Sclerenchyma
In the stem of monocots
The main tissue in a hydrilla plant is parenchyma tissue. Parenchyma cells are responsible for various functions, including storage, photosynthesis, and support in the plant.
No, monocots do not have a vascular cambium. Vascular cambium is a type of meristematic tissue found in dicots that produces secondary xylem and phloem, allowing for secondary growth in stems. Monocots lack this tissue layer and instead exhibit primary growth throughout their lifespan.
Taproot and also stilt roots in many monocots
1. Monocots have one cotyledon in the embryo and dicots have two 2. Vascular bundles in monocots are closed in dicots these are open 3. Leaves have parallel venation in monocots & reticulate in dicots 4. Floral parts are in multiple of three in monocots, and five or their multiple in dicots.
Monocots Monocots
Fibrocartilage tissue provides support and rigidity to attached/surrounding structures.
Shoot, that's simple. Monocots and dicots (or monocotyledons and dicotyledons if you want to get serious). There are many differences, but the vascular tissue is the most apparent difference. Dicots have much more organized and specialized vascular tissue when compared to monocots. An example of a monocot would be grass, corn, or a Lilly. An example of a dicot would be an elm tree, or a rose bush. Message me if you would like to know more.
No, most of them have a fibrous root system.
The ground tissue in a plant is located in the middle layer of the plant's structure, between the outer dermal tissue and the inner vascular tissue. It serves several functions, including storage, support, and photosynthesis.
The four main tissues in the human body are epithelial tissue, connective tissue, muscle tissue, and nervous tissue. Epithelial tissue covers body surfaces, connective tissue provides support and structure, muscle tissue enables movement, and nervous tissue conducts electrical impulses for communication.
Taproot and also stilt roots in many monocots