Plants Really Don't Like to Be Touched (2024)

There are a lot of New Agey gardening tips that abound. Some gurus recommend playing music for your houseplants, or having conversations with them, or even giving them gentle massages or an intimate touch now and then. Most of these practices are probably more for the benefit of the gardener than the garden, but generally innocuous enough.

That is, except for one. Your plants really dislike when you touch them, apparently.

A new study out of the La Trobe Institute for Agriculture and Food has found that most plants are extremely sensitive to touch, and even a light touch can significantly stunt their growth, reports Phys.org.

It's a finding that flies in the face of an age old green thumb myth, but La Trobe researcher Jim Whelan, who led the new study, says that his research is conclusive, and that we've got a lot still to learn about the growth of plants.

"The lightest touch from a human, animal, insect, or even plants touching each other in the wind, triggers a huge gene response in the plant," he said. "Within 30 minutes of being touched, 10 per cent of the plant's genome is altered. This involves a huge expenditure of energy which is taken away from plant growth. If the touching is repeated, then plant growth is reduced by up to 30 per cent."

Why plants respond this way

Whelan and his team are still trying to figure out why plants respond, and on the genetic level, so strongly. They do have some theories, however.

"We know that when an insect lands on a plant, genes are activated preparing the plant to defend itself against being eaten," said Dr. Yan Wang, co-author on the study.

He continued: "Likewise, when plants grow so close together that they touch one another, the retarded growth defense response may optimize access to sunlight. So, for optimal growth, the density of planting can be matched with resource input."

Until more research is done, especially research that looks at the genetic mechanisms at play in these responses, it's all just speculation at this point. Still, the findings might already lead to new methodologies for how agriculturalists handle their crops, to best promote healthier growth.

It's worth noting that while the study found that plants often respond to just a single touch in these negative ways, it's really repeated touching that causes lasting stunted growth. That's because the plants are looking for patterns in the touching, to distinguish harmful touch from random touch.

So it doesn't have to weigh on your conscience each time you accidentally brush up against a bush during a jog through the woods.

The study certainly gives a whole new meaning to the idea of tree-hugging, though.

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  27. Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, uponbly to optimize access to sunlight.

  28. Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, furtherto optimize access to sunlight.

  29. Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further researchize access to sunlight.

  30. Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research iss to sunlight.

  31. Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed Whelan and

  32. Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to Genetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravelnetic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel theic Responses and Speculation: While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precisenses and Speculation:** While the study sheds light on the observable effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic genetic mechanisms behind plants' strong response to touch. Dr. Yan effects of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms,ts of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at of touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play touch on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

5on plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

5.plants, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  1. **ts, the article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  2. **Impe article notes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  3. **Implications suggestsnotes that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  4. **Implications for that researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  5. **Implications for Agriculture: researchers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  6. Implications for Agriculture: chers are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  7. Implications for Agriculture: The are still exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  8. Implications for Agriculture: The article closel exploring the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  9. Implications for Agriculture: The article hints atg the genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  10. Implications for Agriculture: The article hints at potentiale genetic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  11. Implications for Agriculture: The article hints at potential implicationstic reasons behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  12. Implications for Agriculture: The article hints at potential implications for agricultural other behind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  13. Implications for Agriculture: The article hints at potential implications for agricultural practicesbehind these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  14. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggestingnd these strong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  15. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting thatstrong responses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  16. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that theresponses. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  17. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findingss. Dr. Yan Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  18. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings mightn Wang speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  19. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead speculates that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  20. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivatinges that the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  21. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. the genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  22. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding howe genetic activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  23. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants activation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  24. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respondactivation observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  25. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond ton observed when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  26. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touchobserved when an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  27. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch couldhen an insect lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  28. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guidet lands on a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  29. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agricultural theon a plant may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  30. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalistst may be linked to the plant's defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  31. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to.

The implicationss defense against being eaten. However, further research is needed to unravel the precise genetic mechanisms at play.

  1. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant this research extend beyond debunkingurther research is needed to unravel the precise genetic mechanisms at play.

  1. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior gardening myths. The findingsrecise genetic mechanisms at play.

  1. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that influence agriculturalt play.

  1. Implications for Agriculture: The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrantsImplications for Agriculture:** The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants furthermplications for Agriculture:** The article hints at potential implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration a reevaluation of how crops are handled to promotel implications for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in theions for agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plantr agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology agricultural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology andtural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology and agricultureural practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology and agriculture.l practices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology and agriculture.ractices, suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology and agriculture., suggesting that the findings might lead to new methodologies for cultivating crops. Understanding how plants respond to touch could guide agriculturalists in optimizing plant growth by minimizing potentially detrimental interactions.

In conclusion, this study challenges conventional wisdom about the benefits of touch in gardening, revealing a complex and sensitive side to plant behavior that warrants further exploration and research in the realm of plant biology and agriculture. note that further research, particularly on the genetic aspects of these responses, is needed to solidify the findings and guide practical applications.

In conclusion, the La Trobe study introduces a fascinating perspective on plant sensitivity to touch, challenging preconceived notions about gardening practices. This information may reshape the way agriculturalists approach crop management and could pave the way for more informed and effective cultivation methods.

Plants Really Don't Like to Be Touched (2024)
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