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How reality crushed Ÿnsect, the French startup that had raised over 0M for insect farming | TechCrunch

How reality crushed Ÿnsect, the French startup that had raised over $600M for insect farming | TechCrunch

French startup Ÿnsect shot into the spotlight when “Iron Man” star Robert Downey Jr. touted its merits on the Late Show during Super Bowl weekend 2021. Now, nearly four years later, the insect farming company has been placed into judicial liquidation — essentially bankruptcy — for insolvency. 

The company’s demise is hardly a surprise, as Ÿnsect had been embattled for months. Still, there is plenty to unpack about how a startup can go bankrupt despite raising over $600 million, including from Downey Jr’s FootPrint Coalition, taxpayers, and many others.

Ultimately, Ÿnsect failed to fulfill its ambition to “revolutionize the food chain” with insect-based protein. But don’t be too quick to attribute its failure to the ‘ick’ factor that many Westerners feel about bugs. Human food was never its core focus. 

Instead, Ÿnsect focused on producing insect protein for animal feed and pet food, two markets with very different economics and margins that the company never quite chose between.

That indecision extended to its M&A strategy. In 2021, Ÿnsect acquired Protifarm, a Dutch company raising mealworms for human food applications, adding a third market to the mix. Even as the company announced the deal, then-CEO Antoine Hubert admitted it would take a couple of years for human food to represent just 10% to 15% of Ÿnsect’s revenue. 

“We still see pet food and fish feed being the largest contributor to our revenues in the coming years,” Hubert declared at the time. In other words, Ÿnsect was acquiring a company in a market segment that would remain marginal for years — at a time when the startup desperately needed revenue growth.

And revenue was the problem. According to publicly available data, Ÿnsect’s revenue from its main entity peaked at €17.8 million in 2021 (approximately $21 million) — a figure reportedly inflated by inflated by internal transfers between subsidiaries. By 2023, the company had racked up a net loss of €79.7 million ($94 million).

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So how did a company with such meager revenue raise over $600 million? The answer wasn’t hype-driven crossover funds paying inflated multiples during the 2021 funding frenzy. Instead, Ÿnsect attracted impact-focused investors like Astanor Ventures and public investment bank Bpifrance that bought into a compelling sustainability vision.

Its pitch to them was simple — offering an alternative to resource-intensive proteins like fishmeal and soy. That same thesis also attracted significant capital to competitors like Better Origin and Innovafeed, and it seemed promising.

But the vision collided with market reality. Animal feed is a commodity market driven by price, not sustainability premiums. In a perfect world, insect protein would be fully circular, with insects fed on food waste that would otherwise go to landfill. But in practice, factory-scale insect production typically ends up relying on cereal byproducts that are already usable as animal feed — meaning insect protein just adds an expensive extra step. For animal feed, the math simply wasn’t working.

Ÿnsect eventually recognized this. Pet food proved to be a different equation: it is less price-driven than animal feed and a far better market for insect protein, even with competition from other alternative proteins such as lab-grown meat. By 2023, the company refocused its strategy on pet food and other higher-margin segments, with Hubert citing broader economic pressures. 

“In an environment where there is inflation on energy and raw materials but also on the cost of capital and debt, we cannot afford to invest loads of resources in markets which are the least remunerative (animal feed), while you have other markets where there is a lot of demand, good returns and higher margins,” Hubert said at the time.

The 2023 pivot to pet food came too late. By then, Ÿnsect had already committed to a massive, capital-intensive bet that would ultimately doom the company. That bet was Ÿnfarm, a “giga-factory” in Northern France that the company billed “the world’s most expensive bug farm.” Built for insect production at scale, the facility consumed hundreds of millions in funding — money spent before Ÿnsect had proven its business model or figured out its unit economics.

To oversee Ÿnfarm’s launch, Ÿnsect brought in Shankar Krishnamoorthy, a former executive at French energy giant Engie. When that move to pet food failed to save the company, Krishnamoorthy replaced Hubert as CEO.

Ÿnsect then shut down the production plant it had acquired from Protifarm and cut jobs. But shuttering one facility while operating a giga-factory built for the wrong market couldn’t solve the fundamental problem.

For Professor Joe Haslam, who teaches a course on Scaling Up in the MBA Program at IE Business School, “Ÿnsect’s struggles are not a mystery and not mainly about insects. They are the result of a mismatch between industrial ambition, capital markets, and timing, compounded by some execution and strategy choices.”

The fact that Ÿnsect failed doesn’t mean the entire insect farming sector is doomed. Competitor Innovafeed is reportedly holding up better, in part because it started with a smaller production site and is ramping up incrementally.

For Prof. Haslam, Ÿnsect exemplifies a broader European problem. “Ÿnsect is a case study in Europe’s scaling gap. We fund moonshots. We underfund factories. We celebrate pilots. We abandon industrialization. See Northvolt [a struggling Swedish battery maker], Volocopter [a German air taxi startup, and Lilium [a failed Germany flying taxi company],” he said.

The failure has prompted some soul-searching. Hubert himself co-founded Start Industrie, an association advocating for policies to support French industrial startups — a recognition that Europe needs more than just funding to build the next generation of deep-tech companies.

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#reality #crushed #Ÿnsect #French #startup #raised #600M #insect #farming #TechCrunch


Scientists in Singapore and Japan have developed a tiny 3D-printed scuba suit for cyborg cockroaches, allowing them to survive and move underwater and other low-oxygen environments for up to three hours.

The suit can transform a regular cockroach, and potentially other insects, into “an amphibious cyborg robot capable of operation across land and water,” according to a new research paper published this week in Nature Communications. The study was conducted by scientists at Nanyang Technological University and Waseda University.

So, why do researchers want half-robot cockroaches to breathe underwater anyway?

Apparently, they hope to one day be able to use cyborg cockroaches in search and rescue missions, pipeline inspection, and other complex tasks. NTU Professor Hirotaka Sato, who led the study, has been working on cyborg insects for more than a decade. These hybrid robots combine living insects with electrodes that allow humans to remotely control their movements. Sato and his co-authors argue that this setup can make them more useful than traditional robots in some situations.

Unlike conventional robots, cyborg insects consume less energy because they use their own muscles to move. They are also small enough to move through confined and cluttered spaces that larger robots may not be able to reach.

These cyborgs have already been used in actual search-and-rescue operations, including Operation Lionheart after the 7.7-magnitude earthquake in Myanmar in March, according to NTU.

There is one obvious drawback, though. These tiny cyborgs still have biological limits. They need oxygen, which makes them much less useful underwater.

“This is important because real disaster sites can be challenging after heavy rain or flooding, blocking access routes in the rubble, drains and narrow gaps,” Sato said in a news release on the study. “By expanding the operating parameters of our cyborg insects to include underwater travel, we believe that they can enhance search and rescue efforts.”

The new scuba suit is meant to solve that problem.

How the suit works

Cockroaches breathe through small holes on their bodies known as spiracles. To protect those spiracles from water, the researchers made a flexible 3D-printed shell that wraps around the insect’s body. Four small tubes then attach to the cockroach’s spiracles and deliver oxygen directly to them.

Attached to the shell is an oxygen-generation tank that contains a small sponge soaked in manganese dioxide. To activate the system, the team injected diluted hydrogen peroxide into the tank, then sealed it with ultraviolet adhesive to prevent leaks.

The chemical reaction inside the tank slowly releases oxygen, which is then delivered through silicone tubes into the cockroach’s spiracles.

According to the study, the suit was tested on Madagascar hissing cockroaches in plastic tubes that simulated different environments.

Cyborg cockroaches equipped with the suit were able to move around underwater for two to three hours. Cockroaches in the control group suffocated within two minutes.

The team said this suit could potentially be adapted for other robot bugs like locusts and beetles, as these insects have similar body structures and respiratory systems.

#Researchers #Built #Scuba #Suit #Cyborg #CockroachesInsects,Robotics">Researchers Built a Scuba Suit for Cyborg Cockroaches
                Scientists in Singapore and Japan have developed a tiny 3D-printed scuba suit for cyborg cockroaches, allowing them to survive and move underwater and other low-oxygen environments for up to three hours. The suit can transform a regular cockroach, and potentially other insects, into “an amphibious cyborg robot capable of operation across land and water,” according to a new research paper published this week in Nature Communications. The study was conducted by scientists at Nanyang Technological University and Waseda University. So, why do researchers want half-robot cockroaches to breathe underwater anyway? Apparently, they hope to one day be able to use cyborg cockroaches in search and rescue missions, pipeline inspection, and other complex tasks. NTU Professor Hirotaka Sato, who led the study, has been working on cyborg insects for more than a decade. These hybrid robots combine living insects with electrodes that allow humans to remotely control their movements. Sato and his co-authors argue that this setup can make them more useful than traditional robots in some situations.

 Unlike conventional robots, cyborg insects consume less energy because they use their own muscles to move. They are also small enough to move through confined and cluttered spaces that larger robots may not be able to reach. These cyborgs have already been used in actual search-and-rescue operations, including Operation Lionheart after the 7.7-magnitude earthquake in Myanmar in March, according to NTU.

 There is one obvious drawback, though. These tiny cyborgs still have biological limits. They need oxygen, which makes them much less useful underwater. “This is important because real disaster sites can be challenging after heavy rain or flooding, blocking access routes in the rubble, drains and narrow gaps,” Sato said in a news release on the study. “By expanding the operating parameters of our cyborg insects to include underwater travel, we believe that they can enhance search and rescue efforts.”

 The new scuba suit is meant to solve that problem. How the suit works Cockroaches breathe through small holes on their bodies known as spiracles. To protect those spiracles from water, the researchers made a flexible 3D-printed shell that wraps around the insect’s body. Four small tubes then attach to the cockroach’s spiracles and deliver oxygen directly to them. Attached to the shell is an oxygen-generation tank that contains a small sponge soaked in manganese dioxide. To activate the system, the team injected diluted hydrogen peroxide into the tank, then sealed it with ultraviolet adhesive to prevent leaks. The chemical reaction inside the tank slowly releases oxygen, which is then delivered through silicone tubes into the cockroach’s spiracles.

 According to the study, the suit was tested on Madagascar hissing cockroaches in plastic tubes that simulated different environments. Cyborg cockroaches equipped with the suit were able to move around underwater for two to three hours. Cockroaches in the control group suffocated within two minutes. The team said this suit could potentially be adapted for other robot bugs like locusts and beetles, as these insects have similar body structures and respiratory systems.      #Researchers #Built #Scuba #Suit #Cyborg #CockroachesInsects,Robotics

research paper published this week in Nature Communications. The study was conducted by scientists at Nanyang Technological University and Waseda University.

So, why do researchers want half-robot cockroaches to breathe underwater anyway?

Apparently, they hope to one day be able to use cyborg cockroaches in search and rescue missions, pipeline inspection, and other complex tasks. NTU Professor Hirotaka Sato, who led the study, has been working on cyborg insects for more than a decade. These hybrid robots combine living insects with electrodes that allow humans to remotely control their movements. Sato and his co-authors argue that this setup can make them more useful than traditional robots in some situations.

Unlike conventional robots, cyborg insects consume less energy because they use their own muscles to move. They are also small enough to move through confined and cluttered spaces that larger robots may not be able to reach.

These cyborgs have already been used in actual search-and-rescue operations, including Operation Lionheart after the 7.7-magnitude earthquake in Myanmar in March, according to NTU.

There is one obvious drawback, though. These tiny cyborgs still have biological limits. They need oxygen, which makes them much less useful underwater.

“This is important because real disaster sites can be challenging after heavy rain or flooding, blocking access routes in the rubble, drains and narrow gaps,” Sato said in a news release on the study. “By expanding the operating parameters of our cyborg insects to include underwater travel, we believe that they can enhance search and rescue efforts.”

The new scuba suit is meant to solve that problem.

How the suit works

Cockroaches breathe through small holes on their bodies known as spiracles. To protect those spiracles from water, the researchers made a flexible 3D-printed shell that wraps around the insect’s body. Four small tubes then attach to the cockroach’s spiracles and deliver oxygen directly to them.

Attached to the shell is an oxygen-generation tank that contains a small sponge soaked in manganese dioxide. To activate the system, the team injected diluted hydrogen peroxide into the tank, then sealed it with ultraviolet adhesive to prevent leaks.

The chemical reaction inside the tank slowly releases oxygen, which is then delivered through silicone tubes into the cockroach’s spiracles.

According to the study, the suit was tested on Madagascar hissing cockroaches in plastic tubes that simulated different environments.

Cyborg cockroaches equipped with the suit were able to move around underwater for two to three hours. Cockroaches in the control group suffocated within two minutes.

The team said this suit could potentially be adapted for other robot bugs like locusts and beetles, as these insects have similar body structures and respiratory systems.

#Researchers #Built #Scuba #Suit #Cyborg #CockroachesInsects,Robotics">Researchers Built a Scuba Suit for Cyborg CockroachesResearchers Built a Scuba Suit for Cyborg Cockroaches
                Scientists in Singapore and Japan have developed a tiny 3D-printed scuba suit for cyborg cockroaches, allowing them to survive and move underwater and other low-oxygen environments for up to three hours. The suit can transform a regular cockroach, and potentially other insects, into “an amphibious cyborg robot capable of operation across land and water,” according to a new research paper published this week in Nature Communications. The study was conducted by scientists at Nanyang Technological University and Waseda University. So, why do researchers want half-robot cockroaches to breathe underwater anyway? Apparently, they hope to one day be able to use cyborg cockroaches in search and rescue missions, pipeline inspection, and other complex tasks. NTU Professor Hirotaka Sato, who led the study, has been working on cyborg insects for more than a decade. These hybrid robots combine living insects with electrodes that allow humans to remotely control their movements. Sato and his co-authors argue that this setup can make them more useful than traditional robots in some situations.

 Unlike conventional robots, cyborg insects consume less energy because they use their own muscles to move. They are also small enough to move through confined and cluttered spaces that larger robots may not be able to reach. These cyborgs have already been used in actual search-and-rescue operations, including Operation Lionheart after the 7.7-magnitude earthquake in Myanmar in March, according to NTU.

 There is one obvious drawback, though. These tiny cyborgs still have biological limits. They need oxygen, which makes them much less useful underwater. “This is important because real disaster sites can be challenging after heavy rain or flooding, blocking access routes in the rubble, drains and narrow gaps,” Sato said in a news release on the study. “By expanding the operating parameters of our cyborg insects to include underwater travel, we believe that they can enhance search and rescue efforts.”

 The new scuba suit is meant to solve that problem. How the suit works Cockroaches breathe through small holes on their bodies known as spiracles. To protect those spiracles from water, the researchers made a flexible 3D-printed shell that wraps around the insect’s body. Four small tubes then attach to the cockroach’s spiracles and deliver oxygen directly to them. Attached to the shell is an oxygen-generation tank that contains a small sponge soaked in manganese dioxide. To activate the system, the team injected diluted hydrogen peroxide into the tank, then sealed it with ultraviolet adhesive to prevent leaks. The chemical reaction inside the tank slowly releases oxygen, which is then delivered through silicone tubes into the cockroach’s spiracles.

 According to the study, the suit was tested on Madagascar hissing cockroaches in plastic tubes that simulated different environments. Cyborg cockroaches equipped with the suit were able to move around underwater for two to three hours. Cockroaches in the control group suffocated within two minutes. The team said this suit could potentially be adapted for other robot bugs like locusts and beetles, as these insects have similar body structures and respiratory systems.      #Researchers #Built #Scuba #Suit #Cyborg #CockroachesInsects,Robotics

Scientists in Singapore and Japan have developed a tiny 3D-printed scuba suit for cyborg cockroaches, allowing them to survive and move underwater and other low-oxygen environments for up to three hours.

The suit can transform a regular cockroach, and potentially other insects, into “an amphibious cyborg robot capable of operation across land and water,” according to a new research paper published this week in Nature Communications. The study was conducted by scientists at Nanyang Technological University and Waseda University.

So, why do researchers want half-robot cockroaches to breathe underwater anyway?

Apparently, they hope to one day be able to use cyborg cockroaches in search and rescue missions, pipeline inspection, and other complex tasks. NTU Professor Hirotaka Sato, who led the study, has been working on cyborg insects for more than a decade. These hybrid robots combine living insects with electrodes that allow humans to remotely control their movements. Sato and his co-authors argue that this setup can make them more useful than traditional robots in some situations.

Unlike conventional robots, cyborg insects consume less energy because they use their own muscles to move. They are also small enough to move through confined and cluttered spaces that larger robots may not be able to reach.

These cyborgs have already been used in actual search-and-rescue operations, including Operation Lionheart after the 7.7-magnitude earthquake in Myanmar in March, according to NTU.

There is one obvious drawback, though. These tiny cyborgs still have biological limits. They need oxygen, which makes them much less useful underwater.

“This is important because real disaster sites can be challenging after heavy rain or flooding, blocking access routes in the rubble, drains and narrow gaps,” Sato said in a news release on the study. “By expanding the operating parameters of our cyborg insects to include underwater travel, we believe that they can enhance search and rescue efforts.”

The new scuba suit is meant to solve that problem.

How the suit works

Cockroaches breathe through small holes on their bodies known as spiracles. To protect those spiracles from water, the researchers made a flexible 3D-printed shell that wraps around the insect’s body. Four small tubes then attach to the cockroach’s spiracles and deliver oxygen directly to them.

Attached to the shell is an oxygen-generation tank that contains a small sponge soaked in manganese dioxide. To activate the system, the team injected diluted hydrogen peroxide into the tank, then sealed it with ultraviolet adhesive to prevent leaks.

The chemical reaction inside the tank slowly releases oxygen, which is then delivered through silicone tubes into the cockroach’s spiracles.

According to the study, the suit was tested on Madagascar hissing cockroaches in plastic tubes that simulated different environments.

Cyborg cockroaches equipped with the suit were able to move around underwater for two to three hours. Cockroaches in the control group suffocated within two minutes.

The team said this suit could potentially be adapted for other robot bugs like locusts and beetles, as these insects have similar body structures and respiratory systems.

#Researchers #Built #Scuba #Suit #Cyborg #CockroachesInsects,Robotics

For our very first WIRED Book Club livestream, Kate Knibbs will be joined by the author of The Yahoo Boys: Love, Deception, and the Real Lives of Nigeria’s Romance Scammers, Carlos Barragán.

Barragán, a journalist and researcher at The New York Times, flew to Lagos to embed himself with a group of young, desperate grifters. The account he brings back is a funny, sad, enraging read about how the internet can fuel heartbreak.

On the Panel

  • Kate Knibbs: senior writer at WIRED, covering prediction markets, the future of media, and how AI is changing the internet. She also leads WIRED Book Club.
  • Carlos Barragán: reporter and researcher for The New York Times based in Madrid. He was formerly a reporter at El Confidencial before receiving his MFA in nonfiction writing from Columbia University. The Yahoo Boys is his first book.

Ask a Question

Submit your burning questions about the book in the comments section below. The event will be streamed right here, so bookmark this page and mark your calendar to return on July 16 at 12pm ET / 9am PT.

How to Watch

This livestream is reserved as a subscriber benefit. For subscribers who are not able to join, a replay of the livestream will be available after the event. Not a subscriber yet? Subscribe now to get access to this livestream, plus full access to WIRED.

Join WIRED Book Club

If you’d like to start following along, you can catch up on past weeks discussions, and sign up for WIRED Book Club here.

In the meantime, check out past livestreams on how AI is changing work, big tech and the military, and more.

#Submit #Questions #World #Online #Romance #Scamslivestreams,q&a,scams,wired book club,books">Submit Your Questions: Inside The World of Online Romance ScamsFor our very first WIRED Book Club livestream, Kate Knibbs will be joined by the author of The Yahoo Boys: Love, Deception, and the Real Lives of Nigeria’s Romance Scammers, Carlos Barragán.Barragán, a journalist and researcher at The New York Times, flew to Lagos to embed himself with a group of young, desperate grifters. The account he brings back is a funny, sad, enraging read about how the internet can fuel heartbreak.On the PanelKate Knibbs: senior writer at WIRED, covering prediction markets, the future of media, and how AI is changing the internet. She also leads WIRED Book Club.Carlos Barragán: reporter and researcher for The New York Times based in Madrid. He was formerly a reporter at El Confidencial before receiving his MFA in nonfiction writing from Columbia University. The Yahoo Boys is his first book.Ask a QuestionSubmit your burning questions about the book in the comments section below. The event will be streamed right here, so bookmark this page and mark your calendar to return on July 16 at 12pm ET / 9am PT.How to WatchThis livestream is reserved as a subscriber benefit. For subscribers who are not able to join, a replay of the livestream will be available after the event. Not a subscriber yet? Subscribe now to get access to this livestream, plus full access to WIRED.Join WIRED Book ClubIf you’d like to start following along, you can catch up on past weeks discussions, and sign up for WIRED Book Club here.In the meantime, check out past livestreams on how AI is changing work, big tech and the military, and more.#Submit #Questions #World #Online #Romance #Scamslivestreams,q&a,scams,wired book club,books

WIRED Book Club livestream, Kate Knibbs will be joined by the author of The Yahoo Boys: Love, Deception, and the Real Lives of Nigeria’s Romance Scammers, Carlos Barragán.

Barragán, a journalist and researcher at The New York Times, flew to Lagos to embed himself with a group of young, desperate grifters. The account he brings back is a funny, sad, enraging read about how the internet can fuel heartbreak.

On the Panel

  • Kate Knibbs: senior writer at WIRED, covering prediction markets, the future of media, and how AI is changing the internet. She also leads WIRED Book Club.
  • Carlos Barragán: reporter and researcher for The New York Times based in Madrid. He was formerly a reporter at El Confidencial before receiving his MFA in nonfiction writing from Columbia University. The Yahoo Boys is his first book.

Ask a Question

Submit your burning questions about the book in the comments section below. The event will be streamed right here, so bookmark this page and mark your calendar to return on July 16 at 12pm ET / 9am PT.

How to Watch

This livestream is reserved as a subscriber benefit. For subscribers who are not able to join, a replay of the livestream will be available after the event. Not a subscriber yet? Subscribe now to get access to this livestream, plus full access to WIRED.

Join WIRED Book Club

If you’d like to start following along, you can catch up on past weeks discussions, and sign up for WIRED Book Club here.

In the meantime, check out past livestreams on how AI is changing work, big tech and the military, and more.

#Submit #Questions #World #Online #Romance #Scamslivestreams,q&a,scams,wired book club,books">Submit Your Questions: Inside The World of Online Romance Scams

For our very first WIRED Book Club livestream, Kate Knibbs will be joined by the author of The Yahoo Boys: Love, Deception, and the Real Lives of Nigeria’s Romance Scammers, Carlos Barragán.

Barragán, a journalist and researcher at The New York Times, flew to Lagos to embed himself with a group of young, desperate grifters. The account he brings back is a funny, sad, enraging read about how the internet can fuel heartbreak.

On the Panel

  • Kate Knibbs: senior writer at WIRED, covering prediction markets, the future of media, and how AI is changing the internet. She also leads WIRED Book Club.
  • Carlos Barragán: reporter and researcher for The New York Times based in Madrid. He was formerly a reporter at El Confidencial before receiving his MFA in nonfiction writing from Columbia University. The Yahoo Boys is his first book.

Ask a Question

Submit your burning questions about the book in the comments section below. The event will be streamed right here, so bookmark this page and mark your calendar to return on July 16 at 12pm ET / 9am PT.

How to Watch

This livestream is reserved as a subscriber benefit. For subscribers who are not able to join, a replay of the livestream will be available after the event. Not a subscriber yet? Subscribe now to get access to this livestream, plus full access to WIRED.

Join WIRED Book Club

If you’d like to start following along, you can catch up on past weeks discussions, and sign up for WIRED Book Club here.

In the meantime, check out past livestreams on how AI is changing work, big tech and the military, and more.

#Submit #Questions #World #Online #Romance #Scamslivestreams,q&a,scams,wired book club,books

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