It trans locate food in plants mainly. Also transport some minerals,molecules ,hormones etc
Yes, vascular plants have specialized transporting cells known as xylem and phloem. Xylem transports water and dissolved minerals from the roots to the rest of the plant, while phloem distributes sugars and nutrients produced through photosynthesis. These specialized cells enable vascular plants to efficiently transport essential substances, supporting their growth and overall function.
Yes, but some plants lack certain types of xylem and phloem cells such as vessel elements and tracheids. Tracheids have been lost in Wolffia, an aquatic plant, and vessels are not present in all conifers.
The phloem consists mainly of sieve tubes, companion cells, phloem fibers, and parenchyma cells. Sieve tubes are responsible for transporting sugars and other organic compounds, while companion cells support sieve tube function. Phloem fibers provide structural support, and parenchyma cells store nutrients.
No, the xylem and phloem are not grouped together in the cambium. The cambium is a layer of cells in between the xylem and phloem that is responsible for secondary growth in plants. It gives rise to new xylem and phloem cells as the plant grows.
The xylem and phloem are separated by vascular cambium in woody plants. This layer of meristematic tissue is responsible for producing new xylem and phloem cells, allowing the plant to grow in diameter.
The cambium is a layer of cells in plants that is responsible for lateral growth, producing new xylem and phloem cells. It plays a key role in secondary growth, increasing the width of stems and roots.
they r bothe tisues
Yes, vascular plants have specialized transporting cells known as xylem and phloem. Xylem transports water and dissolved minerals from the roots to the rest of the plant, while phloem distributes sugars and nutrients produced through photosynthesis. These specialized cells enable vascular plants to efficiently transport essential substances, supporting their growth and overall function.
Yes, but some plants lack certain types of xylem and phloem cells such as vessel elements and tracheids. Tracheids have been lost in Wolffia, an aquatic plant, and vessels are not present in all conifers.
Companion cells support the function of sieve tube elements in plants by providing them with nutrients, energy, and signaling molecules through plasmodesmata. They help maintain pressure and flow within the phloem to facilitate transport of sugars and other nutrients throughout the plant. Companion cells are essential for the efficient operation of the phloem system in plants.
The phloem consists mainly of sieve tubes, companion cells, phloem fibers, and parenchyma cells. Sieve tubes are responsible for transporting sugars and other organic compounds, while companion cells support sieve tube function. Phloem fibers provide structural support, and parenchyma cells store nutrients.
No, the xylem and phloem are not grouped together in the cambium. The cambium is a layer of cells in between the xylem and phloem that is responsible for secondary growth in plants. It gives rise to new xylem and phloem cells as the plant grows.
The xylem and phloem are separated by vascular cambium in woody plants. This layer of meristematic tissue is responsible for producing new xylem and phloem cells, allowing the plant to grow in diameter.
"Phloem is a word that the person asking this question doesn't know how to use in a sentence"In vascular plants, phloem is the living tissue that carries organic nutrients.The phloem is composed of still-living cells that transport sap.Phloem tubes sit on the outside of the xylem in most plants.
I am not exact on this but i know it's xylem and phloem cells in vascular plants
Exept Red blood cells of mammals and seive cells of phloem of plants all others have
In corn plants, the cells that have a function most similar to blood vessels in earthworms are the xylem and phloem cells. The xylem transports water and minerals from the roots to the rest of the plant, akin to how blood vessels carry nutrients and oxygen in earthworms. The phloem, on the other hand, distributes sugars and other organic compounds produced through photosynthesis, similar to the role of blood in distributing nutrients throughout the earthworm's body. Together, these vascular tissues facilitate the transport of essential substances in plants, paralleling the circulatory function in earthworms.