Scientists Discover Uncommon Fungus With Ability to Learn and Retain Memory

Scientists Discover Uncommon Fungus With Ability to Learn and Retain Memory

Scientists Discover Uncommon Fungus With Ability to Learn and Retain Memory


### Researchers Uncover Uncommon Fungus Exhibiting Signs of Intelligence: *Phanerochaete velutina*

In an extraordinary finding, researchers have identified an uncommon and captivating fungus named *Phanerochaete velutina*. Although it lacks the perilous or world-ending attributes of the fictional fungi portrayed in popular media such as *The Last of Us*, this fungus has showcased remarkable signs of intelligence, including shape recognition and the ability to convey information to its fungal network.

#### The Research: Fungi and Shape Detection

The study, featured in the journal *Fungal Ecology*, elaborates on a sequence of experiments executed by scientists to investigate the behavior of *P. velutina*. During one experiment, small wooden blocks were configured into various shapes, and the fungus was permitted to spread across them. The findings were astonishing: instead of uniformly dispersing from a central point, the fungus seemed to make choices based on the structure of the blocks, altering its growth trajectory to align with the shape more efficiently.

This behavior indicates that *P. velutina* has a primitive form of intelligence, enabling it to “detect” spatial arrangements and modify its growth in response. Researchers suspect that this insight could drastically reshape our perception of fungi and similar microscopic entities.

#### How the Fungus “Shares Information”

One of the most intriguing elements of the study is how *P. velutina* seemingly communicates details about its environment to its fungal network. In one trial, the researchers arranged wooden blocks in a circular formation. The fungus swiftly recognized the position of the blocks and steered clear of the center of the circle, where no blocks were located. This implies that the fungal mycelium—the intricate web of thread-like structures constituting the fungus’s body—can “detect” spatial variations and transmit that information throughout the network.

The researchers affirm that this shape recognition and spatial information sharing represent a form of decentralized intelligence. While it is far removed from the intricate cognition exhibited by animals or humans, it remains a significant finding that tests our comprehension of how simple life forms like fungi engage with their surroundings.

#### Possible Applications of the Discovery

The revelation of *P. velutina*’s shape-recognition capabilities could have extensive ramifications across multiple scientific disciplines. For example, it may enhance our understanding of how other microscopic organisms, such as slime molds, navigate their environments. This could pave the way for breakthroughs in fields like bioengineering, where scientists are already investigating the potential of leveraging biological systems to tackle complex challenges.

One particularly promising avenue for research that could benefit from this discovery is the creation of brain organoids—small, simplified renditions of human brains cultivated in laboratories. Insights into how fungi such as *P. velutina* process and disseminate information could shed light on neural network functionality, thereby assisting scientists in enhancing the development of advanced brain organoids. These organoids might be utilized to examine neurological disorders or even produce bioprocessors, akin to the groundbreaking bioprocessor crafted from human brain tissue, which operates more swiftly and efficiently than conventional computers.

#### A New Frontier in Fungal Studies

The discovery of intelligence in *Phanerochaete velutina* underscores the notion that even the most elementary organisms can astonish us with their sophistication. Fungi have been studied extensively for their ecological contributions, such as decomposing organic matter and engaging in symbiotic relationships with plants. Nonetheless, this recent research reveals an entirely new domain within fungal biology, illustrating that fungi are not merely passive decomposers but also active entities within their surroundings, capable of identifying and reacting to spatial signals.

As researchers delve deeper into the study of *P. velutina* and other fungi, additional surprising capacities may emerge that challenge our current notions of intelligence in nature. While this fungus isn’t poised to take over the planet anytime soon, its shape recognition and communication capabilities provide a captivating glimpse into the previously concealed intelligence within the fungal realm.

#### Conclusion

The identification of *Phanerochaete velutina*’s shape-recognition capabilities signifies a revolutionary advancement in the exploration of fungi and microscopic life forms. This rare fungus has demonstrated that even basic organisms can show signs of intelligence, adjusting to their environments and interacting with their networks in ways once deemed unthinkable. As research progresses, this finding may lead to breakthroughs in diverse fields, spanning from bioengineering to neuroscience, unveiling new perspectives on the intricate behaviors present in the natural world.

While *P. velutina* is not a danger like the fictional fungi in *The Last of Us*, its intelligence serves as a reminder that there remains a wealth of knowledge to be gained about the organisms that inhabit our planet.