JCTC shows off progress on downtown science center

It’s part of the “Jefferson Rising” $90 million project meant to invigorate the Louisville Medical and Education District.

LOUISVILLE, Ky. — Jefferson Community and Technical College (JCTC) let community members get a sneak peak inside their newest science center on Thursday.

“The Center for Science and Discovery” is a 40,000 square foot building set to have labs and classrooms for faculty and students interested in STEM, or Science, Technology, Engineering and Mathematics.

There will also be a new parking garage and a green space on West Broadway in between First and Second Streets.

It’s part of the “Jefferson Rising” $90 million project meant to invigorate the Louisville Medical and Education District (LOUMED).

“Today, we’re seeing promises take shape,” Jefferson President Ty Handy said. “This is the promise of a brighter future for our students and community, the promise of a reimagined and revitalized downtown as well as the promise of world-class facilities that match the quality of our student body. These commitments are present in every beam, every building and every barrier broken by the Jefferson Rising project.”

At Thursday’s hard hat tour was Elmer Lucille Allen, the 93-year-old retired chemist whose life changed through education.

“I did apply and I was the first African chemist there,” she said. “And I worked there 31 years and retired in 1997. And what I tell everybody, everything that I do now, is still based on chemistry. I’m still a student at UofL,” where she said she was studying ceramics.

Mayor Craig Greenberg also made an appearance, saying this project will help bring people downtown.

“We have incredible momentum in downtown and all across our neighborhood, and this Center for Science and Discovery will make Jefferson and the entire LOUMED campus even more dynamic as more healthcare and stem workers and innovators come together right here, sharing ideas. Innovative, learning, figuring out the future together.”

The science center is made possible through state, college and local funding, as well as gifts from the family of Betty Jones.

It’s expected to open before the fall semester.

Streamlining data analysis: Chrome extensions every data scientist should know

Data scientists and analysts are constantly seeking ways to optimize their workflows and enhance productivity. High-performance Chrome extensions help data professionals work faster by automating tasks. A report states that there are over 100,000 Chrome extensions, with the workflow subcategory being the largest, comprising more than 35,000 extensions.
In this article, we will review the top Chrome extensions built for data professionals and show how they function in practice, plus their benefits and limitations.

Data scientists use data scraping as a vital method for web data extraction to create structured information for their analysis. With an extension, users gained simpler data collection tools that replaced the need to work with programming code. Web automation tools through these extensions work perfectly with Python, R, and Jupyter Notebooks platforms to create essential solutions for data extraction and minimize common mistakes.
Along with other tools, proxy server Chrome extension solutions make data extraction easier, while scientists deal with important difficulties during operation. Most websites now protect themselves through restrictions that identify when users send too many requests from the same IP address. Proxy systems play an essential role at this point. Proxy servers work as intervening servers to cover users’ IP addresses, presenting requests that seem to come from alternative source locations. Proxy rotation allows users to avoid IP-based detection thus extending their chance of evading website blocking measures for scraping activities.
As one of the reports indicates, bots generate around 42% of total web traffic as they conduct data scraping operations. Data continuity depends on proxy use because this statistical information demonstrates that proxies help prevent web detection. A Chrome extension made for web scraping often includes proxy management systems that automatically switch IP addresses to lower the risk of websites detecting scraping activities.

Data Scraper makes it simple to extract web data through its browser extension while needing no programming knowledge. It scrapes product data from online shops, gathers lead data for advertising, and watches competitor price changes. Users can develop scraping instructions while Data Scraper will deliver results in CSV or Excel and perform timed data pulls automatically.
The tool allows both E-commerce ventures to check competitor markets and product availability alongside marketers who benefit from getting business directory contact information. Users may customize XPath selectors in advanced settings for better precision in data extraction. The One-Click Extraction tool enables beginner users to create scraping rules by choosing elements directly on the webpage for improved convenience.
Pros

Instant table scrape
Data scraping beginning login/firewall
Multiple URL data scraping

Cons

Limited free features
Higher pricing for larger data scraping

Web Scraper provides its users with both browser extension and cloud service tools which empower users to develop detailed sitemap structures for extracting data from websites that use JavaScript heavily. The application supports CSV and numerous export formats in addition to linking with Google Sheets and Dropbox, among other tools.
Web Scraper offers professional data collection features that work well for online shopping stores, and can find leads from data while studying customer behavior, plus merging content sources. Web Scraper can tackle tough data scraping duties with the combination of these features.
Pros

Easy to use
No code required
Great customer service

Cons

Steep learning curve
Specific problems with complex websites

Instant Data Scraper is a user-friendly extension that automatically looks for page patterns so that the user can start to scrape without any setup. However, it makes it extremely easy to tangle data into CSV format and is perfect if you need to quickly gather some sort of simple data without any coding expertise.
The extension lets you gather the data of product listings, contact details, and more information in a matter of clicks so that beginners or those who have to get speedy results can include it in their work.
Pros

100+ pre-built templates
No coding required
Pagination support

Cons

Limited scope of work
Limited support

As we can see, thanks to Chrome extensions, data professionals have tremendous opportunities to increase their efficiency in various data extraction tasks. Data analysts and professionals at every level benefit from these extensions, which boost productivity and let them direct their attention toward meaningful output.

Columbia State hosts Regional Science Olympiad Tournament for high school Students

Columbia State Community College recently hosted several high schools for the Tennessee Science Olympiad Regional Tournament. Tennessee Science Olympiad is a regional event put on by the national organization, Science Olympiad. Science Olympiad is an international nonprofit that works to increase student interest and recognition for outstanding STEM education achievement, as well as increase the quality of STEM disciplines taught in classrooms.Across the state, middle and high school teams competed in one-day regional tournaments where the top teams advance to the Tennessee State Science Olympiad, where they compete for state titles and a chance to compete on the national level. Columbia State hosted six high school teams (C Division) from Brentwood High School, Independence High School, Father Ryan High School and Boyd Buchanan High School.
“We were delighted to welcome the talented students and dedicated coaches to our campus for the High School (C Division) Regional Science Olympiad Tournament,” said Tracey Hines, Columbia State dean of the Science and Mathematics Division and assistant professor of biology. “The faculty and staff who graciously volunteered to help run this event had the unique opportunity to witness the excitement and passion students have for STEM. Columbia State is proud to support opportunities that inspire the next generation of scientists, engineers and innovators.”In the regional tournament hosted by Columbia State, Brentwood High School received first place and Independence High School received second place. Both will move forward and will compete in the upcoming state tournament which will be held at the University of Tennessee, Knoxville, on April 5.For more information on the Science Olympiad, visit their website www.soinc.org.

Scientists discover new immune system defense with antibiotic potential

In a groundbreaking discovery, scientists in Israel have unveiled a hidden aspect of the immune system that holds immense potential for developing new antibiotics. The research, published in the journal Nature, reveals that a part of the body known for recycling proteins has a secret mode that can produce bacteria-killing chemicals.The discovery focuses on the proteasome, a tiny structure found in every cell of the body. Traditionally, the proteasome’s role has been to break down old proteins into smaller pieces for recycling. However, a series of experiments demonstrated that the proteasome can detect when a cell is infected by bacteria, prompting it to transform its structure and function. In this new mode, the proteasome repurposes old proteins into molecules capable of tearing apart the outer layers of bacteria, effectively killing them.“This is really exciting because we never knew that this was happening,” said Prof Yifat Merbl from the Weizmann Institute of Science. “We discovered a novel mechanism of immunity that is allowing us to have a defense against bacterial infection. It’s happening throughout our body in all the cells and generates a whole new class of potential natural antibiotics.”The research team, through a process they called “dumpster diving,” identified these natural antibiotics and tested them on bacteria in the lab and on mice with pneumonia and sepsis. The results showed that these new antibiotics were as effective as some of the established ones. Furthermore, when the researchers disabled the proteasome in lab cells, they found it much easier for bacteria like Salmonella to infect those cells.Prof Daniel Davis, head of life sciences and an immunologist at Imperial College London, described the findings as “extremely provocative and very interesting,” noting that they significantly change our understanding of how the body fights infection. He added that while this discovery is promising, turning it into a new source of antibiotics is an idea that still needs thorough testing and development.The need for new antibiotics is urgent, as more than a million people die each year from infections resistant to current drugs. Despite this pressing need, research into developing new antibiotics has been insufficient. Dr. Lindsey Edwards, a senior lecturer in microbiology at King’s College London, expressed optimism about the discovery, stating, “It’s a potential goldmine for new antibiotics, that’s quite exciting.”This discovery opens a new frontier in the fight against drug-resistant superbugs, providing a much-needed source of optimism for scientists and healthcare professionals worldwide.Related Articles

Man’s brain turned to glass after volcanic eruption, scientists think they know why

A young man’s remains from 79 AD have left experts speechless. His skeleton, found in the ancient town of Herculaneum, revealed something that no one expected. Fragments of his brain appear to have turned into shiny, black glass.Volcanologist Guido Giordano, from the Department of Science at Roma Tre University, is part of a team that studied this strange phenomenon.What exactly happened?Archaeologists discovered the man during excavations in the 1960s, lying on a wooden bed in a building that was devoted to honoring Emperor Augustus. He was probably around 20 years old.When nearby Mount Vesuvius erupted, waves of burning ash swept over Herculaneum. Researchers say that, at some point, the extreme heat transformed parts of his brain.Understanding Mount Vesuvius – the basicsMount Vesuvius is one of the most famous volcanoes in the world. It looms over the Bay of Naples in Italy, standing as both a breathtaking natural wonder and a ticking geological time bomb. Back in 79 AD, the eruption that is the subject of this article buried the Roman cities of Pompeii and Herculaneum under thick layers of ash and lava, freezing them in time. Mount Vesuvius in ItalyThat eruption remains one of the deadliest in history, killing thousands and leaving behind eerily preserved ruins that give us a rare glimpse into ancient life. Today, scientists keep a close eye on Vesuvius, since it’s still very much active and sits dangerously close to millions of people.How the brain turned into glassAccording to the new analysis, temperatures above 950°F (510°C) would have been needed. The tissue then had to cool fast enough to avoid crystallizing.“This is an amazing and truly unexpected find,” exclaimed Giordano. Researchers point out that most organic matter would simply burn to ashes at this temperature.Why it mattered for scientistsThis unique case highlights a rarely seen effect of hot ash clouds, which are known as pyroclastic flows. Such clouds can blast into an area at high temperatures and then rapidly recede.One reason the brain fragments remained is that the surrounding deposit was not hot enough to remelt the glass. That deposit reached roughly 869°F (465°C), which is lower than the point where the glassy tissue would revert to a softer form.Clues about a rare eventResearchers say that the first scorching surge struck Herculaneum minutes before the main flow arrived. That could explain how this man’s brain was briefly exposed to extreme heat but then cooled.Complex neuron and spinal cord structures remained embedded in the hardened material. These delicate features rarely survive in such clarity.(a) Carbonized body of the guardian in his wooden bed within the Collegium Augustalium; the vitrified brain remains have been found within his skull. (b) Panoramic eastward view of Herculaneum ruins with Vesuvius volcano in the background, and the location of the Collegium Augustalium within the city. Credit: Scientific ReportsScientists examined the fragments with electron microscopes. They noticed patterns that align with known neuronal shapes, including axons.Internal pores in the glassy chunks hinted at water vapor escaping from the tissue. The result was an almost volcanic obsidian-like appearance.Why did this man’s brain turn to glass?All other humans in Herculaneum at the time appear to have fled toward the sea. This man did not.“Maybe he was drunk,” joked Giordano. He suspects the victim was simply overwhelmed by the sudden disaster.Insights from a glass-preserved brainUnderstanding how extreme heat affects human remains could help experts reconstruct events in ancient and modern disasters. This case challenges previous assumptions about how bodies react in high-temperature environments.It also raises questions about other potential instances of vitrified tissue that may have gone unnoticed in the past. If similar cases exist, they could provide further insights into the effects of pyroclastic flows on the human body.Researchers may now look for evidence of this phenomenon at other volcanic sites where high heat and rapid cooling occurred.Implications for volcanic hazardsHot ash clouds can be extremely dangerous. Some modern fatalities, such as those near Guatemala’s Fuego volcano in 2018, likely involved these blasts.Giordano explained that buildings near active volcanoes might need heat-resistant designs. Such measures could allow people a brief chance to escape.Beyond a single discoveryVolcanic eruptions have shaped human history by burying entire cities. Pompeii is often in the spotlight, yet Herculaneum reveals equally gripping scenes.The glass brain fragments remain the only known example of this natural process in human tissue. Their formation required fast heating, rapid cooling, and a precise window of temperature.Insights on ancient life and deathStudy co-authors believe the victim was part of a religious community. The building where he was found was dedicated to the worship of Augustus.The exact details of his final moments might stay unknown. Still, his remains add a layer of understanding to what happened that deadly day.The study is published in Scientific Reports.—–Like what you read? Subscribe to our newsletter for engaging articles, exclusive content, and the latest updates. Check us out on EarthSnap, a free app brought to you by Eric Ralls and Earth.com.—–

Experts don’t think AI is ready to be a ‘co-scientist’ 

Last month, Google announced the “AI co-scientist,” an AI the company said was designed to aid scientists in creating hypotheses and research plans. Google pitched it as a way to uncover new knowledge, but experts think it — and tools like it — fall well short of PR promises.

“This preliminary tool, while interesting, doesn’t seem likely to be seriously used,” Sara Beery, a computer vision researcher at MIT, told TechCrunch. “I’m not sure that there is demand for this type of hypothesis-generation system from the scientific community.”

Google is the latest tech giant to advance the notion that AI will dramatically speed up scientific research someday, particularly in literature-dense areas such as biomedicine. In an essay earlier this year, OpenAI CEO Sam Altman said that “superintelligent” AI tools could “massively accelerate scientific discovery and innovation.” Similarly, Anthropic CEO Dario Amodei has boldly predicted that AI could help formulate cures for most cancers.

But many researchers don’t consider AI today to be especially useful in guiding the scientific process. Applications like Google’s AI co-scientist appear to be more hype than anything, they say, unsupported by empirical data.

For example, in its blog post describing the AI co-scientist, Google said the tool had already demonstrated potential in areas such as drug repurposing for acute myeloid leukemia, a type of blood cancer that affects bone marrow. Yet the results are so vague that “no legitimate scientist would take [them] seriously,” said Favia Dubyk, a pathologist affiliated with Northwest Medical Center-Tucson in Arizona.

“This could be used as a good starting point for researchers, but […] the lack of detail is worrisome and doesn’t lend me to trust it,” Dubyk told TechCrunch. “The lack of information provided makes it really hard to understand if this can truly be helpful.”

It’s not the first time Google has been criticized by the scientific community for trumpeting a supposed AI breakthrough without providing a means to reproduce the results.

In 2020, Google claimed one of its AI systems trained to detect breast tumors achieved better results than human radiologists. Researchers from Harvard and Stanford published a rebuttal in the journal Nature, saying the lack of detailed methods and code in Google’s research “undermine[d] its scientific value.”

Scientists have also chided Google for glossing over the limitations of its AI tools aimed at scientific disciplines such as materials engineering. In 2023, the company said around 40 “new materials” had been synthesized with the help of one of its AI systems, called GNoME. Yet, an outside analysis found not a single one of the materials was, in fact, net new.

“We won’t truly understand the strengths and limitations of tools like Google’s ‘co-scientist’ until they undergo rigorous, independent evaluation across diverse scientific disciplines,” Ashique KhudaBukhsh, an assistant professor of software engineering at Rochester Institute of Technology, told TechCrunch. “AI often performs well in controlled environments but may fail when applied at scale.”

Complex processes

Part of the challenge in developing AI tools to aid in scientific discovery is anticipating the untold number of confounding factors. AI might come in handy in areas where broad exploration is needed, like narrowing down a vast list of possibilities. But it’s less clear whether AI is capable of the kind of out-of-the-box problem-solving that leads to scientific breakthroughs.

“We’ve seen throughout history that some of the most important scientific advancements, like the development of mRNA vaccines, were driven by human intuition and perseverance in the face of skepticism,” KhudaBukhsh said. “AI, as it stands today, may not be well-suited to replicate that.”

Lana Sinapayen, an AI researcher at Sony Computer Science Laboratories in Japan, believes that tools such as Google’s AI co-scientist focus on the wrong kind of scientific legwork.

Sinapayen sees a genuine value in AI that could automate technically difficult or tedious tasks, like summarizing new academic literature or formatting work to fit a grant application’s requirements. But there isn’t much demand within the scientific community for an AI co-scientist that generates hypotheses, she says — a task from which many researchers derive intellectual fulfillment.

“For many scientists, myself included, generating hypotheses is the most fun part of the job,” Sinapayen told TechCrunch. “Why would I want to outsource my fun to a computer, and then be left with only the hard work to do myself? In general, many generative AI researchers seem to misunderstand why humans do what they do, and we end up with proposals for products that automate the very part that we get joy from.”

Beery noted that often the hardest step in the scientific process is designing and implementing the studies and analyses to verify or disprove a hypothesis — which isn’t necessarily within reach of current AI systems. AI can’t use physical tools to carry out experiments, of course, and it often performs worse on problems for which extremely limited data exists.

“Most science isn’t possible to do entirely virtually — there is frequently a significant component of the scientific process that is physical, like collecting new data and conducting experiments in the lab,” Beery said. “One big limitation of systems [like Google’s AI co-scientist] relative to the actual scientific process, which definitely limits its usability, is context about the lab and researcher using the system and their specific research goals, their past work, their skillset, and the resources they have access to.”

AI risks

AI’s technical shortcomings and risks — such as its tendency to hallucinate — also make scientists wary of endorsing it for serious work.

KhudaBukhsh fears AI tools could simply end up generating noise in the scientific literature, not elevating progress.

It’s already a problem. A recent study found that AI-fabricated “junk science” is flooding Google Scholar, Google’s free search engine for scholarly literature.

“AI-generated research, if not carefully monitored, could flood the scientific field with lower-quality or even misleading studies, overwhelming the peer-review process,” KhudaBukhsh said. “An overwhelmed peer-review process is already a challenge in fields like computer science, where top conferences have seen an exponential rise in submissions.”

Even well-designed studies could end up being tainted by misbehaving AI, Sinapayen said. While she likes the idea of a tool that could assist with literature review and synthesis, Sinapayen said she wouldn’t trust AI today to execute that work reliably.

“Those are things that various existing tools are claiming to do, but those are not jobs that I would personally leave up to current AI,” Sinapayen said, adding that she takes issue with the way many AI systems are trained and the amount of energy they consume, as well. “Even if all the ethical issues […] were solved, current AI is just not reliable enough for me to base my work on their output one way or another.”

Electrons on Demand: Scientists Unlock the Secret of Light-Driven Charge Control

A specially designed terahertz pulse moves electrical charge between the metal tip of a specialized microscope and a single molecule, creating an exciton that releases energy as light. Credit: Yokohama National University
Researchers have unlocked a new way to manipulate electrons in molecules with terahertz light, paving the way for faster electronics, efficient solar cells, and next-gen materials.
Their work reveals a method to precisely control excitons and charge movement at an atomic level, leading to major advances in energy and chemical technologies.
Electrons in Motion: A Breakthrough Discovery
Scientists at Yokohama National University, working with RIKEN and other institutions in Japan and Korea, have made a major breakthrough in understanding how electrons move and interact within molecules. Their discovery, published today (March 6) in Science, could lead to advancements in electronics, energy transfer, and chemical reactions. The researchers found a new way to control electron distribution in molecules using ultrafast, phase-controlled terahertz light pulses.
Electrons, which carry negative charges, typically occupy specific energy levels within atoms and molecules, forming structured layers around the positively charged nucleus. The way these electrons are arranged determines how a molecule behaves, influencing key processes such as light emission, charge transfer, and chemical reactions.
For instance, when light provides an electron with enough energy, it jumps to a higher energy level, leaving behind a positively charged “hole.” Together, the electron and hole form an exciton, a tiny energy packet that can emit light. Excitons play a crucial role in technologies like solar cells, where they help convert sunlight into electricity, and LEDs, where they release energy as visible light.
The Challenge of Controlling Charged States
However, there are other important states that molecules can exist in, like charged states and charged excited states. Charged states occur when a molecule gains or loses an electron, while charged excited states involve both a charge change and an electron in a higher energy level.
These are important for many processes, but it has been very difficult to control these states, especially on ultrafast timescales, using traditional technology. Normally, light from the visible spectrum doesn’t provide enough energy to change the charge of the molecule and therefore cannot change the number of electrons in it.
Harnessing Terahertz Light for Precise Control
To overcome this challenge, the researchers used terahertz light pulses, a type of light with a much lower frequency than visible light. These pulses cause electrons to move between a molecule and the metal tip of a specialized microscope that can manipulate individual molecules, allowing the team to either remove or add an electron to the molecule.
This new method offers a way to control not only excitons in a controlled manner, which is both quick and precise, but also other important molecular states that are essential for chemical reactions, energy transfer and many other processes.
The team also demonstrated that terahertz light, which is invisible to the human eye, can be converted into visible light within a molecule, revealing a novel way to transform one type of light into another through molecular energy changes.
Turning Invisible Light into a Powerful Tool
“While excitons typically form when light is absorbed by a material, our findings reveal they can also be created through charged states using these specially designed terahertz pulses,” says Professor Ikufumi Katayama, the study’s corresponding author from the Faculty of Engineering at Yokohama National University.
“This opens new possibilities for controlling how charge moves within molecules, which could lead to better solar cells, smaller light-based devices, and faster electronics.”
A New Era for Nanotechnology and Energy Transfer
The team’s main achievement was the ability to control exciton formation at the single-molecule level.
Professor Jun Takeda, another corresponding author from the Faculty of Engineering at Yokohama National University, explains: “By precisely controlling how electrons move between a single molecule and the metal tip of the specialized microscope, we were able to guide exciton formation and the chemical reactions that follow.
“These processes usually happen randomly, but with terahertz pulses, we can determine exactly when and how reactions occur at the molecular level. This could lead to breakthroughs in nanotechnology, advanced materials, and more efficient catalysts for energy and industry.”
Reference: “Ultrafast on-demand exciton formation in a single-molecule junction by tailored terahertz pulses” 6 March 2025, Science.DOI: 10.1126/science.ads2776
Other contributors include Kensuke Kimura (RIKEN); Ryo Tamaki (Yokohama National University [YNU], Kanagawa Institute of Industrial Science and Technology);  Minhui Lee (RIKEN, The University of Tokyo [UTokyo]); Xingmei Ouyang (RIKEN); Satoshi Kusaba (YNU); Rafael B. Jaculbia (RIKEN, Institute for Basic Science); Yoichi Kawada (Hamamatsu Photonics K.K.); Jaehoon Jung (University of Ulsan);  Atsuya Muranaka (RIKEN); Hiroshi Imada (RIKEN, Gwangju Institute of Science and Technology [GIST]); and Yousoo Kim (RIKEN, UTokyo, Institute for Basic Science, GIST).

Sacred Heart participating in Science Olympiad

Budding young scientists from throughout the region are gearing up to participate in the 40th Annual Stanislaus County Regional Science Olympiad on March 8 at Modesto Junior College (West Campus Science Center).The event begins at 8:30 a.m. and will end with the awards ceremony, held inside the Agriculture Pavilion, at 4:45 p.m.More than 500 students representing area middle and high school students will participate in the day-long event. The public is invited to attend. Admission and parking are free.This year’s Science Olympiad, sponsored by the Stanislaus County Office of Education (SCOE) and the Modesto Junior College, will have participants from the following junior high/middle schools: Blaker-Kinser, Cardozo, Hickman Charter, La Loma, Oakdale, Our Lady of Fatima, Prescott, Riverbank Language, Roosevelt, Sacred Heart, and Ustach.

#placement_701959_0_i{width:100%;margin:0 auto;}Participating high schools include Beyer, Central Catholic, Davis, Don Pedro, Downey, Enochs, Gregori, Merced, Modesto, Oakdale, Oakdale Charter, Pitman, and Turlock. More than 125 science educators and community volunteers will judge or assist with the competition.The Regional Science Olympiad consists of individual and team events that encourage learning in biology, earth science, chemistry, physics, problem-solving, and technology. Some events require students to build devices before the competition, some require knowledge of scientific facts and concepts, and others focus on science processes, skills, or applications.This year’s state NorCal Science Olympiad is scheduled for April 5 at California State University, East Bay, in Hayward.

No Sun? No Problem! Scientists Grow Plants Using Electricity Instead

It’s no secret that plants rely on sunlight to survive. Photosynthesis, the process of converting solar energy into food, has shaped the planet’s ecosystems and driven the evolution of life on Earth. But what if plants didn’t need the sun? What if food could grow in complete darkness—powered not by photons, but by electricity?

Scientists are now exploring a radical departure from traditional agriculture: electro-agriculture, or electro-ag. By feeding plants acetate, a compound derived from carbon dioxide (CO₂) using electrolysis, they have created a system that bypasses photosynthesis altogether. This technology, described in a new paper published in Joule, could revolutionize food production, slashing land use, conserving water, and making farming possible in areas previously considered unsuitable.

The Science Behind Electro-Agriculture

The idea of using electricity to power chemical reactions isn’t exactly new. Electrolysis—splitting molecules with an electric current—has been around for centuries. But using it to feed plants was considered audacious until now.

Traditional photosynthesis is, from an engineering perspective, grossly inefficient. Crops convert only about 1% of the sunlight they receive into biomass. The electro-agriculture method proposed by Jiao and his colleagues is, in theory, four times more efficient. It starts by using electricity to convert carbon dioxide (CO₂) into carbon monoxide (CO), which is then transformed into acetate. Plants and fungi can absorb this acetate and metabolize it into essential compounds like sugars and amino acids, bypassing the need for sunlight altogether.

Image from the study.

The system is designed as a vertical farming model: solar panels on the roof provide energy for electrolysis, which takes place on the upper floors. Below, in stacked growing chambers, crops absorb acetate and grow in a carefully controlled environment. So far, researchers have successfully grown mushrooms, yeast, and algae using this method. They’ve already started experiments with tomatoes, lettuce, and other small crops. Eventually, they hope to modify staple crops like wheat and sweet potatoes to process acetate more efficiently.

“We have demonstrated at least a four-fold improvement in solar-to-food energy efficiency compared to photosynthesis,” the researchers write. If the United States were to fully adopt electro-ag, the authors estimate that agricultural land use could shrink by 88%, freeing vast areas for rewilding and carbon sequestration.

A Solution to Food Insecurity—Or an Expensive Dream?

It’s not hard to see why this would be a game changer in many parts of the world.

Hunger remains a global crisis, exacerbated by climate change, conflict, and economic instability. According to the United Nations, 733 million people faced food insecurity in 2023, a number that has risen sharply in recent years. In addition, electro-agriculture could bring food production into urban centers, eliminating long supply chains and reducing the need for farmland.