Materia Abierta

_English


The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
10.1
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
10.1
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
10.2
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
10.2
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
10.3
The flesh of a puffball is called the gleba, and when immature (and edible) it is pure white and has the texture of marshmallow. Once mature the gleba’s color changes to yellow and brown and should not be eaten at this stage because of its poor taste and possible toxicity. In addition to a change in color the gleba becomes powdery at maturity due to the spores and capillitium (sterile threads that hold the spores).
10.3

_Español


Many fungi are hyperaccumulators, meaning they are able to concentrate toxins in their fruiting bodies for later removal. This is usually true for populations that have been exposed to contaminants for a long time, and have developed a high tolerance. Hyperaccumulation occurs via biosorption on the cellular surface, where the metals enter the mycelium passively with very little intracellular uptake.
Many fungi are hyperaccumulators, meaning they are able to concentrate toxins in their fruiting bodies for later removal. This is usually true for populations that have been exposed to contaminants for a long time, and have developed a high tolerance. Hyperaccumulation occurs via biosorption on the cellular surface, where the metals enter the mycelium passively with very little intracellular uptake.
20.1
Many fungi are hyperaccumulators, meaning they are able to concentrate toxins in their fruiting bodies for later removal. This is usually true for populations that have been exposed to contaminants for a long time, and have developed a high tolerance. Hyperaccumulation occurs via biosorption on the cellular surface, where the metals enter the mycelium passively with very little intracellular uptake.
20.1
Many fungi are hyperaccumulators, meaning they are able to concentrate toxins in their fruiting bodies for later removal. This is usually true for populations that have been exposed to contaminants for a long time, and have developed a high tolerance. Hyperaccumulation occurs via biosorption on the cellular surface, where the metals enter the mycelium passively with very little intracellular uptake.
Many fungi are hyperaccumulators, meaning they are able to concentrate toxins in their fruiting bodies for later removal. This is usually true for populations that have been exposed to contaminants for a long time, and have developed a high tolerance. Hyperaccumulation occurs via biosorption on the cellular surface, where the metals enter the mycelium passively with very little intracellular uptake.
20.2
Many fungi are hyperaccumulators, meaning they are able to concentrate toxins in their fruiting bodies for later removal. This is usually true for populations that have been exposed to contaminants for a long time, and have developed a high tolerance. Hyperaccumulation occurs via biosorption on the cellular surface, where the metals enter the mycelium passively with very little intracellular uptake.
20.2
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