Xylem stock illustrations

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Water circulation in the plant root, stem and leaf Water enters the root hairs by osmosis, moving from high water concentration to low water concentration.
Minerals dissolve easily in water and move into the root by diffusion - either by passive transport or by active transport.
Water moves across the ground tissue and into xylem tissue. Water is then transported up the plant. xylem stock illustrations
Water circulation in the plant root, stem and leaf Water enters the root hairs by osmosis, moving from high water concentration to low water concentration. Minerals dissolve easily in water and move into the root by diffusion - either by passive transport or by active transport. Water moves across the ground tissue and into xylem tissue. Water is then transported up the plant. xylem stock illustrations

Water enters the root hairs by osmosis, moving from high water concentration to low water concentration. Minerals dissolve easily in water and move into the root by diffusion - either by passive transport or by active transport. Water moves across the ground tissue and into xylem tissue. Water is then transported up the plant.

Water Uptake and Transport in Vascular Plants Plants contain a vast network of conduits, which consists of xylem and phloem tissues. The xylem and phloem tissues extend throughout the plant. These conducting tissues start in the roots and transect up through the trunks of trees, branching off into the branches and then branching even further into every leaf xylem stock illustrations
Water Uptake and Transport in Vascular Plants Plants contain a vast network of conduits, which consists of xylem and phloem tissues. The xylem and phloem tissues extend throughout the plant. These conducting tissues start in the roots and transect up through the trunks of trees, branching off into the branches and then branching even further into every leaf xylem stock illustrations

Plants contain a vast network of conduits, which consists of xylem and phloem tissues. The xylem and phloem tissues extend throughout the plant. These conducting tissues start in the roots and transect up through the trunks of trees, branching off into the branches and then branching even further into every leaf

Internal Structure of monocot leaf The only tissue present in ground tissue of monocot leaf is mesophyll. Mesophyll is present between the upper and lower epidermis and is not differentiated into palisade and spongy parenchyma. They are made up of chlorenchyma (chlorophyll containing parenchyma) cells and form the photosynthetic tissue of the leaf. xylem stock illustrations
Internal Structure of monocot leaf The only tissue present in ground tissue of monocot leaf is mesophyll. Mesophyll is present between the upper and lower epidermis and is not differentiated into palisade and spongy parenchyma. They are made up of chlorenchyma (chlorophyll containing parenchyma) cells and form the photosynthetic tissue of the leaf. xylem stock illustrations

The only tissue present in ground tissue of monocot leaf is mesophyll. Mesophyll is present between the upper and lower epidermis and is not differentiated into palisade and spongy parenchyma. They are made up of chlorenchyma (chlorophyll containing parenchyma) cells and form the photosynthetic tissue of the leaf.

Internal Structure of dicot leaf The waxy cuticle forms a protective layer over both the upper and lower epidermis. Column-shaped cells form a layer below the upper epidermis. Palisade mesophyll cells contain chloroplasts, which assist with photosynthesis. Below the palisade mesophyll cells are the spongy mesophyll cells. These cells are loosely packed and covered in a thin layer of water. There are large intercellular air spaces between the spongy mesophyll cells. The center of the leaf has a large vascular bundle. xylem stock illustrations
Internal Structure of dicot leaf The waxy cuticle forms a protective layer over both the upper and lower epidermis. Column-shaped cells form a layer below the upper epidermis. Palisade mesophyll cells contain chloroplasts, which assist with photosynthesis. Below the palisade mesophyll cells are the spongy mesophyll cells. These cells are loosely packed and covered in a thin layer of water. There are large intercellular air spaces between the spongy mesophyll cells. The center of the leaf has a large vascular bundle. xylem stock illustrations

The waxy cuticle forms a protective layer over both the upper and lower epidermis. Column-shaped cells form a layer below the upper epidermis. Palisade mesophyll cells contain chloroplasts, which assist with photosynthesis. Below the palisade mesophyll cells are the spongy mesophyll cells. These cells are loosely packed and covered in a thin layer of water. There are large intercellular air spaces between the spongy mesophyll cells. The center of the leaf has a large vascular bundle.

Comparing animal and plant cells Animal cells are generally smaller than plant cells. Animal cells range from 10 to 30 micrometers in length, while plant cells range from 10 and 100 micrometers in length. Animal cells come in various sizes and tend to have round or irregular shapes. Plant cells are more similar in size and are typically rectangular or cube shaped. xylem stock illustrations
Comparing animal and plant cells Animal cells are generally smaller than plant cells. Animal cells range from 10 to 30 micrometers in length, while plant cells range from 10 and 100 micrometers in length. Animal cells come in various sizes and tend to have round or irregular shapes. Plant cells are more similar in size and are typically rectangular or cube shaped. xylem stock illustrations

Animal cells are generally smaller than plant cells. Animal cells range from 10 to 30 micrometers in length, while plant cells range from 10 and 100 micrometers in length. Animal cells come in various sizes and tend to have round or irregular shapes. Plant cells are more similar in size and are typically rectangular or cube shaped.

photosynthesis photosynthesis. Diagram of the process of photosynthesis, showing the light reactions and the Calvin cycle. photosynthesis by absorbing water, light from the sun, and carbon dioxide from the atmosphere and converting it to sugars and oxygen. Light reactions occur in the thylakoid. Calvin Cycle occurs in the stoma. xylem stock illustrations
photosynthesis photosynthesis. Diagram of the process of photosynthesis, showing the light reactions and the Calvin cycle. photosynthesis by absorbing water, light from the sun, and carbon dioxide from the atmosphere and converting it to sugars and oxygen. Light reactions occur in the thylakoid. Calvin Cycle occurs in the stoma. xylem stock illustrations

photosynthesis. Diagram of the process of photosynthesis, showing the light reactions and the Calvin cycle. photosynthesis by absorbing water, light from the sun, and carbon dioxide from the atmosphere and converting it to sugars and oxygen. Light reactions occur in the thylakoid. Calvin Cycle occurs in the stoma.

Types of Tissue in Plants Plant tissue is a collection of similar cells performing an organized function for the plant. Each plant tissue is specialized for a unique purpose, and can be combined with other tissues to create organs such as leaves, flowers, stems and roots. xylem stock illustrations
Types of Tissue in Plants Plant tissue is a collection of similar cells performing an organized function for the plant. Each plant tissue is specialized for a unique purpose, and can be combined with other tissues to create organs such as leaves, flowers, stems and roots. xylem stock illustrations

Plant tissue is a collection of similar cells performing an organized function for the plant. Each plant tissue is specialized for a unique purpose, and can be combined with other tissues to create organs such as leaves, flowers, stems and roots.

Illustration of leaf anatomy and layers The fine scale structure of a leaf featuring the major tissues; the upper and lower epithelia (and associated cuticles), the palisade and spongy mesophyll and the guard cells of the stoma. Vascular tissue (veins) is not shown. Key plant cell organelles (the cell wall, nucleus, chloroplasts, vacuole and cytoplasm) are also shown. xylem stock illustrations
Illustration of leaf anatomy and layers The fine scale structure of a leaf featuring the major tissues; the upper and lower epithelia (and associated cuticles), the palisade and spongy mesophyll and the guard cells of the stoma. Vascular tissue (veins) is not shown. Key plant cell organelles (the cell wall, nucleus, chloroplasts, vacuole and cytoplasm) are also shown. xylem stock illustrations

The fine scale structure of a leaf featuring the major tissues; the upper and lower epithelia (and associated cuticles), the palisade and spongy mesophyll and the guard cells of the stoma. Vascular tissue (veins) is not shown. Key plant cell organelles (the cell wall, nucleus, chloroplasts, vacuole and cytoplasm) are also shown.

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