sensed the current and wheeled the plant closer to the light source.
βIβm like, what the heck?β Mast told TechCrunch. βThat was the entry to the rabbit hole for me.β
Mast wound up partnering with Lee von Kraus, a neuroscientist who has worked with DARPA, to found Electric Plant, which has been spending the past three years collecting data to build a large language model, Bombadil, capable of interpreting the subtle electrical signals coursing through a plantβs stem and relaying details about the plantβs needs to growers.

The founders believe their model could one day lead to a tool that would let people βspeakβ to plants. βWeβre listening more than weβre speaking, but listeningβs the first step,β said Mast, co-founder and CEO of Electric Plant.
To bring its sensors and Bombadil to market, Electric Plant recently raised an $11.2 million seed round led by Onto Ventures and Climactic, with participation from Ponderosa, Endeavor Catalyst, Ludlow, Michigan Rise, The Fund, Schox VC, and Dug Song.Β
Even in the most controlled greenhouses, farmers and growers donβt have full visibility of what their plants require, Mast said. Traditionally, farmers, growers, and foresters have relied on coarse tools that react to plantsβ demands for water, nutrients, or light. And tools like soil probes, handheld spectroscopes, and satellite imagery work well enough, but they leave much to be desired, Mast said.
βThat technology is sophisticated, but its ability to get at the inside of the plant isnβt very sophisticated. Most of that stuff still lags quite a bit behind the real-time needs of the plant,β he said.
Electric Plant had to start somewhere, though, so it used those devices to train its Bombadil model, which is capable of interpreting electrical signals in about 125 different species. βWe know the model will surpass a lot of that equipment,β Mast said.Β
The startupβs sensors are also significantly cheaper than existing tools, which generally cost thousands of dollars. βThis is tens of dollars,β he said.
The sensors, about the size of a regular iPhone folded lengthwise, are attached to a plant using stainless steel screws. The screws must penetrate the cambium β the layer of living tissue just under the bark βΒ to connect to the microvolt changes occurring within the plant. Data collected from these sensors is sent to a base station via a low-power wireless network.
Electric Plant only needs a couple sensors per acre for accurate results, Mast said. The data gets interpreted by Bombadil in the cloud, and the results are sent back to the customer, who can use it to, for example, adjust their watering or fertilizer schedules. Mast claims such a system can boost yields while reducing water use by 20% or more.
Mast wouldnβt disclose who Electric Plantβs initial customers are, but itβs easy to imagine applications in agriculture and forestry.
Bombadilβs first hundred-plus species runs the gamut of plant forms, from ferns, redwoods, and tomatoes to dahlias, Mast said.
βThis is the most diverse model ever created on biological electrical signals,β he said. βNo oneβs ever done anything equivalent to this in the animal world.β
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Tim De Chant is a senior climate reporter at TechCrunch. He has written for a wide range of publications, including Wired magazine, the Chicago Tribune, Ars Technica, The Wire China, and NOVA Next, where he was founding editor.
De Chant is also a lecturer in MITβs Graduate Program in Science Writing, and he was awarded a Knight Science Journalism Fellowship at MIT in 2018, during which time he studied climate technologies and explored new business models for journalism. He received his PhD in environmental science, policy, and management from the University of California, Berkeley, and his BA degree in environmental studies, English, and biology from St. Olaf College.
You can contact or verify outreach from Tim by emailing [emailΒ protected].
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